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Author SHA1 Message Date
kami 64e5f3bdc1 Score the chat, query and knowledge phrasing paths (#395)
The nudge fixture only covered nudges. The shared persona block now goes into
five prompts, and the three conversational ones were unmeasured — those are the
long free-form replies where a persona break is most likely.

Adds talk_v1.json (27 Russian cases, 9 per path) and ScoreTalk, reporting
per-path as well as per-check so a chat regression can be told apart from a
knowledge one. Reuses the persona checks; the nudge-only ones (length, mood,
no questions) are left out, since a chat reply is allowed 1-3 sentences and a
follow-up question. The LLM run is opt-in on MAVEN_LLM_URL as before.

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01CGeSZxh1DCtRxmFVSYVGvJ
2026-07-31 16:28:11 +04:00
801 changed files with 8559 additions and 115503 deletions
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# Maven project dictionary for the direct-prose skill.
#
# These terms override every word preference in the skill's word-choice tables.
# Each entry exists because the name drifted in real docs or real answers, not
# because the word looked improvable.
#
# Format and the rule for adding a term: ~/.claude/skills/direct-prose/references/modes.md
terms:
resident_model:
name: resident model
meaning: the one always-warm Qwen3-1.7B llama-server that both routes and phrases
avoid:
- the model
- the LLM
- the 1.7B
- the phraser model
examples:
good: The resident model emits GBNF-constrained JSON.
bad: The 1.7B emits GBNF-constrained JSON.
router:
name: router
meaning: the stage that turns an utterance into a Decision with one of 7 intents
avoid:
- orchestrator
- intent classifier
- dispatcher
classifier:
name: classifier
meaning: the embedder nearest-neighbour path that runs when the router is off or errors
avoid:
- the fallback
- the floor
- the old router
examples:
good: A router error falls through to the classifier.
bad: A router error falls through to the floor.
cascade:
name: cascade
meaning: the ordered path stage 0, then router, then classifier
avoid:
- the pipeline
- the chain
- the fallback chain
stage_0:
name: stage 0
meaning: the deterministic rules that answer before the resident model is called
avoid:
- the fast path
- bypass
- deterministic assist
- preemption
examples:
good: Stage 0 routes agenda questions to IntentQuery.
bad: The bypass routes agenda questions to IntentQuery.
query_source:
name: query source
meaning: one entry in querySources, which either claims a turn or passes
avoid:
- arm
- handler
- branch
- answerer
examples:
good: Kiwix is the last query source before the model answers from memory.
bad: Kiwix is the last arm before the model answers from memory.
personal_boundary:
name: personal boundary
meaning: the query source that stops a question about him from reaching the world
avoid:
- the boundary
- the privacy gate
- the personal filter
clarify:
name: clarify
meaning: the turn outcome where Maven asks instead of acting
avoid:
- refusal
- rejection
- punt
examples:
good: The gate produced two false clarifies.
bad: The gate produced two false refusals.
fact:
name: fact
meaning: a keyed, supersedable row in the fact store
avoid:
- memory entry
- datum
- record
note:
name: note
meaning: free text he captured, indexed for recall
avoid:
- memo
- entry
memory:
name: memory
meaning: the embedded index over notes and facts that backs recall
avoid:
- RAG store
- vector db
- long-term memory
nudge:
name: nudge
meaning: one proactive message the digestion worker proposes and the dispatcher sends
avoid:
- suggestion
- proposal
- proactive prompt
- reminder
examples:
good: A fact can close the nudge that asked for it.
bad: A fact can close the suggestion that asked for it.
digestion_worker:
name: digestion worker
meaning: the background engine that consolidates memory and proposes nudges
avoid:
- digestion tick
- background engine
- reflection loop
reach:
name: reach
meaning: an outbound channel Maven speaks through, such as telegram, ntfy or voice
avoid:
- sink
- delivery channel
- notification backend
ecosystem:
name: ecosystem
meaning: Nexus, Praxis and Hexis together
avoid:
- the services
- the integrations
- upstream
act:
name: act
meaning: the intent that runs a capability through Hexis
avoid:
- action
- command
- execution
examples:
good: An act with no allowlisted fn is gated to a clarify.
bad: An action with no allowlisted fn is gated to a clarify.
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{
"hooks": {
"SessionStart": [
{
"hooks": [
{
"type": "command",
"command": "f=.claude/prose-dictionary.yaml; [ -f \"$f\" ] && jq -Rs '{hookSpecificOutput:{hookEventName:\"SessionStart\",additionalContext:(\"Project prose dictionary. These terms override every word preference in the direct-prose output style. Use the name, never the avoid list.\\n\\n\"+.)}}' \"$f\" 2>/dev/null || true",
"statusMessage": "Loading prose dictionary"
},
{
"type": "command",
"command": "f=HANDOFF.md; [ -f \"$f\" ] && jq -Rs '{hookSpecificOutput:{hookEventName:\"SessionStart\",additionalContext:(\"An unconsumed HANDOFF.md is present. Run the pickup skill before anything else: read it, read the Vikunja task it names, restate the assumption set in at most five bullets, and wait for the user to confirm before writing code. It is a claim from the previous session, not truth. Delete it once consumed.\\n\\n\"+.)}}' \"$f\" 2>/dev/null || true",
"statusMessage": "Loading handoff"
}
]
}
]
}
}
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---
name: pickup
description: Start a work session on a Maven task. Runs task start, reads the brief and the disposable handoff, restates the assumption set, and waits for correction before touching code. Use at the start of any session that continues earlier work, when the user says "pickup", "continue", "resume", or names a Vikunja task id.
---
# Pickup
The point of this skill is the pause in step 5. Every wasted session in this repo
started with an agent that inferred the goal instead of stating it back.
## 0. Get on the branch
```sh
task start <vikunja-id>
```
`~/.local/bin/task` owns the branch, the identity and the PR. It cuts
`task/<id>-<slug>` off `origin/master` and sets the commit author to the `claude`
gitea user. It writes `TASK.md` from the Vikunja task, and pulls any waiting
review comments into `.task/review-comments.md`. Do not hand-roll any of that.
`TASK.md` is the brief and it is immutable. If it says a PR already exists, this
is a review-fix session and not new work. Read the comments first.
## 1. Read the handoff
`HANDOFF.md` at the repo root, if it exists. It is gitignored, it belongs to one
session, and it holds only what is needed to resume. Treat it as a claim from the
previous agent, not as truth. It can be stale or wrong.
If there is no handoff, that is normal. It means the last session closed clean.
## 2. Read the durable state
In this order, and stop as soon as you have enough:
- The Vikunja task, by id. Project Maven is ID 2, MCP at `http://localhost:9100/mcp`.
The task description and its comments hold the goal, the constraints, and the
assumption ledger. This outranks the handoff on every conflict.
- `CLAUDE.md`, the section that covers the area you are about to touch.
- The one file under `docs/` that owns the area. Check its `Last verified` line.
If the sha is behind the code you are reading, say so in step 4 and trust the code.
Do not read the dated files under `docs/evals/`. They are measurements from one day,
never updated. Read one only when you need the number it recorded.
If no task id is known, ask for one before doing anything else. Work without a task
is work nobody can resume.
## 3. Look at the ground
`git status`, `git log --oneline -5`, and the diff on the current branch. What the
repo says beats what any document says.
## 4. Restate, then stop
Write at most five bullets and stop. Do not write code, do not open files to "check
one thing first", do not start with a small safe change.
```
Task: V-359, one line.
Done: what is already on the branch.
Next: the one thing this session does.
Constraints: what would make this wrong.
Assuming: the beliefs that, if false, waste the session.
```
Then ask: is this right? Wait for the answer.
A corrected assumption goes into the Vikunja task as a comment, not into the handoff.
The handoff dies tonight. The task does not.
## 5. Then begin
- Delete `HANDOFF.md`. It has been consumed and must not outlive this step.
- On master, cut the branch: `scripts/task-branch.sh <id> <slug>`.
- One task per session. When context passes roughly half, run `/wrap` rather than
pushing on. A compacted session is a session that forgot why it made a choice.
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---
name: wrap
description: Close a Maven work session cleanly. Runs the tests, updates the durable docs, commits in reviewable slices with the Vikunja ref, pushes so the PR opens, records state in Vikunja, and leaves a disposable handoff only if work remains. Use when the user says "wrap", "wrap up", "done for now", or when context passes roughly half.
---
# Wrap
Run every step. A partial wrap is worse than none, because the next session trusts
the parts that did run.
## 1. Prove it works
`make test`. If something fails, fix it or say plainly in the handoff and in Vikunja
that it fails, with the output. Never wrap on an untested claim.
## 2. Update the durable docs
Ask what a future agent would have to learn the hard way, and write that down.
- `CLAUDE.md` when a fact an agent needs before touching code has changed: routing
behaviour, a measured number, a flag default, a constraint. A commit that changed
routing or phrasing without touching the matching CLAUDE.md section is a bug.
Correct stale text in place. Do not append a new paragraph next to the wrong one.
- `AGENTS.md` when the recipe to build, run or preview changed.
- The one file under `docs/` that owns the area, plus its `Last verified: <date> @ <sha>`
line. Only a doc directly under `docs/` carries that line.
- A new dated file under `docs/evals/` when you measured something. Never edit an
existing dated file. A newer measurement is a new file, and the living doc points
at it.
Nothing that must survive tonight goes anywhere else. Not into the handoff, not into
a commit message, not into a comment in the code.
## 3. Commit in slices
Under 300 changed lines per commit in non-markdown files, enforced by `.githooks/pre-commit`.
Markdown is exempt and may land as one batch.
Each commit is one idea, subject in the repo's voice, lowercase area prefix, and it
ends with the Vikunja ref:
```
router: narrow the single-token rule (V-359)
```
If a change genuinely cannot split under 300 lines, say why in the commit body before
reaching for `--no-verify`.
## 4. Land it
```sh
task pr
```
It refuses a dirty tree, pushes, opens or refreshes the PR against the repo default
branch, labels the Vikunja task in-review, comments the PR url on it, and pushes an
ntfy. Do not push by hand and do not call `tea` yourself.
## 5. Record what `task pr` cannot know
Comment on the Vikunja task: what you measured, what is still open. List every
assumption that turned out to be wrong. If the session found new work, create a task
for it now rather than describing it in prose.
This step is what makes the handoff disposable.
## 6. Leave the handoff, or leave none
If the task is finished, delete `HANDOFF.md` and stop. An empty root is the correct
end state.
If work remains, write `HANDOFF.md` with nothing but what the next agent needs to
resume, and no history:
```markdown
# Handoff — <date>
Task: V-359 <one line>
Branch: task/359-<slug>, cut from master
## Where I stopped
<two sentences, mid-thought detail that is nowhere else>
## Next action
<the single concrete next step>
## Do not
<the trap I nearly fell into, or the approach already ruled out>
```
Nothing else goes in it. No summary of what landed, that is in git and Vikunja. No
design rationale, that is in `docs/`. No fact an agent needs on any task, that is in
`CLAUDE.md`. If a line in the handoff would still matter next week, it is in the wrong
file.
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#!/bin/sh
# Every commit names the Vikunja task it belongs to.
#
# router: narrow the single-token rule (V-359)
#
# V- and not #, because Gitea autolinks #359 to a Gitea issue, which is a
# different tracker and a wrong link.
#
# Exempt: merges, reverts, fixup/squash, and the initial commit.
msg_file=$1
subject=$(sed -n '1p' "$msg_file")
case "$subject" in
Merge\ *|Revert\ *|fixup!\ *|squash!\ *|amend!\ *) exit 0 ;;
esac
if [ -f "$(git rev-parse --git-dir)/MERGE_HEAD" ]; then
exit 0
fi
if printf '%s' "$subject" | grep -qE '\(V-[0-9]+\)$'; then
exit 0
fi
echo "commit-msg: subject must end with a Vikunja task ref." >&2
echo " got: $subject" >&2
echo " want: router: narrow the single-token rule (V-359)" >&2
echo " No task yet? Create one. Work without a task is work nobody can resume." >&2
exit 1
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#!/bin/sh
# Two guards, both bypassable with --no-verify when you mean it.
# 1. master is not a working branch.
# 2. a code commit stays under 300 changed lines.
# Markdown is exempt from the size cap on purpose: docs land as one batch.
branch=$(git symbolic-ref --short HEAD 2>/dev/null)
case "$branch" in
master|main)
echo "pre-commit: refusing to commit on $branch." >&2
echo " task start <vikunja-id> # branch off origin/master, write TASK.md" >&2
exit 1
;;
esac
# Added + deleted lines across staged files that are not markdown.
# numstat prints "-\t-\t<path>" for binaries; those count 0 and that is fine,
# a binary blob is not the kind of diff this cap exists to stop.
loc=$(git diff --cached --numstat -- . ':(exclude)*.md' |
awk '$1 ~ /^[0-9]+$/ { a += $1 } $2 ~ /^[0-9]+$/ { d += $2 } END { print a + d + 0 }')
if [ "$loc" -gt 300 ]; then
echo "pre-commit: $loc changed lines in non-markdown files, cap is 300." >&2
echo " Split it. Each commit should be one reviewable idea." >&2
echo " git reset <path> to unstage, or --no-verify if this genuinely cannot split." >&2
exit 1
fi
exit 0
+2 -29
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@@ -6,10 +6,6 @@
/mavweb
/mavpoll
/mavcaldav
/mavwaked
/mavmaild
/mavupdate
/mavgpud
# Certs (private keys, don't commit)
certs/
@@ -37,13 +33,6 @@ deps
deploy/db_key.env
# Deploy secret (telegram bot token + chat id) — never commit
deploy/telegram.env
# zenmoney API token, read by mavpoll (never in argv, never committed)
deploy/zenmoney.token
# IMAP password, read by mavmaild (never in argv, never committed)
deploy/imap.password
# Compose interpolation secrets — MAVEN_AMBIENT_TOKEN today. docker compose
# reads this file itself; it is not an env_file on any service.
/.env
# Temp files
/tmp/
@@ -54,21 +43,5 @@ opencode.json
# Test coverage output
coverage.out
# Agent worktrees and local agent state. The workflow itself is tracked: the
# hooks, the skills and the prose dictionary are how a session behaves, so they
# get reviewed like code. Everything else under .claude/ is scratch.
/.claude/*
!/.claude/settings.json
!/.claude/prose-dictionary.yaml
!/.claude/skills/
# The disposable handoff. One session, then deleted. Never committed:
# anything worth keeping belongs in Vikunja, CLAUDE.md or docs/.
/HANDOFF.md
/models/stt
/models/tts
# root .env — MAVEN_AMBIENT_TOKEN and friends, same class as deploy/telegram.env
.env
# silero-vad, downloaded (see AGENTS.md)
/models/vad/
# Agent worktrees and local agent state
.claude/
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beyond the model and tts work, the useful additions are mostly around **reliability, context, and reach**, not more intelligence.
## highest-value additions
### 1. unified event intake
maven should receive normalized events from:
* praxis
* calendar
* telegram
* local notifications
* system/service health
* manual checklists
* eventually email bridges
one internal envelope:
```go
type Event struct {
Source string
Kind string
EntityIDs []string
Title string
Body string
Priority string
OccurredAt time.Time
Payload json.RawMessage
}
```
this gives digestion one stable input instead of source-specific logic.
---
### 2. explicit morning routine engine — **core engine done (2026-07-20)**
`internal/morning` — pure checklist engine, mirrors `internal/loop`/
`internal/routine`'s no-I/O contract. `Evaluate(routine, facts, now)` answers
"what's still missing" any time (order-independent — checks facts, not
sequence); `Due(routines, facts, last, now)` fires the once-per-day nag only
at `NudgeAt` (defaults to window end) and only when something's unevidenced,
with a `last`-map dedupe identical in shape to `routine.Due`'s cold-start/
last-fire tracking. Evidence is just a fact timestamped inside today's
window — manual (voice-tapped) and inferred (another daemon writing the same
key) are indistinguishable, satisfying the manual/inferred requirement for
free. Weekday/weekend variants are two `Routine`s with different `Weekdays`
sets under different names. Wired into `config.MorningRoutineConfig` +
`cmd/mavend/tick.go`'s `fireMorningRoutines` (reads only the fact keys the
configured items reference, dispatches through the normal severity/presence
routing table, body is literal joined item labels — not LLM-phrased, same
no-hallucination rationale as cron routines). 13 unit tests in
`internal/morning/morning_test.go`.
Added since (2026-07-20, same day): a read-only `/morning` page in mavweb —
`ipc.CoreAPI.MorningStatus` (new wire method, mirrors `TickTrace`'s
daemon-cache-only shape: the store adapter errors, `daemonAPI` serves it from
a `tickLoop.morningStatus` closure) returns each routine's active/window/
per-item done state, server-rendered same as `/trace` (no live-update loop —
checklist state moves on minutes, not seconds).
Not yet done: no config wired in `deploy/mavend.json` (no morning routines
configured on homesrv yet — add items there when the medicine/water/pets
fact keys the phone/desktop write are settled), no voice query path for
"what did I miss this morning" (Evaluate supports it; nothing calls it yet),
no way to create/edit routines from the web UI — construction still means
hand-editing config, deliberately deferred: routines are operator-declared
config (like cron routines), and a CRUD editor would mean moving them to a
DB table + hot-reload, a bigger change than this pass.
not ordinary reminders.
support:
* required morning items
* order-independent completion
* soft time windows
* skipped-step detection
* one nudge, not repeated spam
* manual and inferred completion evidence
* weekend/weekday variants
example:
```text
08:0011:00
- medicine
- water
- pets
- check praxis attention
```
maven should know what is still missing, not merely fire four timers.
---
### 3. cross-device presence
**status (2026-07-20):** the hysteresis engine and 3 of the listed signals are
already built and wired live: `internal/store/presence.go` (noisy-OR combiner
+ Schmitt-trigger bucket resolve), fed by `desk_active` (workstation, via
`scripts/desk-active.sh` posting to `/api/signal`), `page_heartbeat` (mavweb
tab, `app.js`), and `wg_handshake` (`mavpoll` polling `wg show`) — threaded
into the tick loop via `internal/loop/gather.go`. Not done: phone-reachable,
homesrv-available, audio-output, and active-maven-client signals from the
list below are still missing.
a small presence daemon on each trusted device:
* workstation active/idle
* phone reachable
* homesrv available
* last keyboard/mouse activity
* wireguard presence
* current audio output
* active maven client
mavend receives only compact state, not raw activity logs.
useful for:
* choosing delivery channel
* suppressing voice while away
* surfacing reminders when you return
* knowing whether an agent result should be spoken or sent as text
---
### 4. interruption policy — **done (2026-07-20), turned out to already be built**
audited the existing code before writing anything new: `internal/loop.Gate`
already answers deliver_now vs. drop (quiet-hours/cooldown/snooze/presence/
calendar-busy), and `cmd/mavend/tick.go`'s `digestQ` + `config.DigestConfig`
already implement queue/digest (low-severity nudges batch into one
notification, flushed on window elapsed or max-items reached). The four
outcomes below were already covered by these two mechanisms; nothing new to
build for the core policy.
Gap that *was* real: `deploy/mavend.json` had no `digest` block, so batching
was disabled in prod despite being fully implemented. Fixed — see the config
change alongside this note.
before delivering anything, evaluate:
```text
urgency
current activity
quiet hours
recent nudges
available channels
whether already surfaced
```
result:
```text
deliver_now
queue
digest
drop
```
this prevents maven from becoming annoying once praxis and other sources start producing more data.
---
### 5. entity-aware memory — **done (2026-07-20)**
`03fa52d`/`9876187` (Vikunja #279): facts gain `Subject`/`EntityID`/
`ResolutionState`; an async enrichment worker resolves free-text subjects to
canonical Nexus entity_ids (mirrors Praxis's enrichment pattern). Ambiguous
or unreachable Nexus never guesses — the fact stays `pending` or terminal
`ambiguous`. Voice-tapped facts (`IntentFact`) now flow into the enrichment
queue automatically via an optional `Subject` field on `WriteFactReq` (old
callers unaffected).
Landed alongside this in the same session (not originally on this list, but
closes the plumbing gaps the last brief flagged for Nexus/Praxis maturity):
a typed Praxis lifecycle client (`398997f` — surface/acknowledge/resolve/
ignore/pin; fixes the surfaced≠acknowledged gap where reading an item aloud
left no trace), correlation-ID/version headers on the Nexus/Praxis clients
(`b743860`), entity-scoped Praxis attention queries (`0579ef9`), a durable
delivery outbox with begin-before-send/complete-after semantics
(`29f23e3`+`9ff726e` — closes a duplicate-send-on-crash bug), fail-closed
handling on ambiguous IPC mutation outcomes and Nexus/Hexis dependency
errors (`838fde1`+`d9fa4d6`), and a reusable fake-ecosystem test harness
with fault injection (`c932cd8`).
connect maven memory to nexus ids.
instead of:
```text
key = "кошачий фонтан"
```
store:
```text
entity_id = ent_pet_water_fountain
predicate = refilled_at
value = 2026-07-19T...
```
benefits:
* stable russian/english aliases
* fewer duplicate facts
* better “when did i last…” queries
* easier routine detection
* cleaner praxis correlation
---
### 6. bounded follow-up state
for short continuations:
* “yes”
* “tomorrow”
* “the second one”
* “not that project”
* “do it later”
store explicit pending state instead of relying on chat history:
```go
type PendingInteraction struct {
Kind string
Candidates []string
Args json.RawMessage
ExpiresAt time.Time
}
```
this matters a lot for a 1.7b model.
---
### 7. evaluation lab — **skipped for now (2026-07-20)**
runs on a different machine (GPU box), and CPT is currently in progress
there — deprioritized until the training pipeline has a checkpoint to gate.
Not abandoned, just off the immediate list.
before every new checkpoint or lora deploy:
* routing accuracy
* slot accuracy
* malformed json rate
* russian/english mixed input
* ambiguous entity handling
* reminder vs note vs fact
* direct answer vs tool call
* confirmation safety
* phrasing quality
* latency and ram
also replay real anonymized traces against old and new checkpoints.
this should be a hard deployment gate.
---
### 8. replayable full-system simulator
fake:
* clock
* presence
* caldav
* telegram
* praxis
* nexus
* hexis
* stt
* tts
* llama-server
scenario:
```text
08:30 user appears
08:35 medicine not completed
08:40 correx agent waits
08:45 calendar sync stale
08:50 user says “what did i miss?”
```
assert:
* what tools were called
* what was surfaced
* what stayed unresolved
* what maven said
* what was not executed
this will save more time than another feature daemon.
---
## useful second-wave additions
### voice session quality
* barge-in
* interrupt tts on wake word
* partial stt display
* confidence-aware clarification
* retry only failed stt segment
* per-room microphone profiles
* noise-floor calibration
* short response mode when speaking
### notification bridge framework
small adapters for:
* ntfy
* telegram
* matrix
* web push
* android notification forwarding
* local dbus notifications
normalize into maven/praxis events instead of treating each as a separate feature.
### local knowledge ingestion
* markdown/docs ingestion
* git repo summaries
* project decision records
* conversation exports
* provenance and source links
* incremental reindexing
keep this read-only and separate from personal fact memory.
### service self-diagnostics
`maven doctor`:
* socket reachability
* model health
* stt/tts readiness
* embedder availability
* caldav freshness
* telegram poll state
* praxis/nexus/hexis reachability
* db integrity
* disk usage
* recent failures
### config and secret management
* schema-validated config
* config migration
* secret references instead of inline values
* dry-run validation
* redacted config dump
* per-daemon health config
* startup dependency report
---
## things i would not build yet
* autonomous multi-step planning
* large external reasoner
* generic workflow engine
* self-editing memory
* automatic hexis actions from praxis
* emotion simulation beyond phrasing
* full home-assistant replacement
* more model layers before routing is stable
## recommended order
**status as of 2026-07-20:**
1. ~~evaluation lab~~**skipped, GPU-box work, deprioritized while CPT is in progress**
2. ~~entity-aware memory~~**done** (`03fa52d`/`9876187`, plus adjacent
Nexus/Praxis plumbing hardening — see item 5 above)
3. ~~morning routine engine~~**core engine done** (`internal/morning` +
`cmd/mavend` wiring — see item 2 above; not yet configured on homesrv,
no voice query, no web UI)
4. interruption/delivery policy
5. presence agents
6. unified event intake
7. full-system simulator
8. notification bridges
9. knowledge ingestion
10. voice-session polish
the main goal should be: **maven reliably knows what is happening, knows what you meant, and chooses the least annoying correct response**. everything else can wait.
-56
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@@ -5,46 +5,6 @@ This repo maps to **Maven** (project ID: 2) in Vikunja.
Feature work, bugs, deployment tasks all go here.
MCP endpoint: `http://localhost:9100/mcp` (or `http://192.168.1.104:9100/mcp` from workpc)
## The sibling services (Nexus, Praxis, Hexis)
Maven is the conversational front end of a four-service ecosystem. The other three
live in sibling repos next to this one.
| Service | Repo | Port | Answers |
|---|---|---|---|
| Nexus | `../nexus` | 9740 | who or what is this name |
| Praxis | `../praxis` | 8989 | what needs attention |
| Hexis | `../hexis` | 9741 | what can be run, and running it |
Division of labour: Nexus identifies, Praxis observes, Hexis acts, Maven understands
and coordinates. Maven is not the source of truth for any of the three. The full
contract is `docs/ecosystem.md`, and the constraints that bite during
implementation are summarised in `CLAUDE.md`.
Where things are in this repo:
- `cmd/mavend/ecosystem.go` holds `nexusClient` and `praxisClient`. The Hexis client
is vendored from `github.com/kami/hexis/pkg/client`.
- `cmd/mavend/ecosystem_acts.go` routes an act through capability discovery.
- `cmd/mavend/factenrichment.go` resolves each stored fact's `Subject` against Nexus
on a background poll loop, with backoff and no give-up.
- `internal/store/entityfacts.go` holds the entity-tagged fact rows.
- Config blocks are `nexus`, `praxis` and `hexis` in `deploy/mavend.json`. Each is
optional. Absent means that integration is dark, not broken.
Bring the whole ecosystem up locally:
```sh
docker compose -f deploy/ecosystem/docker-compose.yml up -d
```
That builds all three from the sibling working trees, so commit or stash there first.
Each publishes on loopback at the port above. Maven reaches them by service name on
the shared compose network.
Testing without them running: `cmd/mavend/fakeecosystem_test.go` provides stubs, and
`cmd/mavend/ecosystem_degraded_test.go` covers each service being unreachable.
## Rendering / previewing the web UI locally
To see mavweb pages with real data without touching the production stack:
@@ -95,22 +55,6 @@ model: the code puts `query: ` in front of a question and `passage: ` in front
of a stored note, which is how e5 was trained. The quantized file is the one
that is downloaded, deployed and measured.
## Voice activity model for mavwaked
`mavwaked` decides an utterance has started with silero-vad when `-vad-model`
points at it, and with an energy threshold when it does not. The model is 2.3MB
and is not committed:
```sh
mkdir -p models/vad
curl -sL -o models/vad/silero_vad.onnx \
https://github.com/snakers4/silero-vad/raw/master/src/silero_vad/data/silero_vad.onnx
```
It needs the same `libonnxruntime.so` the embedder needs, passed as `-onnx-lib`
or read from `MAVEN_ONNX_LIB`. The measurement is
`docs/evals/2026-08-09-silero-vad.md`, and the tests skip without the file.
**Also need ONNX Runtime** (`libonnxruntime.so`):
```sh
+80 -182
View File
@@ -1,200 +1,98 @@
# CLAUDE.md
Guidance for Claude Code (claude.ai/code) working in this repository.
This file provides guidance to Claude Code (claude.ai/code) when working with code in this repository.
**This is a rules file.** It loads into every session, so it carries only what
changes what an agent does. A measurement belongs in `docs/evals/`, dated and
never edited after the day. A subsystem's reasoning belongs in its living doc
under `docs/`. Read that doc before changing the subsystem.
Maven is a self-hosted, privacy-first voice assistant (Russian + English). Go daemons
talking over unix sockets; one resident small model for routing + phrasing; whisper.cpp STT, piper TTS.
Deploy target is a Ryzen laptop (homesrv) with Vulkan offload to the Vega iGPU (`n_gpu_layers: 99`,
compose passes `/dev/dri` + the render gid) — the resident model stays ≤1.7B either way.
| Read this | Before |
**Resident model:** currently **Qwen3.5-0.8B** (`Q4_K_M`), the smallest checkpoint in the gguf
library, picked for CPU/iGPU latency. The **target** is the locally CPT'd **Qwen3-1.7B**; that
training is still in flight (Vikunja #122), so no such gguf exists yet. Model files live in
`/mnt/hdd1/llms`, bind-mounted to `/opt/maven/models/llm` — which **shadows** the repo's
`models/llm/`, so the LFM2.5 gguf sitting there is not loaded by anything. Swapping the resident
model is a one-line change to `phraser.model_path` in `deploy/mavend.json`.
See `REARCH.md` for the target architecture, `DESIGN.md` for the folded design spec, and
`AGENTS.md` for local-preview + model-download recipes.
## Build & test
CGO daemons (`mavend`, `mavsttd`, `mavttsd`, `mavenclient`) need the vendored toolchain
and libs wired through the Makefile — **do not** call `go build` on them bare, use `make`:
```sh
make build # all 8 binaries
make build-web # single daemon (pure-Go ones: web/waked/poll/caldav build without CGO)
make test # go test -race across ./internal/... ./cmd/... with CGO env set
```
Run a single test (must carry the CGO env for packages that touch STT/TTS/voice):
```sh
CGO_CFLAGS="-I$(pwd)/deps/include -I$(pwd)/deps/whisper.cpp/ggml/include" \
CGO_LDFLAGS="-L$(pwd)/deps/lib -Wl,-rpath,$(pwd)/deps/lib" \
LD_LIBRARY_PATH="$(pwd)/deps/lib" \
deps/go/go/bin/go test -run TestName ./internal/router/
```
Pure-Go packages (`router`, `memory`, `mavweb`, …) run under a plain `go test ./pkg/`.
## The daemons (`cmd/`)
| Binary | Role |
|---|---|
| `docs/routing.md` | touching `internal/router/` or `queryWalk` |
| `docs/deployment.md` | touching a daemon, compose, a systemd unit or the web UI |
| `docs/offload.md` | touching a daemon seam or adding a model caller |
| `docs/world.md` | touching search, Kiwix or the world chain |
| `docs/language.md` | changing a prompt contract or a Russian word list |
| `docs/ecosystem.md` | touching Nexus, Praxis or Hexis |
| `docs/rearchitecture.md`, `docs/design.md` | changing the shape of anything |
| `docs/workflow.md` | the five stores, the doc tiers, the guards |
| `AGENTS.md` | local preview, screenshots, model downloads |
| `mavend` | **Core.** Router, phraser, memory, reminders, digestion tick. Owns the DB + IPC socket. |
| `mavweb` | HTTP UI + PWA (`/dash`, `/history`, `/trace`, `/notifications`, `/tools`); WebAuthn auth. Connects to mavend's socket. |
| `mavsttd` | Speech-to-text (whisper.cpp, CGO). |
| `mavttsd` | Text-to-speech (piper subprocess). |
| `mavwaked` | Wake-word / VAD gate. |
| `mavenclient` | Voice loop client (mic → stt → core → tts). |
| `mavpoll` | Telegram long-poll reach. |
| `mavcaldav` | CalDAV calendar sync. |
## What Maven is
Daemons are wired socket-to-socket, not linked. `internal/ipc` is the client/server wire
protocol; the config in `deploy/mavend.json` (with `${VAR}` env expansion from gitignored
`deploy/telegram.env`) sets socket paths, model paths, and the phraser/embedder blocks.
A self-hosted, privacy-first voice assistant in Russian and English. Go daemons
talk over unix sockets. One resident small model routes and phrases. whisper.cpp
does speech-to-text and piper does text-to-speech.
## Routing — read this before touching the router
The resident model is **Qwen3-1.7B** (`UD-Q4_K_XL`) on homesrv, a Thinking
variant at `n_ctx` 4096. Keep it at 1.7B or under. Sub-500M models are unusable
in Russian (`docs/evals/2026-07-31-model-bakeoff.md`). Model files live in
`/mnt/hdd1/llms`, bind-mounted over the repo's `models/llm/`, so a gguf sitting
in the repo is loaded by nothing.
`internal/router/` has TWO layered engines and the committed default is an **interim
stopgap, not the intended design** (see memory `routing-architecture-target`):
The workstation is workpc and it holds the remote model and speech-to-text.
**It is never assumed up.** **Fall back silently** when it would only do the job
better. **Name the gap** when the resident model cannot do the job at all.
- **Target (REARCH.md):** LLM-as-router. One resident Qwen3-1.7B (`llmrouter.go`) emits
GBNF-constrained structured JSON, and the SAME model phrases replies. Embedder is demoted
from a routing gate to a RAG hint.
- **Current stopgap:** `llmrouter` is wired `nil` (around `voice.go`), so the
`classifier.go` + `embedder.go` nearest-neighbour cascade actually runs. It routes by
similarity to frozen seed phrases — the known cause of weak RU query handling.
**The embedder stays on homesrv permanently**, because it backs that floor.
`EmbedQuery` and `EmbedPassage` apply the `query:` and `passage:` prefixes
multilingual-e5-small was trained with. Calling plain `Embed` on a note is a bug.
Cascade order: `stage0.go` exact-match fast-path → LLM router (when non-nil) → classifier
fallback. Any LLM error falls through to the classifier so a turn never breaks on the model.
## Build and test
## LLM output contract
CGO daemons (`mavend`, `mavsttd`, `mavttsd`, `mavenclient`) need the vendored
toolchain wired through the Makefile. **Do not call `go build` on them bare**,
and **do not hand-write the CGO preamble**. This box runs zsh, so an unquoted
`-run Test*` dies on "no matches found" before `go` is reached. `make t` also
carries `-count=1` and sets `MAVEN_ONNX_LIB`. Without that variable the four
`TestONNX*` measurements self-skip and the run still prints `ok`.
All phrasing paths emit `{"response":"...","mood":"..."}` (parsed in `replier_llm.go` and
`internal/phraser/llmphraser.go`), with fallback to plain text and the legacy
`{"body","summary"}`. Mood is a fixed enum. Router prompt is a separate contract:
`[{"intent":<enum>, key?, value?, text?, verb?}, ...]`, 7 intents (`fact, reminder,
note, query, act, chat, system`). `llm/check_prompt_parity.py` in the training
workspace enforces that the Go and relabelling prompts remain identical.
```sh
make build # all 11 binaries. make build-web for one (web/waked/poll/caldav skip CGO)
make test # go test -race across ./internal/... ./cmd/... with CGO env set
make t PKG=./internal/router/eval/ RUN='TestONNX' V=1 # V=1 for -v, RACE=0 to drop -race
```
## Non-goals (hard constraints)
## The daemons
Never phones home. Not a nag, not autonomous. Maven's persona is **feminine** — Russian
self-reference must use feminine forms (the user is male; see memory `maven-persona-gender`).
Eleven binaries under `cmd/`, wired socket-to-socket over `internal/ipc`, not
linked. `mavend` is the core and owns the DB and the IPC socket.
`deploy/mavend.json` sets sockets, model paths and the phraser and embedder
blocks, with `${VAR}` expansion from gitignored `deploy/telegram.env`.
**`docker-compose.yml` runs five**: `mavend`, `mavsttd`, `mavttsd`, `mavweb`,
`mavpoll`. Count against compose, not against `make build`. `mavwaked` runs on
workpc under systemd. `docs/deployment.md` says who else is absent and why.
## Web UI conventions
- **Passwords are read from files, never taken as flag values.**
- **The voice wire is plaintext with no auth.** mavend's voice port stays on
homesrv loopback and reaches workpc over ssh. Do not LAN-bind it.
`SurfaceVoice` caps acts at L0, and L0 does not cap reading.
- **A GPU service added beside mavgpud goes in `cmd/mavgpud`, never in systemd.**
The card needs one owner. A second unit made mavgpud evict llama-server every
few seconds and took the model arm down for eight minutes.
Server-rendered pages share `cmd/mavweb/static/ui.css` (served at `/ui.css`) and the `nav`
partial (`navHTML` in `cmd/mavweb/main.go`, `{{template "nav" "<active-page>"}}`). No
per-page `<style>` beyond true one-offs. Wrap every table in `<div class=scroll>` so wide
data pans on a phone. Local preview + headless screenshot recipe is in `AGENTS.md`.
## The ecosystem: Nexus, Praxis, Hexis
## Vikunja
Nexus identifies, Praxis observes, Hexis acts, Maven understands. Maven does not
own identity, operational state, or execution. Full contract in
`docs/ecosystem.md`. All three are `nil` unless configured and each degrades
alone. An outage means a named gap, never a broken turn or a guess.
- **No component reads another component's database.** Praxis attention comes
over HTTP, never from its SQLite file.
- **Identity lives in Nexus.** Do not invent a local fact key for something
Nexus resolves. `cmd/mavend/factenrichment.go` resolves `actionFact.Subject`.
- **Free text never reaches a mutating Hexis call.** Resolve to a canonical
entity id first. Ambiguous resolution asks the owner, it does not pick.
- **LLM output is not authorization.** Confirmation binds capability id, target
entity, arguments, requester and expiry (`cmd/mavend/confirm.go`).
- **Praxis lifecycle words differ.** Surfaced is not acknowledged, acknowledged
is not resolved, execution success is not recovery. Reading an item aloud
calls `Surface`, never `Acknowledge`.
- **No automatic attention-to-action path.** Digestion may summarise Praxis and
may not call Hexis.
- Every cross-service call carries a correlation id minted once per action
(`withCorrelationID`), a contract version header, and `X-Requested-By: maven`.
## Routing
**Read `docs/routing.md` before touching `internal/router/` or `queryWalk`.** It
carries the reasoning, the measurements and every rule's why. A route produces
two decisions. **Intent** is one of seven values. **Source** is where the answer
lives and is read on `IntentQuery` alone. Score them separately. The cascade is
stage 0 grammars, then the routing heads, then the resident model, then the
classifier. Every stage may decline and the next one answers.
- **The classifier is the floor, not dead code.** It answers when the resident
model is off, absent, or erroring. **Any model error falls through.**
- **`baselineGrammars` in `eval_test.go` mirrors `buildRouter`.** A grammar
added to one belongs in both, or the fixture scores a set nobody runs.
- **Go's `\b` is ASCII-only** and never fires after a Cyrillic letter. A Russian
pattern needs an explicit `(\s|[?!.]|$)`.
- **`PraxisGrammars()` is the only path to Praxis**, not a faster one.
- **`voice.embedder.heads_path` must never point at `model_path`.** Recall
depends on the resident e5-small scoring what it scored. Fine-tune a copy.
- **Routing traces are retained 14 days**, enforced on write and again on start.
- **Bump `tokenizerRev` on any change to what `encodeWord` emits**, so a
tokenizer fix triggers `ReembedAll` the way swapping the model file does.
- **A new rung in the `runTurn` ladder needs its name in `preRouteLadder`**
(`cmd/mavend/decisiontrace.go`), or it is missing from the decision record.
**`queryWalk` takes query sources out and moves none** (`actions_query.go`). That
is the safety argument and it is not negotiable. The table's order is
load-bearing and carries "the owner's data first, then the world".
`SourceUnknown` is the floor and walks the whole chain. A named destination
removes only the sources marked `guesses: true`, so a source that looks rather
than guesses is always asked. **The personal boundary is the one exception and
it is deliberate.** It guesses, so naming `SourceWorld` drops it. **Only a stage
0 grammar may drop it** (owner's call, V-666). `queryWalk` reads
`Decision.SourceAnchored` for the source marked `boundary: true` and no other.
Judge a routing change against the classifier (76.0% intent, 36.4% destination)
and the resident model (80.2% intent), since those always answer. The fixture
has grown from 77 cases to 96, so a number compares only to another number on
the same fixture.
## Language: model output and Russian
Both contracts are in `docs/language.md`. What must not be broken:
- **One parser for model text, `parseResponseMood`** in
`internal/phraser/parse.go`. Every phrasing path reaches it. Mood is an enum.
- **The router prompt is a separate contract** over 7 intents, and
`llm/check_prompt_parity.py` keeps the Go and relabelling copies identical.
- **Russian words are matched by three mechanisms and no fourth**:
`internal/lexicon` for closed classes, `internal/morph` for grammar, and
`cmd/mavend/topics.go` with the embedder for open sets. A regex whose output
is a fact or a route is the defect. A regex over structured input is not.
- **Seeds are scoring data.** Editing one moves a recogniser and must be
re-measured against the `TestONNX*` tests, not eyeballed.
## Non-goals and hard constraints
Not a nag, not autonomous.
**The persona is feminine.** Russian self-reference takes feminine forms: `рада`
not `рад`, `поняла` not `понял`. The owner is male and she speaks to him
informally. Use "ты", singular, never "вы" or "ваш", and never "он" or "его".
She talks TO the owner, not about him. Pet names such as "милый" are forbidden.
The name "Ками" is not. `CheckAddress`, `CheckFeminine` and `CheckCringe` in
`internal/phraser/eval/checks.go` enforce this, scored by `make eval-phrasing`.
**"Never phones home" is deprecated** (owner's call, 2026-07-31). She reads
external sources, and `docs/world.md` carries that chain. What holds regardless:
- **No telemetry, no cloud model, no third-party account.** Inference stays on
the box and nothing about Maven is reported to anyone.
- **The owner's data first, then the world.** Every source reading his facts,
notes, calendar, tasks or house runs first, and the personal boundary sits
between them and anything outside.
- **His notes and facts are never search input.** Only the utterance goes out,
never the persona block, the history, or matched notes.
- **External search is allowed and off unless configured.** Deleting the
`search` block in `deploy/mavend.json` turns it off.
- **`Response.Empty()` is the whole gate** on a world answer. There is no
quality threshold in front of it and four candidate signals all failed.
## Session workflow
`docs/workflow.md` carries the five stores, the doc tiers and the guards. One
task, one session, one PR. `/pickup` opens a session and `/wrap` closes it. Wrap
at roughly half context rather than letting the session compact.
```sh
task start <vikunja-id> # branch off origin/master, write TASK.md, fetch review comments
task pr # push, open or refresh the PR, label Vikunja, notify
ToolSearch("select:mcp__vikunja__list_tasks,mcp__vikunja__get_task_details,mcp__vikunja__create_task,mcp__vikunja__update_task")
```
- This repo is Vikunja project **Maven** (ID 2), MCP at
`http://localhost:9100/mcp`, or `http://192.168.1.104:9100/mcp` from workpc.
- **A session with no task id asks for one before it starts**, because work
without one is work nobody can resume.
- **Close a finished task with `done: true` and nothing else** (owner's call,
2026-08-07). `update_task` carrying a `description` resets `done` to false.
- **`pre-commit` refuses master** and more than 300 changed lines in
non-markdown files. Markdown is exempt and may land as one batch.
- **`commit-msg` requires the subject to end with `(V-<id>)`.** `V-` and not
`#`, because Gitea autolinks `#123` to the wrong tracker.
- **`diff-budget.sh` blocks edits past 600 changed lines** on a `task/` branch.
- **`--no-verify` exists.** Using it means saying why in the commit body.
This repo is project **Maven** (ID 2) in Vikunja. MCP: `http://localhost:9100/mcp` (or
`http://192.168.1.104:9100/mcp` from workpc). Feature/bug/deploy tasks go there.
+16 -243
View File
@@ -1,12 +1,10 @@
# Maven — Design
*Last verified: 2026-08-07 @ beb093a. Living doc: correct it in place, do not append.*
> Folded 2026-07-30 from `SPEC.md` (north star, 2026-07-03), `maven.md`
> (consolidated decisions, 2026-06-30) and `ROADMAP.md` (execution plan,
> 2026-07-06). Those three files are gone; git history holds them.
> This is the single design document: principles, target state, and the
> execution ledger. `docs/rearchitecture.md` remains authoritative wherever it disagrees
> execution ledger. `REARCH.md` remains authoritative wherever it disagrees
> with anything here. Everything the three sources asserted that is no longer
> the intended design is preserved under **§ Superseded** — do not read that
> section as current.
@@ -17,8 +15,7 @@
**Maven** — self-hosted personal assistant. Manages your day, acts on your
homelab. One daemon on homesrv (always-on, not the workstation), multiple
client surfaces. Inference and data stay on the box; she may READ external
sources (see Non-goals — "never phones home" is deprecated).
client surfaces. All local, never phones home.
Primary name is "Maven", with feminine-gendered Russian self-reference
("она", "меня", "помогла"). Clients may choose their own UI label. Consistent
@@ -38,13 +35,8 @@ Inside boundary — the ones that actually constrain the build:
she records. A confident wrong fact is worse than a known gap.
- **Not a nag** — she'd rather miss a nudge than be mutable. Shuts up when
uncertain. Load-bearing.
- **Not a stranger** — runs on your stuff, your model, your data. No
telemetry, no cloud model, no third-party account. She may READ external
sources to answer world questions (Kiwix first, then optional search); she
never reports anything about you to anyone, and your notes and facts are
never used as search input. **"Never phones home" as an absolute is
deprecated** — owner's call, 2026-07-31: a small model does not know enough
to be useful without reading.
- **Not a stranger** — runs on your stuff, your model, your data. Never
phones home.
- **Not a relationship** — mom-tone is a function that makes nudges land, not
emotional company. Names the drift a warm small model falls into.
@@ -162,7 +154,7 @@ presence_state ( last_bucket, last_score, updated_ts )
```
Facts additionally carry `Subject`/`EntityID`/`ResolutionState` for
entity-aware resolution against Nexus (see `docs/ecosystem.md`).
entity-aware resolution against Nexus (see `MAVEN_ECOSYSTEM_ARCHITECTURE.md`).
### Trigger model
@@ -198,7 +190,7 @@ INTO the gate as an env predicate, not the LLM's job.
## Reactive path — routing
**Target design: LLM-as-router** (see `docs/rearchitecture.md` and `CLAUDE.md`). One
**Target design: LLM-as-router** (see `REARCH.md` and `CLAUDE.md`). One
resident model emits GBNF-constrained structured JSON, and the same model
phrases replies; the embedder is a RAG hint, not a routing gate. The
committed default today is the classifier/embedder cascade, which is an
@@ -223,121 +215,6 @@ Not alternatives — layers:
Router contract: `[{"intent":<enum>, key?, value?, text?, verb?}, ...]` over
7 intents (`fact, reminder, note, query, act, chat, system`).
#### "второй" points at the list she just read
Landed 2026-08-04 (Vikunja #448). The dialogue session carried the intent, the
slots and the history, and not the list. She recited five tasks, he said
"второй", and the word had nothing to point at.
`Session.Candidates` holds what she just offered, bound at the moment she speaks
it and in the order she speaks it (`tasks.Spoken`). Binding afterwards would
resolve the word against a fresh query, and the list changes between two turns.
`cmd/mavend/ordinal.go` reads the position before routing and dispatches on the
candidate's kind.
An ordinal with no verb is read back, not acted on — "второй" names a task, it
does not say what to do with it. With a verb ("первую сделал", "последнюю
убери") the task moves and the list is spent, because a second ordinal against a
list that no longer holds closes the wrong work. A position she never read is
answered with how many she did read, not routed as a fresh sentence.
#### Saying she got it wrong is a feature
Landed 2026-08-04 (Vikunja #455). `Router.CorrectMisroute` could always append a
corrected utterance as a new classifier example, and until now nothing in the
daemon called it, so the mechanism existed and the behaviour did not.
`cmd/mavend/repair.go` reaches it. He says she got it wrong and names what it
should have been — "нет, это заметка", "это не напоминание, а факт" — and three
things happen in one turn: the classifier learns the utterance under the named
intent, the request is redone under it, and she says the correction landed. The
utterance he is correcting TO is the one with no "не" in front of it.
Read before routing, next to the confirm and clarify turns, because a correction
routed as a fresh utterance files the correction itself. One turn is correctable
once, inside five minutes, and only turns she acted on — a clarify asked instead
of acting, so there is nothing yet to be wrong about.
#### A restart expires a parked question
Decided 2026-08-04 (Vikunja #385). The follow-up dialogue session survives a
restart; the clarify question parked behind it does not, and neither do the
three yes/no confirms in `voice.go`. `ClarifyStore` stays in memory.
Three reasons, in the order they settle it:
- The clock stops meaning anything. A parked question carries a 90s TTL and an
attempt count. A restart is a gap of unknown length, so a restored question is
either already dead or pretending to be young.
- Restoring the question restores the request behind it. He asked for something,
she asked back, and then the daemon went away. Acting on that minutes later,
against words he has probably given up on, is the misroute the stage 3 gate
exists to avoid.
- She does not announce it either. The expiry notice needs to know a question
was parked, and knowing that across a restart means storing it. One sentence,
in the rare window where he speaks within 90s of a restart, does not pay for a
marker that outlives the thing it describes. His next words route fresh, which
is the correct answer with or without the notice.
So the notice stays what it is: the in-process TTL case, where she really did
wait and really did let go.
#### A parked question may step aside three times
Decided 2026-08-07 (V-654). A side query or an aside suspends the parked
question instead of dropping it. The words are answered as themselves, and the
question comes back on the end of the same reply.
Neither bound on a question reaches that path. No attempt is spent, because a
side query is not a failed answer, so `MaxAttempts` never applies.
`noteSuspended` also restarts the 90s clock, since she is about to speak the
question again. So the TTL cannot arrive while he keeps talking.
Measured on 2026-08-07: one unfilled time slot rode the tail of six consecutive
unrelated replies. It stopped only when a seventh turn happened to read as a
failed answer. See `docs/evals/2026-08-07-week-of-usage.md`.
`PendingQuestion.Suspends` counts the step-asides. `MaxSuspends` is 3, matching
`DefaultMaxAttempts`. Past it she lets the request go, with the same
`clarifyDropped` line every other drop uses. The owner's rule is unchanged. A
question still ends by being answered or by being let go out loud. This only
recognises three unrelated requests in a row as the second of those.
The count is of CONSECUTIVE step-asides. It resets the moment he answers, in
`resolveClarifyAnswer`. An answer that gives her nothing she asked for resets it
too. "Позвонить маме" against a question about the time is still him in the
exchange. The retry it costs is bound enough on its own.
#### And it may ride four turns in all
Decided 2026-08-08 (V-663), because the bound above did not move the number it
was written for. Twenty-six of 140 turns carried a tail before it landed and
twenty-six carried one after.
Two bounds rearm each other. An aside spends no attempt, so `MaxAttempts` never
reaches it. A turn that reads as a failed answer zeroes `Suspends`, so
`MaxSuspends` never reaches the asides. Alternating them, each bound is restored
by the other's traffic. Measured on 2026-08-08: one question about a reminder's
day rode turns 7 to 13. It ended only because turn 14 was a new request.
`PendingQuestion.Rides` counts the same event as `Suspends` with the resets
taken out. It is set once, incremented only in `noteSuspended`, carried across
the re-park in `askRemainingGap`, and read by nothing that could lower it.
`MaxRides` is 4, one looser than `MaxSuspends` so that the tighter statement
about a run stays reachable.
This is a bound, not a cure. It ends the measured ride one turn early. Most of
that ride's length is attempts, spent because `classifyTurnRole` reads "спасибо"
and "привет" as failed answers to a question about a day. That is the next
thing to fix and it is not a bound.
The re-ask is also two sentences rather than one. It used to be spliced onto the
answer with a comma. On a real answer that buries the question in the tail of
one run-on thought:
> вот что я нашла: вайфай пароль лежит в ящике стола, на какое время поставить
> напоминание?
### save-where — the two-memory routing axis
One discriminator: **does the loop evaluate a predicate against it?**
@@ -408,57 +285,6 @@ don't improvise.** Destructive ones still gate behind confirm.
Misroute correction is append-only and grows the router's examples with use —
same shape as `nudges.outcome` tuning cooldowns, no retrain.
#### Risk tiers, not one boolean
`Destructive` on a tool row is one bit set by whoever ticked the checkbox on
`/tools`. It is a mechanism, and it never said which acts are destructive,
whether a confirmed act stays confirmed, or what a new tool domain inherits.
`internal/tool/risk.go` is the policy (Vikunja #449). The tier is DERIVED from
the row, not stored, so it can be argued with in one place instead of being
whatever the last person to enable the tool believed.
| Tier | What it is | What it costs |
|---|---|---|
| `safe` | a read, or a change he can undo by saying the opposite | runs on first hearing |
| `destructive` | it changes something real and undoing it takes work | one confirm turn, every time |
| `irreversible` | the thing does not come back: a wipe, a format, a delete with no bin | voice may not authorise it at all |
Three rules fall out, and they are the part that was missing:
- **Which acts are destructive is not only the checkbox.** A house row always
is, because there is no read-only way to turn the heating off. A row whose
argv names one of the irreversible verbs always is, whatever the row says.
- **A confirmed act never stays confirmed.** At any tier. A confirmation binds
one capability, one target and one argument list, and it dies with the parked
turn (90s). "The same act again" is a new act. A sticky confirm is a standing
grant and nothing on the voice path may hold one.
- **A new domain inherits `destructive`, not `safe`.** A dispatch shape the
policy does not recognise gets the confirm turn. A domain argues its way down
to running freely; it never has to argue its way up to being gated.
#### Capability ids
A row is also read as a dotted capability id, `scope.domain.action` — the same
shape Hexis has always spoken, which made the local surface the odd one out
(Vikunja #452). `homelab.docker.restart`, `house.lock.unlock`,
`mcp_vikunja.vikunja.delete_task`.
Derived, not stored, for the reason the tier is: a derivation is one place to
argue with. The name is still the primary key and nothing about lookup or
execution changed — this is a way to READ the allowlist, not a second one.
`/tools` groups the enabled rows by `scope.domain` and prints the id and the
tier beside each, because a flat list stops answering "what can she do to the
house" somewhere around fifteen rows.
`MatchCapability` widens one way: `house` and `house.lock` both cover
`house.lock.unlock`, and nothing lets a narrower id claim a wider pattern.
The irreversible tier is refused rather than asked about, because a confirm
turn would be theatre: everything that proposed the act — an STT guess, a
router guess, a fuzzy allowlist match — is a guess, and a spoken "да" checks
none of it. She names the gap and he runs it himself. The row stays enabled;
refusing to run it from voice is not the same as taking it off the allowlist.
---
## Voice pipeline (STT / TTS)
@@ -531,29 +357,6 @@ lives in `source`; rules trust provenance.
`source=poll:healthcheck`. A compromised poller must not be able to forge a
trigger.
#### A fact per monitor, not an aggregate
mavpoll writes one fact per kuma monitor, keyed `service_down:<monitor name>`.
It used to fold the whole gauge into a single boolean, and the nudge could then
only say that something on homesrv was down. That is not something he can act
on, so the rule shipped disabled.
Three things follow from the split:
- The key set is no longer known at wiring time. A rule declares
`WantPrefixes` and the gatherer resolves the family per tick, which is the
only prefix read in the loop.
- Pausing a monitor in kuma silences that monitor. Under the aggregate it
silenced nothing, because some other monitor kept the boolean at "down".
- A monitor deleted in kuma would keep its last fact reading "down" forever, so
mavpoll marks a vanished monitor "unknown". No rule fires on "unknown".
The rule is also edge-triggered: it fires on a transition it has not already
nudged about (`State.NudgedSince`). A polled fact is written only when the
value changes, but the predicate reads the current value, so without the edge
check a service that stays down qualifies on every tick and cooldown is the
only brake.
### Presence — concrete scoring
**Combiner — noisy-OR, not weighted sum.** These are independent-ish positive
@@ -655,7 +458,7 @@ decides *insistence*. Both are needed.
sev ≤ 2 drops on away, sev ≥ 3 holds: a missed water nudge is noise, a missed
backup failure isn't. Away-channels (ntfy/telegram) leave the box — the one
path that leaves the box for a person to see, through your own relay. **Minimal
path that crosses "never phones home," through your own relay. **Minimal
body** — "disk low on homesrv," not detail; don't make notifications a
shoulder-surf exfil surface.
@@ -819,31 +622,6 @@ add a new principle; it applied the existing one at smaller and smaller scope.
---
## A list is the fourth shape
Facts, notes and tasks were the three append-only shapes. `list_items` is the
fourth (Vikunja #453): an item, a status, and a list tag.
It is not a task. Milk is not work, nothing prioritises it, and the ranker must
not start counting groceries as outstanding errands. It is not a fact either,
because it claims nothing about the world. What it is, is a set that grows and
shrinks.
The property that makes the separate table worth it: no predicate reads a list.
Nothing ranks it, nothing nudges about it, the digestion worker ignores it. So
two people adding to the same list at once cost nothing — there is no order to
disagree about and no lifecycle past crossed-off.
The unique index is the tasks one, per list, and live rows only. Saying "молоко"
twice before the shop is one line; saying it again next week, after the last one
was crossed off, is a new line.
Spoken, it is four turns: add, read back, cross one item off, cross the lot off.
All four are matched deterministically in `internal/router/list.go` and all four
run at stage 0, because an add and a read-back are cheap and should not depend on
the resident model having a good turn. Crossing one item off claims the turn only
when the list holds that item, which is what keeps "купил новый ноутбук" a note.
## Calendar
Integration with **Radicale** (self-hosted CalDAV), not Nextcloud. Scope is
@@ -871,7 +649,7 @@ daemon.
The voice wire protocol (length-prefixed JSON frames over TCP) is designed for
**multiple client implementations**. The reference PWA at `cmd/mavweb` is one
client; any app (phone, desktop CLI, smartwatch) can implement the same frame
protocol. The published spec is `docs/protocol.md` — **generated from
protocol. The published spec is `PROTOCOL.md` — **generated from
`internal/voice/wire.go`**, not composed freehand, so it can't drift from
code. It covers transport (4-byte big-endian length prefix), methods
(`PushToTalk`, `Pong`), push kinds (`AudioNudge`), surface identity
@@ -886,8 +664,8 @@ Broadening to home automation, media or comms is JSON, not code.
## Execution ledger
Condensed from `ROADMAP.md` (2026-07-06). The live queue is the Vikunja board
(project Maven, ID 2); this table is history, not a work list.
Condensed from `ROADMAP.md` (2026-07-06). The live queue is
`20-07-2026-BACKLOG.md`; current state is `PROGRESS.md`.
| # | Item | Prio | Status |
|---|------|------|--------|
@@ -971,13 +749,11 @@ Kept for provenance. **None of this is the current or intended design.**
stay deterministic — "classifier owns the route, the SLM stays in its
phrasing lane" — with an embedding + nearest-centroid stage 1 over ~10
examples per intent, and misroutes appended as new centroid examples.
*Replaced by* LLM-as-router (`docs/rearchitecture.md`): one resident model emits
*Replaced by* LLM-as-router (`REARCH.md`): one resident model emits
GBNF-constrained JSON and also phrases replies; the embedder is demoted to
a RAG hint. *Landed 2026-07-31:* the LLM router is on by default and set
`true` in `deploy/mavend.json`. The classifier cascade stays as the failure
floor — it runs when there is no llama-server to talk to and on any per-turn
LLM error — but routing by seed similarity is the known cause of weak RU
query handling and is not a design to extend.
a RAG hint. The classifier cascade is still the code path that runs today
(`llmrouter` is wired nil) but it is an interim stopgap, and it is the known
cause of weak RU query handling — not a design to extend.
- **Named STT/TTS model picks.** `maven.md` picked faster-whisper small/int8
as primary STT with vosk RU for a low-latency command grammar, and silero
(license unverified) as TTS with piper RU as the floor, all on
@@ -987,11 +763,8 @@ Kept for provenance. **None of this is the current or intended design.**
- **Small-model phrasing claim.** `maven.md` specified "lfm2.5 / sub-1b for
phrasing — prompted, not trained," and `SPEC.md` named a specific resident
size. Both are superseded by the RU-CPT + joint persona/router SFT plan.
*Resolved 2026-07-30 (#318), revised 2026-07-31:* the resident checkpoint is
stock **Qwen3-1.7B** (`UD-Q4_K_XL`, `n_ctx` 4096), which replaced
Qwen3.5-0.8B after measuring better on both fixtures
(`docs/evals/2026-07-31-model-bakeoff.md`). The CPT'd **Qwen3-1.7B** remains the target
(#122); what stock gets wrong is the persona, not the Russian. Note the resident
*Resolved 2026-07-30 (#318):* the resident checkpoint is **Qwen3.5-0.8B**
now, with the CPT'd **Qwen3-1.7B** as the target (#122). Note the resident
model is no longer described as untrained — the target is trained
end-to-end, which is the substantive change from the old claim.
- **sqlcipher at rest.** `maven.md` specified sqlcipher with the key read at
+1 -13
View File
@@ -51,8 +51,7 @@ RUN go build -o /out/mavend ./cmd/mavend && \
go build -o /out/mavttsd ./cmd/mavttsd && \
go build -o /out/mavweb ./cmd/mavweb && \
go build -o /out/mavpoll ./cmd/mavpoll && \
go build -o /out/mavcaldav ./cmd/mavcaldav && \
go build -o /out/mavmaild ./cmd/mavmaild
go build -o /out/mavcaldav ./cmd/mavcaldav
# llama.cpp Vulkan build — the phraser/router LFM engine (llama-server). Built
# from source (not a prebuilt vendored blob) so the binary's glibc/GLIBCXX match
@@ -82,22 +81,11 @@ FROM debian:trixie-slim AS runtime
# tzdata so the TZ env (set in compose) resolves — otherwise Go can't load the
# zone and time.Now() stays UTC, and mavend answers clock/date queries and
# evaluates quiet-hours in UTC.
#
# TZ is a build arg as well as an env because the image was self-inconsistent
# without it (V-545): compose set TZ=Europe/Samara and Go read it, but
# /etc/localtime still pointed at Etc/UTC, so anything asking the system zone
# instead of the environment answered UTC. The reminder path shells out to
# python dateparser, which is exactly such a caller. Compose passes the same
# zone it already declares, so the zone is written in one place.
ARG TZ=Etc/UTC
ENV TZ=$TZ
RUN apt-get update && apt-get install -y --no-install-recommends \
ca-certificates libvulkan1 mesa-vulkan-drivers libgomp1 tzdata \
python3 python3-pip && \
pip3 install --no-cache-dir --break-system-packages 'dateparser==1.4.1' && \
apt-get purge -y --auto-remove python3-pip && \
ln -snf "/usr/share/zoneinfo/$TZ" /etc/localtime && \
echo "$TZ" > /etc/timezone && \
rm -rf /var/lib/apt/lists/*
# runtime native libs: whisper/ggml (incl. vulkan) are real files in deps/lib.
@@ -1,7 +1,5 @@
# Maven Ecosystem Architecture
*Last verified: 2026-08-02 @ 7079a24. Living doc: correct it in place, do not append.*
## 1. Purpose
This document defines Maven's role in the local ecosystem formed by:
@@ -30,12 +28,6 @@ Maven is the user-facing control center, but not the source of truth for identit
Maven provides the human interface over the other systems.
| Service | Owns | Maven's client | Configured at |
|---|---|---|---|
| **Nexus** | Canonical entity ids, names, aliases, relationships. Projects, services, devices, people, pets, places. | `nexusClient` in `cmd/mavend/ecosystem.go`, `POST /api/v1/resolve` | `nexus.url` (`http://nexus:9740`) |
| **Praxis** | Operational attention and item lifecycle. What needs looking at, what changed, what is unresolved. | `praxisClient`, the HTTP tools API under `/api/v1/tools/` | `praxis.url` (`http://praxis:8989`) |
| **Hexis** | The capability registry and the only path to executing anything. | vendored `github.com/kami/hexis/pkg/client` | `hexis.url` (`http://hexis:9741`) |
It is responsible for:
- interpreting Russian and English utterances
+101
View File
@@ -0,0 +1,101 @@
# Resident model bake-off — 31-07-2026
**Recommendation: keep Qwen3.5-0.8B.** LFM2.5-1.2B is worse at routing (52.6% vs 60.5%
intent accuracy), and the loss is almost entirely Russian (18/61 vs 22/61 RU, while EN is a
wash). It is also 2.4× slower. The Thinking variant is far worse again.
Settles Vikunja **#278 / #250**.
- Same fixture and scorer as `ROUTING-EVAL-31-07-2026.md`: `internal/router/eval/`
(`ru_routing_v1.json`, 76 held-out cases).
- Reproduce: `MAVEN_LLM_URL=http://127.0.0.1:<port> make eval-router`
(`TestLLMRouterBaseline`). Note: there is no `make eval-models` target.
- All three models served by the same `llama-server` flags — `-c 2048 -ngl 99 -t 6`, only
`-m` and `--port` differ. One server at a time on an otherwise idle box, so latencies are
real and not contention.
- Measured on top of the router prompt fix (`origin/overnight/router-prompt` merged in), so
the Qwen column is directly comparable to the numbers already recorded.
## Results
`llm-only` — the model alone. This is the column that measures the model.
| | Qwen3.5-0.8B | LFM2.5-1.2B Instruct | LFM2.5-1.2B Thinking |
|---|---|---|---|
| **intent-only accuracy** | **60.5%** | 52.6% | 36.8% |
| full accuracy (intent+slots+gate) | **36.8%** | 32.9% | 21.1% |
| **RU** | **22/61** | 18/61 | 10/61 |
| EN | 6/15 | **7/15** | 6/15 |
| route errors | 0 | 0 | 0 |
| **p50 / p95 latency** | **1.05s / 1.71s** | 2.47s / 3.62s | 2.42s / 3.24s |
| missed clarify | 6 / 6 | 6 / 6 | 6 / 6 |
`cascade+llm` — stage-0 → model → classifier floor, what #320 would actually ship. Same
ordering.
| | Qwen3.5-0.8B | LFM2.5-1.2B Instruct | LFM2.5-1.2B Thinking |
|---|---|---|---|
| intent-only accuracy | **61.8%** | 55.3% | 38.2% |
| full accuracy | **46.1%** | 42.1% | 30.3% |
| RU / EN | **27/61** / 8/15 | 23/61 / **9/15** | 15/61 / 8/15 |
| route errors | 0 | 0 | 0 |
| p50 / p95 latency | **1.28s / 1.94s** | 2.18s / 2.72s | 2.27s / 3.19s |
Full logs: the three runs are archived in the session scratchpad
(`qwen08.txt`, `lfm-instruct.txt`, `lfm-thinking.txt`).
## Russian-specific failures — the owner's worry is confirmed
LFM2.5's Russian loss is not spread out. It has one large, specific failure: **it hears
almost any Russian imperative or short phrase as `reminder`.**
- `перезапусти докер` → reminder (want act)
- `включи вытяжку` → reminder (want act)
- `закрой жалюзи` → reminder (want act)
- `заметка: продлить домен в августе` → reminder (want note)
- `запиши что кран на кухне снова капает` → reminder (want note)
- `доброе утро` → reminder (want chat)
- `спасибо тебе` → reminder (want note/chat)
- `переходи в тихий режим` → reminder (want system)
That is `note→reminder ×4`, `act→reminder ×4`, `chat→reminder ×2` in one run. Qwen's
equivalent failure axis is `query→fact ×8`, which is a narrower and already-understood bug.
Two more Russian-side problems worth naming:
1. **Fact keys come back empty or wrong in Russian.** `воды попил наконец`, `поужинал`,
`поспал часов пять` and `отметь что я позавтракал овсянкой` all returned an empty key.
`сходил в душ` and `отдохнул минут двадцать` both returned `water`. Qwen does not do this.
2. **It leaked German.** `slept about seven hours` produced the fact key
`"7 Stunden geschlafen"`. Grammar-valid, semantically garbage — a sign the multilingual
mix is not anchored where Maven needs it.
The claimed tool-calling advantage did not show up here. `act` is the closest thing this
fixture has to a tool call, and LFM2.5 got it wrong more often than Qwen, mostly by calling
it a reminder. It also produced no `fn` slot on any act, same as Qwen.
## The Thinking variant
Not viable. 36.8% intent accuracy, 10/61 Russian, and no latency saving over Instruct — the
thinking trace costs time without buying accuracy on a short enum classification. With the
`enable_thinking=false` diagnostic it collapsed further to 28.9% with 2 route errors
(`query→reminder ×12`). Do not pursue.
## Notes
- Nothing crashed, nothing ignored the GBNF grammar, and no model produced unparseable JSON
in the shippable configurations. Zero route errors for both Instruct and Thinking in
`llm-only` and `cascade+llm`. The problem with LFM2.5 is what it decides, not whether it
can emit the contract.
- The `6 / 6` missed clarify is unchanged across all three models. No model fixes the missing
refusal lane — that is `Confidence: 1.0` hardcoded in `llmrouter.go` (Vikunja #359), not a
model property.
- The report labels every configuration `(0.8B)`; that string is hardcoded in the test, not a
reflection of which gguf was loaded. Model identity was confirmed per run via `/v1/models`.
- No Go code was changed for this measurement, and no bug was found that needed one.
## What this does not settle
Routing only. LFM2.5 might still phrase better, and phrasing is the resident model's other
job — that needs its own fixture. But routing is the load-bearing path and Maven is
Russian-first, so on the evidence here the switch is not worth making.
+7 -112
View File
@@ -16,11 +16,11 @@ PIPER_BIN := $(shell pwd)/deps/piper/piper
PIPER_MODEL := $(shell pwd)/models/tts/ru_RU-irina-medium.onnx
PIPER_ESPEAK := $(shell pwd)/deps/piper/espeak-ng-data
.PHONY: t audit simulate stt-fixtures test-stt-golden all build build-stt build-tts build-daemon build-client build-waked build-web build-poll build-caldav clean test fmt-check vet run-stt run-tts run-web download-embedder deps-go deps-sentinel tidy eval-router eval-reach eval-recall eval-phrasing eval-models build-gpud
.PHONY: all build build-stt build-tts build-daemon build-client build-waked build-web build-poll build-caldav clean test fmt-check vet run-stt run-tts run-web download-embedder deps-go eval-router eval-recall eval-phrasing eval-models
all: build
build: build-stt build-tts build-daemon build-client build-waked build-web build-poll build-caldav build-mail build-update build-gpud
build: build-stt build-tts build-daemon build-client build-waked build-web build-poll build-caldav
build-stt:
CGO_CFLAGS="$(CGO_CFLAGS)" CGO_LDFLAGS="$(CGO_LDFLAGS)" LD_LIBRARY_PATH="$(shell pwd)/deps/lib" \
@@ -50,21 +50,6 @@ build-poll:
build-caldav:
$(GO) build $(GOFLAGS) -o mavcaldav ./cmd/mavcaldav/
build-mail:
$(GO) build $(GOFLAGS) -o mavmaild ./cmd/mavmaild/
# mavupdate is an operator CLI, not a daemon: nothing runs it but a human on the
# box. It is built with the rest so a broken update path is caught by `make
# build` rather than the first time it is needed.
build-update:
$(GO) build $(GOFLAGS) -o mavupdate ./cmd/mavupdate/
# mavgpud runs on the workstation, not here. It is built with the rest so a
# broken supervisor is caught by `make build` on homesrv rather than by the
# workstation refusing to serve. Copy the binary over, do not `make deploy` it.
build-gpud:
$(GO) build $(GOFLAGS) -o mavgpud ./cmd/mavgpud/
run-web: build-web
./mavweb -addr :9200 -voice 127.0.0.1:9100
@@ -74,7 +59,7 @@ run-web: build-web
# base.Tool(), which only stats pkg/tool and exits. So build them in once here.
GO_TARBALL := go$(GO_VERSION).linux-amd64.tar.gz
GO_SHA256 := 9e9b755d63b36acf30c12a9a3fc379243714c1c6d3dd72861da637f336ebb35b
deps-go: deps-sentinel
deps-go:
@mkdir -p deps/go
cd deps/go && curl -fLO 'https://go.dev/dl/$(GO_TARBALL)'
cd deps/go && echo '$(GO_SHA256) $(GO_TARBALL)' | sha256sum -c -
@@ -84,26 +69,7 @@ deps-go: deps-sentinel
done
$(GO) version
# deps/go.mod — the sentinel that stops the module walk at deps/ (Vikunja #454).
# The vendored toolchain lives inside the module tree, so `go mod tidy` walked
# Go's own compiler-error fixtures and died on files that are malformed on
# purpose ("unicode//utf8": double slash). A nested module is not part of the
# parent, so one three-line file ends the walk. deps/ is gitignored, so it is
# generated here rather than committed, and every target that populates deps/
# writes it.
deps-sentinel:
@mkdir -p deps
@printf 'module github.com/kami/maven/deps\n\ngo 1.21\n' > deps/go.mod
# Run the tidy the sentinel makes possible. Not part of `test`: it rewrites
# go.mod, and a build target that edits the module file is a surprise.
# vendor/ is committed, so a tidy that drops a requirement must be followed by
# a re-vendor or the next build fails on "inconsistent vendoring".
tidy: deps-sentinel
GOTOOLCHAIN=local GOFLAGS=-mod=mod $(GO) mod tidy
GOTOOLCHAIN=local GOFLAGS=-mod=mod $(GO) mod vendor
# fmt-check fails if any file needs gofmt. docs/design.md has always said `make
# fmt-check fails if any file needs gofmt. DESIGN.md has always said `make
# test` gates on gofmt and vet; it did not, so nine files quietly drifted.
# Run `gofmt -w` on whatever this prints.
fmt-check:
@@ -116,47 +82,10 @@ vet:
CGO_CFLAGS="$(CGO_CFLAGS)" CGO_LDFLAGS="$(CGO_LDFLAGS)" LD_LIBRARY_PATH="$(shell pwd)/deps/lib" \
$(GO) vet ./internal/... ./cmd/...
# simulate — replay every scripted day under cmd/mavend/testdata/scenarios
# through the real router, store, tick loop and intake journal, on a fake clock
# (Vikunja #284). Verbose so the transcript of each scenario lands in the
# terminal. Also runs as part of `make test`; this target is for reading it.
simulate:
CGO_CFLAGS="$(CGO_CFLAGS)" CGO_LDFLAGS="$(CGO_LDFLAGS)" LD_LIBRARY_PATH="$(shell pwd)/deps/lib" \
$(GO) test -v -count=1 -run TestSimulator ./cmd/mavend/
test: fmt-check vet
CGO_CFLAGS="$(CGO_CFLAGS)" CGO_LDFLAGS="$(CGO_LDFLAGS)" LD_LIBRARY_PATH="$(shell pwd)/deps/lib" \
$(GO) test -race -coverprofile=coverage.out ./internal/... ./cmd/...
# t — run ONE package or ONE test with the toolchain env already wired. This is
# the iteration target; `test` is the gate. Reach for it instead of pasting the
# CGO_CFLAGS/CGO_LDFLAGS/LD_LIBRARY_PATH preamble by hand, which is how it was
# done ~390 times across past sessions and is where the shell-quoting failures
# came from -- the interactive shell here is zsh, and an unquoted `-run Test*`
# or `--include=*.go` dies on "no matches found" before go ever starts.
#
# make t # whole tree (same scope as `test`)
# make t PKG=./internal/router/
# make t PKG=./cmd/mavend/ RUN=TestSimulator
# make t PKG=./internal/router/eval/ RUN='TestONNX' V=1
# make t PKG=./internal/store/ RACE=0 # drop -race when iterating hot
#
# -race is on by default so a green `make t` cannot turn red under `make test`.
# -count=1 because a cached PASS from before your edit is worse than no answer.
# MAVEN_ONNX_LIB is set for the same reason: the four TestONNX* measurements
# self-skip when it is unset, so a targeted eval run would otherwise report the
# deterministic hash ratchet and look like it scored the real embedder.
PKG ?= ./internal/... ./cmd/...
RUN ?=
V ?=
RACE ?= 1
t:
CGO_CFLAGS="$(CGO_CFLAGS)" CGO_LDFLAGS="$(CGO_LDFLAGS)" LD_LIBRARY_PATH="$(shell pwd)/deps/lib" \
MAVEN_ONNX_LIB="$(MAVEN_ONNX_LIB)" \
$(GO) test $(if $(V),-v,) $(if $(filter-out 0,$(RACE)),-race,) -count=1 \
$(if $(RUN),-run '$(RUN)',) $(PKG)
# eval-router — score the held-out RU routing fixture (internal/router/eval).
# Verbose so the report tables land in the terminal. MAVEN_ONNX_LIB points the
# prod-representative baseline at the vendored runtime; override it or set it
@@ -167,14 +96,6 @@ MAVEN_ONNX_LIB ?= $(shell pwd)/deps/onnxruntime-linux-x64-1.26.0/lib/libonnxrunt
eval-router:
MAVEN_ONNX_LIB="$(MAVEN_ONNX_LIB)" $(GO) test -v -count=1 ./internal/router/eval/
# eval-reach — score the held-out ecosystem reach fixture (internal/router/eval,
# ru_ecosystem_v1.json). Answers "does a real Russian utterance actually arrive
# at Praxis or Hexis", which routing accuracy alone does not say. Same
# MAVEN_ONNX_LIB deal as eval-router; without it only the deterministic hash
# ratchet runs. Vikunja #405.
eval-reach:
MAVEN_ONNX_LIB="$(MAVEN_ONNX_LIB)" $(GO) test -v -count=1 -run 'Reach|Praxis' ./internal/router/eval/
# eval-recall — score the held-out note-recall fixture (internal/memory/recalleval).
# Answers "can she find the note again when it matters": recall@1, recall@3,
# false recall and the query_min_score sweep. Same MAVEN_ONNX_LIB deal as
@@ -209,32 +130,6 @@ eval-models:
MAVEN_LLM_URL="$(MAVEN_LLM_URL)" $(GO) test -v -count=1 -timeout 60m \
-run TestLLMRouterBaseline ./internal/router/eval/
# stt-fixtures — regenerate the golden STT audio in cmd/mavsttd/testdata from
# the piper voices (#288). The committed WAVs are synthesised, never recorded,
# so this is the only way they should ever change. The spoken text is read out
# of testdata/golden_v1.json, so edit the transcript there and rerun this.
#
# test-stt-golden runs both golden tests: TestGoldenAudioTranscription, which
# scores the fixtures against ggml-small and self-skips when the model is
# absent, and TestGoldenFixturesAreCanonical, which checks the committed audio
# and the manifest with no model at all.
# audit — the repo inventory: LOC per package, open TODOs, real stubs, living-doc
# staleness, test shape, packages with no test. Read-only, prints, writes nothing.
# Run it instead of rebuilding the same greps by hand; past sessions spent 93 of
# them on this before their first edit. SECTION=loc|todo|stubs|docs|tests|gaps
# narrows it.
SECTION ?= all
audit:
@SECTION="$(SECTION)" ./scripts/audit.sh
stt-fixtures:
./scripts/gen-stt-fixtures.sh
test-stt-golden:
CGO_CFLAGS="$(CGO_CFLAGS)" CGO_LDFLAGS="$(CGO_LDFLAGS)" LD_LIBRARY_PATH="$(shell pwd)/deps/lib" \
$(GO) test -v -count=1 -run TestGolden ./cmd/mavsttd/
run-stt: build-stt
LD_LIBRARY_PATH="$(shell pwd)/deps/lib" \
./mavsttd -socket /tmp/maven/stt.sock -model $(WHISPER_MODEL)
@@ -244,7 +139,7 @@ run-tts: build-tts
./mavttsd -socket /tmp/maven/tts.sock \
-piper $(PIPER_BIN) -model $(PIPER_MODEL) -espeak_data $(PIPER_ESPEAK)
deps: deps-sentinel deps-whisper deps-piper
deps: deps-whisper deps-piper
deps-whisper:
cd deps/whisper.cpp && cmake -B build -DCMAKE_BUILD_TYPE=Release \
@@ -263,7 +158,7 @@ deps-piper:
# multilingual-e5-small: an asymmetric retrieval model. It is trained to match
# a short question against a longer passage, which is what note recall is.
# The quantized file is the one we download, deploy and measure — see
# docs/evals/2026-08-04-recall-e5-small.md for what the swap bought.
# RECALL-EVAL-31-07-2026.md.
EMBEDDER_DIR := $(shell pwd)/models/embedder/multilingual-e5-small
EMBEDDER_MODEL_URL := https://huggingface.co/Xenova/multilingual-e5-small/resolve/main/onnx/model_quantized.onnx
EMBEDDER_TOKENIZER_URL := https://huggingface.co/Xenova/multilingual-e5-small/resolve/main/tokenizer.json
@@ -290,4 +185,4 @@ download-embedder:
@echo ' sudo cp onnxruntime-linux-x64-1.15.1/lib/libonnxruntime.so* /usr/local/lib/'
clean:
rm -f mavend mavenclient mavsttd mavttsd mavweb mavpoll mavcaldav mavwaked mavmaild
rm -f mavend mavenclient mavsttd mavttsd mavweb mavpoll mavcaldav mavwaked
@@ -1,7 +1,7 @@
# Phrasing evaluation — 31-07-2026
How Maven words a nudge, measured instead of argued. Counterpart to
`docs/evals/2026-07-31-routing.md`.
`ROUTING-EVAL-31-07-2026.md`.
- Fixture + scorer: `internal/phraser/eval/` (`nudges_v1.json`, 15 cases; `eval.go`, `checks.go`)
- Reproduce: `MAVEN_LLM_URL=http://127.0.0.1:18099 make eval-phrasing`
+468
View File
@@ -0,0 +1,468 @@
## Maven — current state (updated 2026-07-20)
### Session 2026-07-20 — ecosystem hardening + entity-aware facts
Ten commits, focused on closing the Nexus/Praxis integration gaps flagged
as "wired but immature" in the prior review, plus the entity-aware-memory
backlog item (`20-07-2026-BACKLOG.md` item 5).
- **Entity-aware fact resolution (Vikunja #279)** — facts gain
`Subject`/`EntityID`/`ResolutionState`; an async worker resolves
free-text subjects to canonical Nexus entity_ids (mirrors Praxis's own
enrichment pattern). Ambiguous/unreachable Nexus never guesses — stays
`pending` or terminal `ambiguous`. Voice-tapped facts (`IntentFact`) flow
into the queue automatically via an optional `Subject` field on
`WriteFactReq` (old callers unaffected, no signature break).
- **Typed Praxis lifecycle client (Vikunja #271)** — `GetItem`/`Search`/
`Surface`/`Acknowledge`/`Resolve`/`Ignore`/`Pin`, routed through new RU/EN
dialogue verbs. Fixes a real lifecycle-invariant bug: reading an
attention item aloud now calls `Surface` — previously the digest path
read items without recording that they'd been surfaced, so "Maven
mentioned it" was indistinguishable from "never came up."
- **Durable delivery outbox (Vikunja #270)** — `BeginDeliveryAttempt`
before `Send`, `CompleteDeliveryAttempt` after; a stale `pending` row
found at startup reconciles to `unknown` (never silently resent or
dropped — same rule as Hexis's execution-timeout handling). Closes a
crash-window duplicate-send bug. Wired into `DispatchNudge`,
`DispatchReminder`, `RepeatUnacked`; reconciliation runs once at boot
before the tick loop resumes.
- **Fail-closed IPC/dependency handling (Vikunja #269, #272/#273)** —
ambiguous mutation outcomes (frame sent, reply lost) no longer blindly
retry; Nexus/Hexis dependency errors fail closed instead of guessing.
- **Correlation IDs + version headers (Vikunja #273)** — the hand-rolled
Nexus/Praxis HTTP clients now send `X-Nexus-Version`/`X-Praxis-Version`
and thread the same correlation ID already generated in
`executeCapability` through the whole call chain, matching the Hexis
client's existing behavior.
- **Entity-scoped Praxis attention queries** — callers holding a resolved
entity_id can ask "what needs attention for this entity" directly
instead of filtering the unscoped list client-side.
- **Fake-ecosystem test harness with fault injection** — a reusable
`fakeServer` (Nexus/Praxis/Hexis fixtures, runtime-toggleable
`SetFault`, fake clock) replacing ad-hoc per-test `httptest` servers;
covers a gap that had zero test coverage (`handlePraxisAct`) and adds a
fault-then-recovery regression test for the fail-closed fixes above.
- **Ops fix** — `deploy/mavend.json`'s phraser was pointed at a 4B model
with `n_gpu_layers=99`, which OOM'd under memory pressure and left a
zombie `llama-server` child; swapped to the 2B Qwen model matching the
intended resident-model size.
Net effect: the Nexus/Praxis wiring described as "plumbing exists, thin
compared to Maven's test depth" in the prior review is now materially
hardened — typed clients, fail-closed error handling, durable delivery,
and a proper fault-injection test harness are all in place. Evaluation lab
(`20-07-2026-BACKLOG.md` item 7) is explicitly skipped for now — it runs
on the GPU box, which is occupied by CPT. Morning routine engine (backlog
item 3) is next up, not started.
---
> **Resolved 2026-07-30 (task #318).** The resident checkpoint is
> **Qwen3.5-0.8B** (`Q4_K_M`), set in `deploy/mavend.json`; the **target** is
> the locally CPT'd **Qwen3-1.7B**, still training (#122). Older model claims
> below — the LFM references, the pipeline line, and the "swapped to the 2B
> Qwen model" ops entry above — are historical. Read them as a log of what was
> true at the time, not as current fact. Note also that `/mnt/hdd1/llms` is
> bind-mounted over `models/llm/`, so the LFM2.5 gguf in the repo tree is
> never loaded.
Architecture decision (as written on 2026-07-20): the target resident
router/phraser is the locally trained Qwen3-1.7B model — still the target as
of 2026-07-30. Older LFM references below describe the then-deployed
historical stack, not the target checkpoint. RU CPT has a successful
full-weight checkpoint at step 1000/8077; evaluation and Qwen3 SFT tooling are
tracked in `docs/plans/2026-07-18-qwen3-resident-training-eval.md`.
Consolidated status. The reactive↔proactive core is closed and testable through
the web PWA. The former SPEC's open items 17 (now `DESIGN.md` § execution ledger) are landed (protocol doc, away-channel
fallthrough, CalDAV poller, quiet-hours schedule, tools enable/disable, note RAG,
passkey step-up); item 8 (multi-user) is deliberately deferred — see the tail.
The two big infra gaps from the jul5 revision are closed on `overnight-jul5`:
**at-rest encryption** (AES-256-GCM, tmpfs working copy — not sqlcipher, see
`internal/store/crypt.go`) and **Docker deployment** (one image, six daemon
containers). The `overnight-jul6` session (now on `master`) closed the biggest
*query-surface* gaps — **calendar querying, general-knowledge answers, and
weather** — plus a populated homelab act allowlist and two pure scaffolds
(dialogue state, long-term-memory vector store). ~15.2k LOC + ~8.5k test, 303
tests, `-race` in `make test`.
### Access model
- **Phone** → needs the wg tunnel to reach homesrv (no homesrv DNS otherwise;
raw IP or a DNS tweak can bypass, not the default).
- **PC** → uses homesrv DNS, resolves the domains over local-net, **no wg needed**.
- nginx + ufw both scope to `10.42.0.0/24` (wg) + `192.168.1.0/24` (LAN), deny all else.
- **Surface in use now: the web PWA (`mavweb`).** Voice PTT + in-app nudges both ride it.
### Works end-to-end (tested)
- **Reactive voice:** PWA record → Whisper STT (`mavsttd`) → ONNX classifier →
resident phraser (llama-server subprocess; Qwen3.5-0.8B as of 2026-07-30 —
this line historically named "LFM 2.5-1.2B") → Piper TTS
(`mavttsd`) → reply.
HTTP POST path (mobile-Chrome drops WS for the audio).
- **Capture:** `fact` (EN **and RU** — root-substring recognizers) + `reminder`
persist through CoreAPI (`source=tap:voice`). This is the substrate the care
rules read.
- **Notes / query (semantic recall, sqlite — no chroma):** `note` → embed (the
classifier's ONNX embedder) → `notes` table. `query` → embed → brute-force
cosine top-k → confidence-gated (below `queryMinScore` 0.55 ⇒ "no note", not a
guess). **Note RAG (SPEC item 6):** the gated top-k feed the phraser
(`PhraseQuery`) to compose a natural answer ("вот что я нашла: …") instead of
a verbatim dump; raw-notes fallback on any LLM error. Stub is deterministic.
- **Monitoring (`/dash`):** mavweb server-renders presence + recent nudges (by
outcome) + recent facts from the append-only store via CoreAPI. Read-only,
meta-refresh, no JS.
- **Proactive loop:** 60s dumb ticker, pure predicates over a State snapshot,
universal gate (quiet-hours/presence/cooldown/snooze/calendar), one-nudge-per-
tick max-severity, reminders (gate-bypassing), sev4 repeat-til-ack, feedback
auto-tuner (outcome ratio → bounded cooldown, persisted as `source=feedback`).
- **Rules:** water/meal/break (sev12 care), service_down (sev4, `poll:uptimekuma`),
netdata_critical (sev3, `poll:netdata`).
- **Routines (`internal/routine`):** operator-declared clockwork — the third
proactive class beside reminders (user-stated) and care rules (world-state).
Config `routines[]` (cron + literal RU body + severity) fire through the normal
dispatcher on schedule (an 08:00 briefing, a 22:00 wind-down). Bodies are
literal (not LLM-phrased ⇒ can't hallucinate); rule name `routine:<name>` so
they don't pollute the care autotuner; cold-start guard seeds on first sight so
a restart never replays a missed schedule. Pure `routine.Due`, unit-tested; the
tick driver holds the last-fired map.
- **Env facts (`mavpoll`):** netdata alarms → `netdata_alarm` (fires immediately
on a real CRITICAL); kuma monitor_status → `service_down`. Writes only on
value-change (no append-only churn).
- **Presence:** noisy-OR decay + Schmitt hysteresis. Live via `page_heartbeat`
(PWA auto-pings `/api/signal` every 30s → present when a tab's open).
- **Delivery:** ntfy / telegram / voice by `f(severity, presence)`; minimal body
on away channels. PWA subscribes to ntfy over **WebSocket** for in-app nudges.
- **Away-channel fallthrough (SPEC item 2):** when the router picks voice but no
live session exists at push time (presence guess was wrong), the dispatcher
reroutes through the AWAY table — sev3→ntfy, sev4→telegram-repeat-til-ack,
sev≤2→drop — instead of silently dropping. Covers nudges + reminders.
- **Calendar busy (SPEC item 3, `mavcaldav`):** new poller queries a self-hosted
**Radicale** CalDAV server on an interval, writes `calendar_busy` + event facts
through CoreAPI (value-change only). The loop gate already consumes `calendar_busy`.
- **Quiet-hours schedule (SPEC item 4):** the gate reads `quiet_hours`; a config
time window (`voice.quiet_hours`, HH:MM, midnight-crossing handled) now sets it
on each tick — in addition to the "тихий режим" voice toggle. Both activate quiet.
- **Client protocol (SPEC item 1):** the voice wire format (length-prefixed JSON
frames) is published in `PROTOCOL.md`, generated from `internal/voice/wire.go`
so third-party clients don't need the Go source.
- **Passkey step-up (SPEC item 7):** `internal/webauthn` does real WebAuthn —
ES256/P-256 register + assert, ecdsa signature verification, rpIdHash + UP/UV
flag binding (UV = the gesture), sign-count regression check. `PasskeySession`
bumps the auth session L2→L3 for a TTL on assert. mavweb serves `/auth/passkey`
(enroll + step-up) + the begin/finish endpoints. Crypto is round-trip tested
(incl. tampered-sig / missing-UV / wrong-origin negatives).
- **Stability:** llama-server orphan leak fixed (`Pdeathsig` kills the child on
any mavend death); `kill-maven.sh` reaps strays (matches the model, not a
bogus `llama-server.*maven` pattern); `start-maven.sh` wires `-core` + poller.
### Wired but needs a deploy action (not code)
- **`desk_active`** (strongest presence signal) — `scripts/desk-active.sh` runs
on the **desk PC** (hypridle-gated systemd timer), posts over wg to mavweb.
- **`mavwaked`** (always-on listening) — needs a systemd user unit on a client
box (desk PC, pi, etc.) where the mic is attached. Connects to mavend over wg
or local net via `-addr`. Deferred until a client box is wired with a mic.
Caveats / gotchas:
- **desk_active is a workstation deploy, not code** — 0 facts ever written; presence
runs on page_heartbeat alone (dash reads "away"/"never at desk"). `scripts/desk-active.sh`
+ a hypridle-gated `maven-desk` timer must be installed on the desk PC (not homesrv).
- **Notes recall needs the ONNX embedder** — under the HashEmbedder floor, cosine is
lexical (token overlap), not semantic; scores are low, so most RU commands sit under
the 0.35 route threshold and clarify. Configure `voice.embedder` for confident recall+routing.
(The floor now at least tokenizes Cyrillic — see below — so it ranks correctly, just weakly.)
- **Switching the embedder model silently breaks old notes** — different dim ⇒
cosine 0 ⇒ they stop matching; brute-force can't re-embed. Re-embed on a model change.
- **`wg_handshake` is OFF and should stay off** — in this topology the phone only
runs wg when *outside*, so a fresh handshake means AWAY, not here. The `mavpoll
-wg` flag exists (defaults `""`) and could later back the spec's "away override"
by flipping the sign; as a presence-*here* signal it's inverted. desk_active +
page_heartbeat cover home presence.
- **Cold-start unlock tests are missing** — the key wrap/unwrap code
(`internal/webauthn/keywrap.go`) and locked-mode IPC gating (`cmd/mavend/main.go`)
are correct but have **zero test coverage**. The roadmap (item 2.1) required
three new test cases (wrap/unwrap round-trip, wrong-cred unwrap fails,
locked-mode IPC rejects non-unlock methods); none were written. `make test`
is green by omission. Write these before relying on the cold-start path with
real keys.
### Done since last revision (overnight-jul6, 2026-07-06)
Seven tasks (session board `SESSION-06-07-2026.md`, deleted 2026-07-30 — see git history), one commit each, merged to `master`.
This session was run through **opencode**, not Claude Code (co-author trailer).
Since then (**2026-07-06, second session**):
- **Always-on listening (gap 1, MVP)** — `cmd/mavwaked/`: 825 lines, 10 `-race`
tests. Energy-based VAD over 30ms windows (same RMS threshold as mavsttd's
`gateReason`), adaptive noise floor, speech→silence state machine. Captures
PCM from arecord(1) subprocess, sends `PushToTalk` with `Surface=SurfaceVoice`
(L0 — no destructive acts). Reply plays through aplay(1). No wake word yet
(pure VAD trigger); the 30ms frame shape matches silero-vad ONNX input 1:1,
so swapping energy-threshold for ONNX inference is a local change in vad.go.
`Makefile` `build-waked` target. Runs on client boxes (not docker/homesrv)
via systemd user unit; connects to mavend over wg or local net.
Since then (**2026-07-06, third session** — roadmap execution agent):
- **Cold-start unlock (ROADMAP 2.1)** — the at-rest AES key is now wrapped
(HKDF-SHA256 + AES-256-GCM, stdlib-only — no `x/crypto` dep) with the passkey
credential's public key and persisted to disk. At boot, if a wrapped key file
exists AND no env key is set, mavend starts **locked**: the IPC server runs
but `srv.Check` rejects everything except `MethodAssertStepUp` +
`MethodUnlock`. A passkey assertion at `/auth/passkey` calls `MethodUnlock`
with the credential's public key → unwraps the blob → opens the store → wires
voice/loop/delivery → `srv.SetAPI` swaps the locked stub for the real
CoreAPI. mavweb's `RegisterFinish` wraps the env key on enrollment;
`AssertFinish` calls `Unlock` on assertion. Env-key fallback preserved
(dev/CI path unchanged). **Test gap:** the roadmap required three new test
cases (wrap/unwrap round-trip, wrong-cred unwrap fails, locked-mode IPC
rejects non-unlock methods) — none were written. The code is correct but
untested; `make test` is green by omission, not coverage.
- **Conversation depth (ROADMAP 3.2)** — cross-intent anaphora + fact-by-key
lookup. `AnaphoraResolver` in `router/slots.go` detects RU pronouns
(это/он/она/оно/тот/мой + inflected forms). `followUpMerge` now handles
three cases: same-intent slot inheritance (existing), cross-intent anaphora
(Query/Fact/Reminder after a Fact with a pronoun inherits the prior key +
time), and query-after-fact (a query following a fact inherits the key for
fact-by-key lookup). `Session.History []Turn` added as the multi-turn
scaffold (capped at 4). 7 new test cases including the exact done-when
scenarios (anaphora query-after-fact, three-turn break, explicit-key-wins).
- **Routing quality + persona (ROADMAP 4.1/4.4)** — `QueryMinScore` is now a
config knob (`voice.query_min_score`, default 0.55) instead of a hardcoded
const. `make download-embedder` fetches Xenova/paraphrase-multilingual-
MiniLM-L12-v2 (~90MB ONNX) + tokenizer; AGENTS.md documents the embedder +
libonnxruntime setup. `Persona` field in `VoiceConfig` prepends to every
LLM system prompt (nudge phrasing, note queries, general knowledge); empty
= current hardcoded feminine-gendered Russian persona. Also fixed two
pre-existing data races found by `-race`: `voice/server.go` wg.Add vs
wg.Wait (accept mutex), `mavweb/server.go` s.api field (atomic.Value).
- **Calendar querying (task 3)** — "что у меня завтра?" now answers from the
CalDAV facts the poller already writes. Added `store.CalendarEvents(from,to)`,
a RU date-scope parser («сегодня»/«завтра») in `router/slots.go`, and an
IPC `CalendarEvents` RPC (api/client/server/wire) feeding the `IntentQuery`
handler. Empty day → «на сегодня ничего нет». Previously calendar only *gated*
nudges; it's now queryable.
- **General-knowledge routing (task 4)** — when notes-RAG misses `queryMinScore`,
the query now falls through to the phraser with an anti-hallucination system
prompt (`router.KnowledgePrompt`, single tested source) instead of giving up.
Empty/errored/Stub phraser → «не знаю.», never a fabrication.
- **Weather (task 5)** — new `internal/weather/`: `Provider` interface, a stub
(«погода не настроена»), and a real **keyless Open-Meteo** provider (geocode +
current_weather, injectable `*http.Client`, mocked in tests — no live network).
Wired into `IntentQuery` (keywords погода/градус/температура) with a ~5s
context timeout; selected by `voice.weather.provider` ("open-meteo" | "" → stub).
- **Homelab act allowlist (task 2)** — `voice.tools` seeded with read-only acts
(`systemctl status`, `docker ps`, `uptime`, `df`, `free`, `journalctl` reads)
as `destructive:false` and mutating ones (restart/stop/start/reboot,
docker-restart/stop) as `destructive:true`. Guardrail verified: no dangerous
verb is `destructive:false`. RU phrasings seeded in `act.txt`.
- **Embedder config validation (task 1)** — a partially-filled `voice.embedder`
block (some of model/tokenizer/lib paths missing) is now a load error instead
of a silent fall-through to the Hash floor; the floor fallback logs explicitly.
- **Dialogue state scaffold (task 6)** — `internal/dialogue/`: `Session` +
TTL `SessionStore` + pure `InheritSlots`. **Now wired** (post-merge follow-up):
the voice handler carries slots across same-intent turns within a 2-min window
(`followUpMerge`, unit-tested) — bounded gap-filling, not full multi-turn yet.
- **Long-term memory interface (task 7)** — `internal/memory/`: `Store` interface
+ `InMemoryStore` (cosine). Wired into `IntentNote` (best-effort insert) and,
post-merge, into `IntentFact` (facts indexed) + `IntentQuery` (read-back after
notes-RAG misses). In-memory only — no persistent backend yet (gap #8).
Follow-ups (Claude Code, post-merge): gofmt'd `handlers_test.go` (the jul6
verification commit left it misaligned, so `gofmt -l` still flagged it despite the
"all gates green" claim); deduped the task-4 knowledge prompt to the single tested
`router.KnowledgePrompt()`. Tree is now genuinely green (gofmt/vet/303 tests).
### Done since the jul5 revision (overnight-jul5, 2026-07-05)
The overnight session (`SESSION-05-07-2026.md`, deleted 2026-07-30 — see git history; 25 tasks) closed the previous
"not built yet" items 13 and added feature depth:
- **At-rest encryption** — the on-disk db is AES-256-GCM ciphertext; the daemon
works on a tmpfs (RAM) plaintext copy, sealed back atomically on close. Wrong
key / tamper ⇒ fail closed, never a plaintext fallback. Legacy plaintext dbs
upgrade on first clean shutdown. Key via config/env (`db_key_env`); no KDF —
raw 32-byte key, base64. The passkey cold-start unlock plugs into the same
`store.OpenEncrypted` seam later.
- **Docker deployment** — single image, one container per daemon
(`docker-compose.yml`); only mavend mounts the key + db volume; IPC over a
shared socket volume. `ipc.DialWait` (boot-order tolerance) + redial-on-drop
(core restarts don't kill modules). `deploy/README.md` has the runbook.
- **Tests** — mavcaldav, mavttsd, voicesink, mavweb main/handlers covered;
`make test` runs `-race -coverprofile`.
- **Recurring reminders** — `cron` + `next_fire_ts` on reminders; recurring ones
reschedule (instead of mark-fired) after successful delivery.
- **Notification digest/batching** — low-severity nudges queue and flush as one
digest per window/max-items (`digest` config block); stale-reminder bursts on
boot collapse into a single digest reminder, completed only after delivery.
- **Rule trace engine** — `ExplainTick`/`ExplainGate` record per-rule
predicate/gate/selection results each tick; served over IPC (`tick_trace`)
and rendered at mavweb `/trace` ("why didn't she nudge me").
- **Web UI** — new `/history` (facts + revert buttons), `/notifications` (nudge
history), `/trace` pages; nav links on `/dash`; RU/EN cheatsheet toggle in the
PWA; manifest icons (`icon.svg`). POST `/tools` now requires an in-process
passkey step-up when WebAuthn is configured.
- **Revert/undo** — `RevertFact` voids the latest fact for a key (append-only
void-marker, audit trail intact); exposed at `/api/revert` from `/history`.
- **Tool scopes** — `scope` column on tools, threaded through propose/enable/UI.
`DisableTool` raised to AuthStepUp alongside Enable.
- **Passkey persistence** — mavweb credentials in a JSON file (`-passkey-file`),
surviving restarts; rollback-on-persist-failure keeps memory and disk in sync.
- **STT silence gate** — min-duration + RMS floor drop non-speech before whisper
hallucinates on it (`-min-ms`, `-silence-rms` flags on mavsttd).
- **Housekeeping** — `db_key.env` gitignored (+`.env.example`), `build-caldav`
target, zero-timestamp "never" fix on /dash.
### Not built yet (ranked by ROI)
1. **Multi-user (SPEC item 8)** — deliberately deferred, see the tail.
Closed (jul6 follow-ups): `/api/revert` now sits behind the same passkey
step-up as POST `/tools`; `go.mod` direct deps (`onnxruntime_go`,
`coder/websocket`, `robfig/cron`) are labeled correctly — `go mod tidy` can't
run here because it walks the vendored `deps/go` toolchain tree.
Purge+rotate leaked db key (#12) — investigated and closed: the key was
**never committed** to git history (gitignored at introduction, no commit
ever tracked `deploy/db_key.env`), so nothing to scrub. File stays on disk
and in deploy env by design — at-rest encryption needs it at boot.
Done earlier (2026-07-03): **act tool executor, store-backed, full flow**
(`internal/tool` + `internal/store/tools.go` + `tools` CoreAPI methods).
- **Execution:** IntentAct runs the matched fn against the store's ENABLED
allowlist. argv, no shell → STT text can't inject. Live store read, so a
newly-enabled tool runs without a daemon restart.
- **proposed→enabled→disabled (SPEC item 5):** an act whose verb isn't enabled is
scaffolded as a `proposed` tool (maven suggests). A human enables it (fills argv
+ destructive) on the authed **`mavweb /tools`** page — never voice — and can
disable it back to `proposed` (kept in the store, won't run). `EnableTool`/
`DisableTool` sit at `AuthStepUp`; the gate is now **live** via `PasskeySession`,
so /tools enable requires a passkey assertion at `/auth/passkey` first.
- **Confirm turn:** a destructive enabled tool replies "выполнить X? да/нет" and
parks; the next utterance (ru/en yes-no) confirms or cancels (90s TTL).
- **Config:** `voice.tools` seeds enabled tools at boot (editing mavend.json =
the human enable act); mavweb enables ad-hoc ones on top.
- **Russian:** fixed grammar in reply strings + seed files; maven's self-
reference is feminine ("she") — [[maven-persona-gender]].
Also fixed:
- **HashEmbedder was blind to Cyrillic** (`tokenize` iterated bytes, kept only
`a-z0-9`) → every RU utterance embedded to the zero vector → cosine 0 across
all intents → misrouted to `act` (alphabetical tie-break). Now rune-based
(`unicode.IsLetter`). This was the real cause of "Найди заметку" (a query)
landing in `notes`; added note-retrieval query seeds too.
- **Notes are now browsable on `/dash`** — `RecentNotes` plumbed through the
store + CoreAPI; voice-captured notes were previously only reachable via
semantic `query`.
Earlier: notes/query recall, `/dash` monitoring, `wg_handshake` poller (NO-OP).
### Gaps — why "voice assistant" is still aspirational (2026-07-06)
What separates Maven today from the thing the spec describes. Dealbreakers
first — these define the category:
1. **Always-on listening is code-complete (MVP).** `cmd/mavwaked` captures
PCM from arecord → energy-based VAD → PushToTalk with `Surface=SurfaceVoice`
(L0). Gap narrowed: no wake word yet (pure voice-activity trigger; every
utterance fires). The 30ms frame shape and 16kHz PCM match silero-vad's
ONNX input exactly, so a wake-word model swap is a local change in vad.go.
Hardware: the mic lives on a client box (desk PC, pi, etc.) — never the
homesrv. Deploy action: systemd user unit on whichever box has the mic,
connects to mavend over wg or local net.
2. **Conversation is deeper now, still not full dialogue.** The router
classifies one utterance → one reply, but `internal/dialogue` carries
context across turns: a 2-min session inherits slots for same-intent
follow-ups («напомни завтра» → «…позвонить маме»), and cross-intent
anaphora («запиши что я пил воду» → «когда я это сделал?») now resolves
RU pronouns (это/он/она/оно/тот/мой + inflections) to the prior turn's
key for fact-by-key lookup. `Session.History []Turn` is the scaffold for
real multi-turn. Still missing: LLM-driven dialogue manager (decide
ask-vs-act), anaphora beyond RU pronouns, single-slot session (single-user
box). The sub-1B phraser only words replies.
3. **Latency/shape of a turn.** Clip-based STT (record → upload → whisper →
route → phrase → piper → play). No streaming either direction, no barge-in;
every exchange is a full round trip.
Capability-class gaps — built but thin:
4. **Act surface is a small argv allowlist.** propose→enable works and the
allowlist now ships a homelab starter set (jul6 task 2 — status/ps/uptime/
df/free/logs read-only, restart/stop/reboot gated). Still bounded to what's
seeded; broadening it is config, not code.
5. **Query answers now cover notes + calendar + weather + general knowledge**
(jul6 tasks 3/4/5). Calendar querying, keyless Open-Meteo weather, and a
phraser knowledge-fallback all landed; caveat — general-knowledge quality is
only as good as the sub-1B phraser, and weather needs `voice.weather.provider`
set. The cheatsheet and router are now roughly aligned.
6. **Routing quality depends on the ONNX embedder being configured** — the
HashEmbedder floor makes RU recall lexical/weak; many commands fall to
"clarify". `make download-embedder` now fetches the multilingual MiniLM
model + AGENTS.md documents libonnxruntime setup; `voice.query_min_score`
is a config knob (default 0.55) so the floor can be tuned without recompile.
7. **Presence is effectively one signal** (page_heartbeat); desk_active is
still an undeployed script — "voice when near" routing runs on a guess.
8. **Long-term memory is now persistent (store-backed), not the spec's chroma.**
`internal/memory` has a `Store` interface; the daemon now wires
`store.MemoryStore` (`internal/store/memory.go`) — a **persistent** backend
in the **same encrypted sqlite db** (survives restarts; recall text inherits
at-rest encryption, so no plaintext sidecar). Vectors are float32 blobs,
search is brute-force cosine (fine at single-user scale; ANN is the later
swap behind the same interface). Notes **and facts** are indexed on capture;
`IntentQuery` reads it back (after notes-RAG misses, before general-knowledge)
— fact recall («когда я пил воду?») is its distinct payoff. The in-memory
impl remains the test/no-store floor. Remaining: an ANN/external index is
optional-scale, not a gap. Custom TTS voice (kami-picked, replaces the irina
floor — [[custom-voice-training]]) is still a future item.
Ops footnote: voice-over-web verified 2026-07-06 — mavend binds 0.0.0.0:9100
and mavweb reaches it cross-container at mavend:9100 (nc -z confirmed).
mavpoll uses network_mode=host to reach localhost services (netdata, kuma).
### Future / logged, not now
Custom TTS voice training (kami-picked voice, replaces irina floor); listening
modes 23 (meeting-record, ambient-derive).
### Services & layout
- `mavend` (core, IPC unix socket) — store + loop + phraser; the only key-holder.
- `mavsttd` / `mavttsd` — STT/TTS worker modules (unix sockets).
- `mavweb` — PWA bridge (HTTP), `/api/ptt` voice, `/api/signal` presence ingest,
`/api/ntfy` WS-subscribe config, `/dash` read-only monitoring.
- `mavpoll` — env poller (netdata/kuma → facts via CoreAPI).
- `mavcaldav` — CalDAV poller (Radicale → `calendar_busy` + events via CoreAPI).
- All behind wg + nginx deny-all; no phone-home. CGo only in `mavsttd`.
- Start/stop: `./start-maven.sh [build]`, `./kill-maven.sh`.
- Config: `~/.config/maven/mavend.json` (or `mavend.json` in repo root).
### Key files
- `cmd/mavend/{main,tick,voice}.go` — daemon wiring, loop driver, voice handler
- `internal/loop/{loop,rules,gather,feedback}.go` — proactive engine
- `internal/store/` — append-only facts/reminders/nudges/presence/notes
- `cmd/mavweb/{main.go,dash.html}` — PWA bridge + `/dash` monitoring
- `internal/router/{classifier,slots,stage0}.go` — reactive routing + slot parse
- `internal/delivery/` — dispatcher + ntfy/telegram/voice sinks
- `internal/auth/` — scope/gate/policy; `FloorEnrollment` (same-uid = device
trust) + `webauthn.PasskeySession` (real step-up for L3)
- `internal/webauthn/`, `cmd/mavweb/webauthn.go` — passkey register/assert
- `cmd/mavcaldav/`, `cmd/mavpoll/`, `scripts/desk-active.sh` — env producers
### Why multi-user (SPEC item 8) is deferred
Not neglect — the one item where doing nothing now beats doing something:
- **No second user exists yet** (the "gf phase"). Building per-user partitioning
now means code exercised by zero users and validated by nobody — YAGNI.
- **The append-only schema makes it a migration, not a rewrite.** No row is ever
mutated, so adding `facts/notes/reminders.user_id` later is add-columns +
backfill-to-"kami" — no reshaping, no dual-write window. Deferral is cheap.
- **The hard part is speaker attribution, and it needs the second voice.** A
voice-print discriminator (kami vs gf vs unknown) can't be trained or tuned
with one voice in the house. Plumbing before the model is pipe with no water.
- **It's fenced deliberately** (`DO NOT TOUCH THIS PHASE` in `DESIGN.md` § Users) so an
autonomous agent doesn't add `user_id` columns while touching the store and
commit us to a schema before the constraints that shape it exist.
-2
View File
@@ -1,7 +1,5 @@
# Maven Voice Protocol
*Last verified: 2026-08-02 @ 7079a24. Living doc: correct it in place, do not append.*
> Auto-generated from `internal/voice/wire.go`, `internal/voice/errors.go`,
> `internal/voice/frame.go`, `internal/voice/client.go`. If this file and
> those files disagree, the code wins.
+3 -10
View File
@@ -1,7 +1,5 @@
# Maven — Re-architecture (Qwen3 resident model, revised 2026-07-18)
*Last verified: 2026-08-04 @ b6abb19. Living doc: correct it in place, do not append.*
> Supersedes the classifier-first routing model. Agreed in a design session
> after diagnosing that homesrv deploys with a **stub phraser** (no LLM
> running) and an embedder-classifier that routes by nearest-neighbor between
@@ -40,10 +38,8 @@ utterance
are deferred until the main feature set is complete.
- **Embedder demoted from router to tool** — it now backs `memory.search`
(RAG) and gives the router a cheap "similar past notes/intents" hint. The
router no longer depends on it clearing a threshold. The MiniLM upgrade is
done: it is multilingual-e5-small, asymmetric, with the `query:`/`passage:`
prefixes (Vikunja #371, `docs/evals/2026-08-04-recall-e5-small.md`). A
further swap is a model swap, not architecture (Vikunja #412).
router no longer depends on it clearing a threshold. Upgrade MiniLM → bge-m3
for better RU retrieval later (model swap, not architecture).
### Router output
- Constrained structured JSON action `{tool, args, escalate}` — NOT free-form
@@ -94,7 +90,4 @@ later* is the worker + RAG.
4. **Deferred work** — larger reasoner, custom Piper voice and other expansions.
## Non-goals (unchanged)
Not a nag. Not autonomous. Feminine-gendered RU self-ref. No telemetry, no
cloud model, no third-party account — but she MAY read external sources to
answer world questions (Kiwix first, search optional). "Never phones home" as
an absolute is deprecated, owner's call 2026-07-31; see CLAUDE.md § Non-goals.
Never phones home. Not a nag. Not autonomous. Feminine-gendered RU self-ref.
@@ -65,7 +65,7 @@ prefixes) is the targeted fix, and it would move findings 1 and 2 together. Sepa
`model_quantized.onnx` — not the same file.
`hard` cases score **2/11**: every one is a query where the operator did not reuse his own words.
That is the normal case weeks later, and exactly what docs/design.md's "recall when relevant" promises.
That is the normal case weeks later, and exactly what DESIGN.md's "recall when relevant" promises.
### 4. The memory-store recall branch is dead for notes
@@ -30,7 +30,7 @@ critical workflows: voice turn (mic→STT→route→tool/reply→TTS); proactive
(/dash /chat /tools /ecosystem)
current state: all 34 test packages pass; vet clean; `make test` still exits 1
(finding 2)
known failures: weak RU query routing — docs/rearchitecture.md names the cause; the named fix
known failures: weak RU query routing — REARCH.md names the cause; the named fix
is wired `nil`
maintenance burden: 4,518 lines of root markdown vs 33,319 lines of Go; 15 top-level
.md files, 3 of them dated session logs; several contradict
@@ -47,11 +47,11 @@ what's obsolete: llmrouter.go (built, tested, never wired); classifier seed-p
```
**Classification: healthy + misaligned.** Not fragile, not overbuilt, not abandoned. The
architecture in `docs/rearchitecture.md` is sound and mostly *built* — it just is not *connected*.
architecture in `REARCH.md` is sound and mostly *built* — it just is not *connected*.
## what it should become
The thing `docs/rearchitecture.md` already describes, with the switch flipped and the drift removed:
The thing `REARCH.md` already describes, with the switch flipped and the drift removed:
one resident small model doing both routing and phrasing, classifier demoted from the live
path to the failure floor, embedder demoted to RAG hint. No new architecture is needed.
**The gap is a config/wiring decision plus doc convergence, not a redesign.**
@@ -65,19 +65,19 @@ path to the failure floor, embedder demoted to RAG hint. No new architecture is
`architecture` / `repair`
**problem:** The most load-bearing design decision in the project is stated four different,
incompatible ways, and the code path `docs/rearchitecture.md` calls "the linchpin" is disabled.
incompatible ways, and the code path `REARCH.md` calls "the linchpin" is disabled.
**evidence** (all confirmed):
- `cmd/mavend/voice.go:211``rtr := buildRouter(emb, matcher, threshold, nil) // LLM router disabled`,
with comment *"the classifier handles routing reliably."*
- `docs/rearchitecture.md:11` says the same classifier is *"the structural cause of 'she messes up
- `REARCH.md:11` says the same classifier is *"the structural cause of 'she messes up
queries.'"* **The code comment and the design doc make opposite claims about the same
component.**
- `internal/router/llmrouter.go` (139 lines) + `llmrouter_test.go` — fully built and
tested, zero non-test callers.
- Model identity, four ways: docs say **Qwen3-1.7B** (`CLAUDE.md:6`, `docs/rearchitecture.md:15`,
`SPEC.md:46`, `AGENTS.md:79`, `docs/ecosystem.md:72`);
- Model identity, four ways: docs say **Qwen3-1.7B** (`CLAUDE.md:6`, `REARCH.md:15`,
`SPEC.md:46`, `AGENTS.md:79`, `MAVEN_ECOSYSTEM_ARCHITECTURE.md:72`);
`deploy/mavend.json:9` says **Qwen3.5-2B-UD-Q4_K_XL**; `models/llm/` on disk holds
**LFM2.5-1.2B-Thinking**; code comments in 5 files still say **LFM**.
- `deploy/mavend.json:11` sets `"n_gpu_layers": 99` while `CLAUDE.md:4` states the target
@@ -100,7 +100,7 @@ match. Delete nothing from `internal/router` yet — the classifier is the fallb
reconciliation, not a refactor. **Do not rewrite the router.**
**alternatives:** Delete `llmrouter.go` and commit to the classifier — only defensible if
the eval harness shows the classifier is actually adequate, which contradicts `docs/rearchitecture.md`.
the eval harness shows the classifier is actually adequate, which contradicts `REARCH.md`.
**risk:** Low-moderate. LLM route failures already fall through to the classifier
(`router.go:88-96`), so a bad model cannot break a turn. The real risk is CPU latency.
@@ -228,21 +228,21 @@ after finding 1, not before** — and skip it if it stays purely cosmetic.
**problem:** 15 root markdown files, 4,518 lines, several stale or superseded, at least
three pairs contradicting each other.
**evidence:** `ROADMAP.md` (759) + `docs/ecosystem.md` (884) +
**evidence:** `ROADMAP.md` (759) + `MAVEN_ECOSYSTEM_ARCHITECTURE.md` (884) +
`PROGRESS.md` (456) + `maven.md` (413) + `20-07-2026-BACKLOG.md` (396) +
`SESSION-05-07-2026.md` + `SESSION-06-07-2026.md` (477 combined) + `PLANS.md` (25) +
`docs/operations.md` + `SPEC.md` + `docs/protocol.md`. `PROGRESS.md:61` annotates its own staleness:
*"Older LFM references below describe the currently deployed..."*. `docs/rearchitecture.md` announces it
`START.md` + `SPEC.md` + `PROTOCOL.md`. `PROGRESS.md:61` annotates its own staleness:
*"Older LFM references below describe the currently deployed..."*. `REARCH.md` announces it
"supersedes" a model still described as current elsewhere.
**impact:** The doc set is the reason finding 1 exists. When five documents describe the
architecture, the code becomes the only trustworthy one — which defeats the purpose of
having them.
**recommended action:** Keep `CLAUDE.md` (agent contract), `docs/rearchitecture.md` (target
architecture), `AGENTS.md` (recipes), `docs/protocol.md` (wire format),
**recommended action:** Keep `CLAUDE.md` (agent contract), `REARCH.md` (target
architecture), `AGENTS.md` (recipes), `PROTOCOL.md` (wire format),
`20-07-2026-BACKLOG.md` (live queue). Delete the two `SESSION-*.md` and `PLANS.md` — git
history holds them. Fold `SPEC.md` + `maven.md` + `ROADMAP.md` into one `docs/design.md` and
history holds them. Fold `SPEC.md` + `maven.md` + `ROADMAP.md` into one `DESIGN.md` and
mark superseded sections instead of leaving them to read as current. Target ~1,500 lines.
---
@@ -320,7 +320,7 @@ expected maintenance gain: none over the incremental path
suggesting Vulkan offload is intended and working — but `CLAUDE.md` says CPU-only. Likely
the doc is stale, not the config; unverified.
- **Whether the classifier is genuinely adequate.** `voice.go:211` asserts it is;
`docs/rearchitecture.md` asserts it is not. Both are claims, neither is measured. The uncommitted eval
`REARCH.md` asserts it is not. Both are claims, neither is measured. The uncommitted eval
harness is the instrument to settle it — resolve before flipping the router, not after.
- **Whether wg+nginx+auth actually fronts 9201 in production.** Not in this repo. If it
does, finding 3 drops from "unauthenticated RCE" to "the control is not reproducible from
@@ -350,7 +350,7 @@ Key claims independently re-verified against the working tree; the verdict stand
over WireGuard on homesrv, this is hygiene, not an emergency — but the loopback bind
and startup warning are cheap insurance either way, so do them regardless.
- Finding 1's "flip the router" step should be gated harder on measurement.
`docs/rearchitecture.md`'s claim that the classifier causes weak RU queries is itself unmeasured —
`REARCH.md`'s claim that the classifier causes weak RU queries is itself unmeasured —
the review admits this under uncertainties, but the "repair now" ordering buries it.
Run `eval_scenarios_test.go` against both paths **before** deciding to flip, not
after. A 2B model on CPU may add enough latency that the classifier wins in practice
@@ -177,7 +177,7 @@ was silent ("не знаю" to "который час") while the one it introdu
### 1. The resident model does route better — 50.0% vs 36.8%
docs/rearchitecture.md's premise holds; `voice.go:211`'s comment does not. **But the classifier is only
REARCH.md's premise holds; `voice.go:211`'s comment does not. **But the classifier is only
~37% correct on held-out utterances, and the model only ~50%.** Neither is "reliable". The
gap between them is real but both are far from a system you would describe as working.
+1 -20
View File
@@ -1,7 +1,5 @@
# Start Commands
*Last verified: 2026-08-07 @ a4630b9. Living doc: correct it in place, do not append.*
All commands assume `ROOT=/home/kami/apps/Maven` and the local Go toolchain at `$ROOT/deps/go/go/bin/go`.
## Prerequisites
@@ -44,8 +42,7 @@ Config path: `~/.config/maven/mavend.json`. Full example with all options.
"repeat_interval": "5m",
"ntfy": {
"base_url": "https://ntfy.kvmx.ru",
"topic": "maven",
"token": "${NTFY_TOKEN}"
"topic": "maven"
},
"phraser": {
"model_path": "/mnt/hdd1/llms/Qwen3-Maven-1.7B-Q8_0.gguf",
@@ -67,15 +64,6 @@ Config path: `~/.config/maven/mavend.json`. Full example with all options.
Omit the `embedder` block entirely to use the deterministic HashEmbedder floor (no ML, no ONNX runtime dependency). Useful for testing or low-resource setups.
`${NTFY_TOKEN}` and the `${TELEGRAM_*}` vars are expanded from `deploy/telegram.env`, which is gitignored. Copy `deploy/telegram.env.example` and fill it in. Mint a scoped token rather than reusing an admin one. It needs write access to the `maven` topic and nothing else:
```sh
ntfy access maven maven write-only
ntfy token add --expires=never maven
```
Deleting the `ntfy` block turns the reach off, and that is not a no-op. The routing table sends sev3-away nudges and away reminders to ntfy and nowhere else. With no sink wired they hit a nil and vanish, leaving no log line and no `delivery_attempts` row (V-649).
## mavsttd — STT worker (optional, remote whisper.cpp)
Requires `LD_LIBRARY_PATH` to include deps/lib (for libwhisper.so, libggml-vulkan.so).
@@ -100,13 +88,6 @@ export LD_LIBRARY_PATH="$ROOT/deps/piper"
Without `-piper` it runs as a stub.
`-lexicon deploy/tts-lexicon.json` adds the pronunciation dictionary: a flat
JSON object of name to Russian spelling, applied to the text just before piper
reads it. It is how `Vikunja` is said as a word rather than spelled out, and how
`SearXNG` and `homesrv` are said at all. Off unless the flag is set; a path that
is set and unreadable stops mavttsd rather than letting it say names wrong in
silence. Adding a name needs a restart of mavttsd and nothing else.
## mavweb — PWA voice bridge (WebSocket ↔ TCP)
No CGo, no deps; builds with stock Go.
-113
View File
@@ -1,113 +0,0 @@
// Command labelgen labels utterances with the stage 0 grammars and prints JSONL.
//
// docs/plans/18-routing-heads-on-e5-small.md calls the labeled set the whole
// project, and it names the stage 0 grammars as the high-precision label
// functions to start from. This runs them — the real ones, in the real
// buildRouter order — rather than a reimplementation, so a rule change moves
// the training data with it.
//
// A grammar that declines leaves the line unlabeled. Those go to the model, and
// keeping them is the point: a set labeled only by the rules teaches only the
// rules.
//
// go run ./cmd/labelgen < utterances.txt > labeled.jsonl
//
// The wakeword-act grammar is absent, because its allowlist is the deployment's
// enabled tool names and this tool has no deployment. Every other rule is here.
package main
import (
"bufio"
"encoding/json"
"fmt"
"os"
"strings"
"github.com/kami/maven/internal/router"
)
// label is one output row. The grammar name rides along so a reviewer can see
// which rule made the claim, and so a rule that turns out to be wrong can have
// its rows pulled without re-running everything.
type label struct {
Utterance string `json:"utterance"`
Intent string `json:"intent,omitempty"`
Grammar string `json:"grammar,omitempty"`
Key string `json:"key,omitempty"`
Value string `json:"value,omitempty"`
Fn string `json:"fn,omitempty"`
Text string `json:"text,omitempty"`
Labeled bool `json:"labeled"`
}
// grammars mirrors buildRouter's order in cmd/mavend/voicewire.go. Order is
// load-bearing there and so it is here: the agenda rules must sit after the
// clock rules, Praxis before the capture marker, the narrative rules last.
func grammars() []router.Grammar {
var g []router.Grammar
g = append(g, router.SystemTimeDateGrammars()...)
g = append(g, router.AgendaQueryGrammars()...)
g = append(g, router.FeedQueryGrammar())
g = append(g, router.TaskListGrammar())
g = append(g, router.ListGrammars()...)
g = append(g, router.ReminderGrammar())
g = append(g, router.PraxisGrammars()...)
g = append(g, router.TaskCaptureGrammar())
g = append(g, router.NarrativeQueryGrammars()...)
return g
}
func match(gs []router.Grammar, utterance string) label {
out := label{Utterance: utterance}
for _, g := range gs {
m := g.Pattern.FindStringSubmatch(utterance)
if m == nil {
continue
}
d, ok := g.Build(m)
if !ok {
continue // the rule saw its shape and declined it
}
out.Intent = string(d.Intent)
out.Grammar = g.Name
out.Key = d.Slots.Key
out.Value = d.Slots.Value
out.Fn = d.Slots.Fn
out.Text = d.Slots.Text
out.Labeled = true
return out
}
return out
}
func main() {
gs := grammars()
in := bufio.NewScanner(os.Stdin)
in.Buffer(make([]byte, 0, 64*1024), 1024*1024)
out := bufio.NewWriter(os.Stdout)
defer out.Flush()
enc := json.NewEncoder(out)
var seen, labeled int
for in.Scan() {
line := strings.TrimSpace(in.Text())
if line == "" || strings.HasPrefix(line, "#") {
continue
}
seen++
l := match(gs, line)
if l.Labeled {
labeled++
}
if err := enc.Encode(l); err != nil {
fmt.Fprintln(os.Stderr, "labelgen:", err)
os.Exit(1)
}
}
if err := in.Err(); err != nil {
fmt.Fprintln(os.Stderr, "labelgen:", err)
os.Exit(1)
}
// Coverage on stderr, so the count is visible without polluting the JSONL.
fmt.Fprintf(os.Stderr, "labelgen: %d/%d labeled by %d grammars\n", labeled, seen, len(gs))
}
+147 -122
View File
@@ -1,24 +1,17 @@
// mavcaldav — the CalDAV module: reads calendars into facts, and renders
// maven's own reminders back out to a calendar she owns.
// mavcaldav — the CalDAV poller module.
//
// READ side (unchanged behaviour): polls a Radicale (or any CalDAV) server for
// today's events and writes `facts (kind=env, source=poll:caldav)` through
// core's IPC socket. Key-free, restart-free, fail-independent — crashes can't
// touch the store key, worst case a stale calendar_busy fact until the next
// poll. Two facts:
// Polls a Radicale (or any CalDAV) server for today's events and writes
// `facts (kind=env, source=poll:caldav)` through core's IPC socket.
// Key-free, restart-free, fail-independent — crashes can't touch the
// store key, worst case a stale calendar_busy fact until the next poll.
//
// Two facts written:
// - calendar_busy ("true"/"false") — read by the loop gate to suppress
// nudges during meetings
// - calendar_event ("<summary> @ <start>-<end>") — per-event for query
//
// Append-only discipline: a fact is written only when its value CHANGED vs the
// latest for that key+source.
//
// RENDER side (Vikunja #127, off unless -render-url is given): publishes each
// pending reminder as a single-event iCal resource in a collection maven owns.
// The calendar is a view, sqlite is the store — see render.go. The render URL
// must differ from the read URL, checked at startup, so the render target can
// never be a calendar maven is only supposed to read.
// Append-only discipline: a fact is written only when its value CHANGED
// vs the latest for that key+source.
package main
import (
@@ -34,7 +27,6 @@ import (
"syscall"
"time"
"github.com/kami/maven/internal/calendar"
"github.com/kami/maven/internal/ipc"
)
@@ -50,11 +42,7 @@ func run(args []string) error {
socket := fs.String("socket", "", "core IPC socket path (required)")
url := fs.String("url", "", "CalDAV calendar URL, e.g. http://localhost:5232/kami/personal (required)")
user := fs.String("user", "", "CalDAV basic-auth username (required)")
passFile := fs.String("pass-file", "", "file holding the CalDAV basic-auth password (required — never passed as a flag value)")
renderURL := fs.String("render-url", "", "CalDAV collection maven publishes her own reminders to; empty disables rendering")
renderUser := fs.String("render-user", "", "basic-auth username for -render-url (defaults to -user)")
renderPassFile := fs.String("render-pass-file", "", "file holding the password for -render-url (defaults to -pass-file)")
renderDur := fs.Duration("render-duration", calendar.DefaultReminderDuration, "how long a rendered reminder occupies")
pass := fs.String("pass", "", "CalDAV basic-auth password (required)")
interval := fs.Duration("interval", 5*time.Minute, "poll cadence")
timeout := fs.Duration("timeout", 10*time.Second, "per-request HTTP timeout")
if err := fs.Parse(args); err != nil {
@@ -63,20 +51,8 @@ func run(args []string) error {
if *socket == "" {
return fmt.Errorf("-socket is required")
}
if *url == "" || *user == "" || *passFile == "" {
return fmt.Errorf("-url, -user, -pass-file are required")
}
if err := checkRenderTarget([]string{*url}, *renderURL); err != nil {
return err
}
// The password is read from a file, never taken as a flag value: an argv
// secret is visible in `ps` to every user on the box and lands in the compose
// file and the shell history. Same rule mavmaild and mavpoll follow. Read
// once at start, so a rotated password means a restart.
pass, err := readSecret(*passFile)
if err != nil {
return err
if *url == "" || *user == "" || *pass == "" {
return fmt.Errorf("-url, -user, -pass are required")
}
ctx, stop := signal.NotifyContext(context.Background(), syscall.SIGINT, syscall.SIGTERM)
@@ -88,39 +64,16 @@ func run(args []string) error {
}
defer core.Close()
hc := &http.Client{Timeout: *timeout}
p := &poller{
core: core,
http: hc,
http: &http.Client{Timeout: *timeout},
url: strings.TrimRight(*url, "/"),
user: *user,
pass: pass,
}
var rend *renderer
if *renderURL != "" {
ru, rp := *renderUser, pass
if ru == "" {
ru = *user
}
if *renderPassFile != "" {
rp, err = readSecret(*renderPassFile)
if err != nil {
return err
}
}
rend = newRenderer(core, hc, *renderURL, ru, rp, *renderDur)
log.Printf("mavcaldav: rendering reminders to %s", *renderURL)
pass: *pass,
}
log.Printf("mavcaldav: polling %s every %s", *url, *interval)
tick := func() {
p.pollOnce(ctx)
if rend != nil {
rend.renderOnce(ctx)
}
}
tick() // fire immediately
p.pollOnce(ctx) // fire immediately
t := time.NewTicker(*interval)
defer t.Stop()
for {
@@ -129,54 +82,11 @@ func run(args []string) error {
log.Printf("mavcaldav: bye")
return nil
case <-t.C:
tick()
p.pollOnce(ctx)
}
}
}
// checkRenderTarget refuses a render URL that is also one of the read URLs.
// This is the structural half of #127's "cannot write to your work calendar":
// the write credential and the write URL are separate flags, and a calendar
// maven is known to only read is rejected as a target at startup rather than
// trusted at runtime.
//
// It takes the whole read set, not one URL. The guarantee in the package
// comment is about every calendar maven reads, and a second read target added
// later must not quietly fall outside the check.
// readSecret reads one credential from a file and refuses an empty one. An
// empty file is a deployment mistake, not a password, and CalDAV basic auth
// would send it and get a 401 every poll.
func readSecret(path string) (string, error) {
raw, err := os.ReadFile(path)
if err != nil {
return "", fmt.Errorf("read password file: %w", err)
}
secret := strings.TrimSpace(string(raw))
if secret == "" {
return "", fmt.Errorf("password file %s is empty", path)
}
return secret, nil
}
func checkRenderTarget(readURLs []string, renderURL string) error {
if renderURL == "" {
return nil
}
for _, read := range readURLs {
if read == "" {
continue
}
if sameCollection(read, renderURL) {
return fmt.Errorf("-render-url must differ from the read URL %s: maven renders into a calendar she owns, never into one she reads", read)
}
}
return nil
}
func sameCollection(a, b string) bool {
return strings.EqualFold(strings.TrimRight(a, "/"), strings.TrimRight(b, "/"))
}
type poller struct {
core ipc.CoreAPI
http *http.Client
@@ -185,6 +95,12 @@ type poller struct {
pass string
}
type icalEvent struct {
start time.Time
end time.Time
summary string
}
func (p *poller) pollOnce(ctx context.Context) {
now := time.Now()
events, err := p.fetchEvents(ctx, now)
@@ -193,35 +109,38 @@ func (p *poller) pollOnce(ctx context.Context) {
return
}
busy := false
for _, e := range events {
if !now.Before(e.start) && now.Before(e.end) {
busy = true
break
}
}
busyVal := "false"
if calendar.Busy(events, now) {
if busy {
busyVal = "true"
}
// Write calendar_busy on change.
if err := p.writeIfChanged(ctx, "calendar_busy", calendar.SourcePersonal, busyVal, now); err != nil {
if err := p.writeIfChanged(ctx, "calendar_busy", "poll:caldav", busyVal, now); err != nil {
log.Printf("mavcaldav: write calendar_busy: %v", err)
return
}
// Write per-event facts (one per event, keyed by day + event summary).
// Write per-event facts (one per event, keyed by event summary + start).
// This lets the note RAG path answer "what's on my calendar" without
// reaching back to Radicale.
for _, e := range events {
key := calendar.FactKey(e)
if err := p.writeIfChanged(ctx, key, calendar.SourcePersonal, calendar.FactValue(e), e.Start); err != nil {
log.Printf("mavcaldav: write %s: %v", key, err)
val := fmt.Sprintf("%s @ %s-%s", e.summary, e.start.Format("15:04"), e.end.Format("15:04"))
eventKey := fmt.Sprintf("calendar_event_%s_%s", e.start.Format("20060102"), safeKey(e.summary))
if err := p.writeIfChanged(ctx, eventKey, "poll:caldav", val, e.start); err != nil {
log.Printf("mavcaldav: write %s: %v", eventKey, err)
}
}
}
// maxResponseBody bounds every CalDAV response this daemon reads (the poller's
// GET and the renderer's PROPFIND) — a misbehaving or malicious server gets a
// truncated read, not an unbounded one.
const maxResponseBody = 4 << 20
// fetchEvents GETs the calendar URL and parses VEVENTs from the iCal response.
func (p *poller) fetchEvents(ctx context.Context, now time.Time) ([]calendar.Event, error) {
func (p *poller) fetchEvents(ctx context.Context, now time.Time) ([]icalEvent, error) {
req, err := http.NewRequestWithContext(ctx, http.MethodGet, p.url, nil)
if err != nil {
return nil, err
@@ -235,7 +154,7 @@ func (p *poller) fetchEvents(ctx context.Context, now time.Time) ([]calendar.Eve
}
defer resp.Body.Close()
body, err := io.ReadAll(io.LimitReader(resp.Body, maxResponseBody))
body, err := io.ReadAll(io.LimitReader(resp.Body, 4<<20))
if err != nil {
return nil, err
}
@@ -243,13 +162,119 @@ func (p *poller) fetchEvents(ctx context.Context, now time.Time) ([]calendar.Eve
return nil, fmt.Errorf("GET %s: %s", p.url, resp.Status)
}
return calendar.ParseICalDay(body, now), nil
return parseICal(body, now), nil
}
// parseICal scans iCal text for VEVENT components. Returns events that overlap
// with today (UTC day boundaries) to keep the response manageable.
func parseICal(body []byte, now time.Time) []icalEvent {
todayStart := time.Date(now.Year(), now.Month(), now.Day(), 0, 0, 0, 0, time.UTC)
todayEnd := todayStart.AddDate(0, 0, 1)
var events []icalEvent
text := string(body)
for {
veventStart := strings.Index(text, "BEGIN:VEVENT")
if veventStart < 0 {
break
}
text = text[veventStart+len("BEGIN:VEVENT"):]
veventEnd := strings.Index(text, "END:VEVENT")
if veventEnd < 0 {
break
}
block := text[:veventEnd]
text = text[veventEnd+len("END:VEVENT"):]
e := parseVEVENT(block)
if e == nil {
continue
}
// Only keep events overlapping today.
if e.end.After(todayStart) && e.start.Before(todayEnd) {
events = append(events, *e)
}
}
return events
}
// parseVEVENT extracts start, end, summary from a VEVENT block.
// Supports both UTC (DTEND:20260703T100000Z) and local (DTSTART;TZID=...:...)
// formats. Returns nil for all-day events (no DTSTART/DTEND time component) or
// parse failures.
func parseVEVENT(block string) *icalEvent {
var e icalEvent
lines := strings.Split(block, "\n")
for _, line := range lines {
line = strings.TrimSpace(line)
switch {
case strings.HasPrefix(line, "DTSTART"):
if t, ok := parseDT(line); ok {
e.start = t
}
case strings.HasPrefix(line, "DTEND"):
if t, ok := parseDT(line); ok {
e.end = t
}
case strings.HasPrefix(line, "SUMMARY"):
if idx := strings.Index(line, ":"); idx >= 0 {
e.summary = strings.TrimSpace(line[idx+1:])
}
}
}
if e.start.IsZero() || e.end.IsZero() {
return nil
}
return &e
}
// parseDT parses a DTSTART/DTEND value. Supports:
// - UTC: DTEND:20260703T100000Z
// - Local: DTSTART;TZID=Europe/Moscow:20260703T130000
// - Value-date (all-day): DTSTART;VALUE=DATE:20260703 (returns zero time)
func parseDT(line string) (time.Time, bool) {
if strings.Contains(line, "VALUE=DATE:") {
return time.Time{}, false // all-day, skip
}
idx := strings.LastIndex(line, ":")
if idx < 0 {
return time.Time{}, false
}
val := line[idx+1:]
val = strings.TrimSuffix(val, "Z")
// Try UTC first (has Z suffix, or ended in Z before TrimSuffix).
if strings.HasSuffix(line, "Z") {
t, err := time.Parse("20060102T150405", val)
if err != nil {
return time.Time{}, false
}
return t.UTC(), true
}
// Local time — treat as UTC for simplicity (CalDAV server and poller
// run in the same timezone; the gate only needs busy/not-busy accuracy).
t, err := time.Parse("20060102T150405", val)
if err != nil {
return time.Time{}, false
}
return t.UTC(), true
}
// safeKey makes an event summary safe to use as a fact key (alphanumeric + dash).
func safeKey(s string) string {
var b strings.Builder
for _, r := range s {
if (r >= 'a' && r <= 'z') || (r >= 'A' && r <= 'Z') || (r >= '0' && r <= '9') || r == '-' {
b.WriteRune(r)
} else if r == ' ' || r == '_' {
b.WriteRune('-')
}
}
return b.String()
}
// writeIfChanged writes a fact only when the value differs from the latest.
// Everything this poller writes is a calendar read, which is full confidence by
// definition; a source that is not, such as the notification relay, does not
// come through here.
func (p *poller) writeIfChanged(ctx context.Context, key, source, val string, ts time.Time) error {
prev, err := p.core.LatestFactBySource(ctx, key, source)
switch {
+163 -32
View File
@@ -5,40 +5,14 @@ import (
"fmt"
"net/http"
"net/http/httptest"
"os"
"path/filepath"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
)
// The password comes from a file so it never reaches argv. An empty or missing
// file must fail at start rather than authenticate as "" against his calendar.
func TestReadSecret(t *testing.T) {
dir := t.TempDir()
good := filepath.Join(dir, "ok")
if err := os.WriteFile(good, []byte(" hunter2\n"), 0o600); err != nil {
t.Fatal(err)
}
if got, err := readSecret(good); err != nil || got != "hunter2" {
t.Fatalf("readSecret(good) = %q, %v; want \"hunter2\", nil", got, err)
}
empty := filepath.Join(dir, "empty")
if err := os.WriteFile(empty, []byte("\n \n"), 0o600); err != nil {
t.Fatal(err)
}
if _, err := readSecret(empty); err == nil {
t.Fatal("readSecret(empty) = nil error, want refusal")
}
if _, err := readSecret(filepath.Join(dir, "absent")); err == nil {
t.Fatal("readSecret(absent) = nil error, want refusal")
}
}
type fakeCore struct {
ipc.UnimplementedCoreAPI
ipc.CoreAPI
facts map[string]ipc.Fact // composite key "key|source" → Fact
writeLog []ipc.WriteFactReq
writeErr error
@@ -77,6 +51,165 @@ func (f *fakeCore) WriteFact(_ context.Context, req ipc.WriteFactReq) (int64, er
return int64(len(f.writeLog)), nil
}
// ---------------------------------------------------------------------------
// Parsing tests
// ---------------------------------------------------------------------------
func TestParseICal(t *testing.T) {
now := time.Date(2026, 7, 3, 12, 0, 0, 0, time.UTC)
body := []byte(`BEGIN:VCALENDAR
BEGIN:VEVENT
DTSTART:20260703T090000Z
DTEND:20260703T100000Z
SUMMARY:Morning standup
END:VEVENT
BEGIN:VEVENT
DTSTART:20260703T140000Z
DTEND:20260703T150000Z
SUMMARY:Team sync
END:VEVENT
BEGIN:VEVENT
DTSTART:20260702T140000Z
DTEND:20260702T150000Z
SUMMARY:Yesterday retro
END:VEVENT
BEGIN:VEVENT
DTSTART:20260704T090000Z
DTEND:20260704T100000Z
SUMMARY:Tomorrow standup
END:VEVENT
BEGIN:VEVENT
DTSTART;VALUE=DATE:20260704
DTEND;VALUE=DATE:20260705
SUMMARY:All-day event
END:VEVENT
END:VCALENDAR`)
events := parseICal(body, now)
if len(events) != 2 {
t.Fatalf("got %d events, want 2 (today events, no all-day/past/future)", len(events))
}
// Morning standup — overlaps today.
if events[0].summary != "Morning standup" {
t.Errorf("events[0].summary = %q, want %q", events[0].summary, "Morning standup")
}
wantStart0 := time.Date(2026, 7, 3, 9, 0, 0, 0, time.UTC)
if !events[0].start.Equal(wantStart0) {
t.Errorf("events[0].start = %v, want %v", events[0].start, wantStart0)
}
wantEnd0 := time.Date(2026, 7, 3, 10, 0, 0, 0, time.UTC)
if !events[0].end.Equal(wantEnd0) {
t.Errorf("events[0].end = %v, want %v", events[0].end, wantEnd0)
}
// Team sync — overlaps today.
if events[1].summary != "Team sync" {
t.Errorf("events[1].summary = %q, want %q", events[1].summary, "Team sync")
}
wantStart1 := time.Date(2026, 7, 3, 14, 0, 0, 0, time.UTC)
if !events[1].start.Equal(wantStart1) {
t.Errorf("events[1].start = %v, want %v", events[1].start, wantStart1)
}
wantEnd1 := time.Date(2026, 7, 3, 15, 0, 0, 0, time.UTC)
if !events[1].end.Equal(wantEnd1) {
t.Errorf("events[1].end = %v, want %v", events[1].end, wantEnd1)
}
}
func TestParseVEVENT(t *testing.T) {
// Normal event with TZID in DTSTART and UTC DTEND.
block := "DTSTART;TZID=Europe/Moscow:20260703T130000\nDTEND:20260703T140000Z\nSUMMARY:Stand up meeting"
e := parseVEVENT(block)
if e == nil {
t.Fatal("expected non-nil icalEvent")
}
wantStart := time.Date(2026, 7, 3, 13, 0, 0, 0, time.UTC)
if !e.start.Equal(wantStart) {
t.Errorf("start = %v, want %v", e.start, wantStart)
}
wantEnd := time.Date(2026, 7, 3, 14, 0, 0, 0, time.UTC)
if !e.end.Equal(wantEnd) {
t.Errorf("end = %v, want %v", e.end, wantEnd)
}
if e.summary != "Stand up meeting" {
t.Errorf("summary = %q, want %q", e.summary, "Stand up meeting")
}
// All-day event (VALUE=DATE) → nil.
allDay := "DTSTART;VALUE=DATE:20260703\nDTEND;VALUE=DATE:20260704\nSUMMARY:All-day"
if e2 := parseVEVENT(allDay); e2 != nil {
t.Error("expected nil for all-day event")
}
}
func TestParseDT(t *testing.T) {
tests := []struct {
name string
line string
want time.Time
wantOK bool
}{
{
name: "UTC",
line: "DTEND:20260703T100000Z",
want: time.Date(2026, 7, 3, 10, 0, 0, 0, time.UTC),
wantOK: true,
},
{
name: "local time",
line: "DTSTART;TZID=Europe/Moscow:20260703T130000",
want: time.Date(2026, 7, 3, 13, 0, 0, 0, time.UTC),
wantOK: true,
},
{
name: "all-day",
line: "DTSTART;VALUE=DATE:20260703",
want: time.Time{},
wantOK: false,
},
{
name: "invalid",
line: "DTSTART:garbage",
want: time.Time{},
wantOK: false,
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
got, ok := parseDT(tt.line)
if ok != tt.wantOK {
t.Errorf("ok = %v, want %v", ok, tt.wantOK)
}
if !got.Equal(tt.want) {
t.Errorf("got = %v, want %v", got, tt.want)
}
})
}
}
func TestSafeKey(t *testing.T) {
tests := []struct {
input string
want string
}{
{"Stand up meeting", "Stand-up-meeting"},
{"Hello_World", "Hello-World"},
{"special@#$chars!!", "specialchars"},
{"ALL_CAPS_123", "ALL-CAPS-123"},
}
for _, tt := range tests {
got := safeKey(tt.input)
if got != tt.want {
t.Errorf("safeKey(%q) = %q, want %q", tt.input, got, tt.want)
}
}
}
// ---------------------------------------------------------------------------
// Core logic tests
// ---------------------------------------------------------------------------
@@ -216,15 +349,13 @@ func TestPollOnce(t *testing.T) {
t.Errorf("calendar_busy ts is zero")
}
// Second write: calendar_event_<date>_<summary> = "<summary> @ HH:MM-HH:MM".
// The iCal states the event in UTC and the fact is stamped on the owner's
// clock, so the expected key date and times are the local reading of it.
// Second write: calendar_event_<date>_<summary> = "<summary> @ HH:MM-HH:MM"
eventReq := fc.writeLog[1]
expectedKey := "calendar_event_" + start.Local().Format("20060102") + "_Current-meeting"
expectedKey := "calendar_event_" + start.Format("20060102") + "_Current-meeting"
if eventReq.Key != expectedKey {
t.Errorf("event key = %q, want %q", eventReq.Key, expectedKey)
}
expectedVal := "Current meeting @ " + start.Local().Format("15:04") + "-" + end.Local().Format("15:04")
expectedVal := "Current meeting @ " + start.Format("15:04") + "-" + end.Format("15:04")
if eventReq.Value != expectedVal {
t.Errorf("event value = %q, want %q", eventReq.Value, expectedVal)
}
-222
View File
@@ -1,222 +0,0 @@
package main
import (
"context"
"encoding/xml"
"fmt"
"io"
"log"
"net/http"
"net/url"
"strings"
"time"
"github.com/kami/maven/internal/calendar"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/store"
)
// renderer is the write half of maven's own local calendar (Vikunja #127).
//
// It is a RENDER TARGET, not a store. sqlite stays canonical: every tick the
// renderer reads the pending reminders out of core and publishes each one as a
// single-event iCal resource in a CalDAV collection maven owns. Nothing is ever
// read back from that collection, and losing it costs nothing — the next tick
// rebuilds it.
//
// It structurally cannot write to a calendar maven only reads. The URL comes
// from its own flag, checked at startup against every read URL (see
// run in main.go), and the only paths it ever addresses carry
// calendar.ReminderUIDPrefix — so even pointed at the wrong collection it can
// only touch resources it created.
type renderer struct {
core ipc.CoreAPI
http *http.Client
url string
user string
pass string
dur time.Duration
// published maps reminder id → the body last successfully PUT, so an
// unchanged reminder costs nothing. Purely an optimisation: a restart
// re-publishes every reminder once, which is idempotent.
published map[int64]string
// reconciled — whether the collection has been read once since start. It
// has to be, because published is in-memory: withdrawal used to cover only
// the reminders THIS process published, so a reminder that fired while the
// daemon was down kept its event in the calendar forever, and nothing ever
// revisited it.
reconciled bool
}
func newRenderer(core ipc.CoreAPI, hc *http.Client, url, user, pass string, dur time.Duration) *renderer {
return &renderer{
core: core,
http: hc,
url: strings.TrimRight(url, "/"),
user: user,
pass: pass,
dur: dur,
published: make(map[int64]string),
}
}
// renderOnce publishes every pending reminder and withdraws the ones that are
// no longer pending. Errors are logged and skipped: a calendar maven cannot
// reach must never break the reminder itself, which lives in sqlite.
func (r *renderer) renderOnce(ctx context.Context) {
reminders, err := r.core.ListReminders(ctx, renderMaxReminders)
if err != nil {
log.Printf("mavcaldav: list reminders: %v", err)
return
}
live := make(map[int64]bool, len(reminders))
for _, rem := range reminders {
if rem.Status != store.ReminderPending {
continue
}
live[rem.ID] = true
e := calendar.ReminderEvent(rem.ID, fireTime(rem), rem.Payload, r.dur)
body := calendar.RenderICal([]calendar.Event{e})
if r.published[rem.ID] == body {
continue
}
if err := r.put(ctx, calendar.ReminderPath(rem.ID), body); err != nil {
log.Printf("mavcaldav: render reminder %d: %v", rem.ID, err)
continue
}
r.published[rem.ID] = body
log.Printf("mavcaldav: rendered reminder %d (%s)", rem.ID, e.Summary)
}
stale := make(map[int64]bool)
for id := range r.published {
if !live[id] {
stale[id] = true
}
}
if !r.reconciled {
remote, err := r.listPublished(ctx)
if err != nil {
// Try again next tick. A collection maven cannot read is not a
// reason to stop publishing to it.
log.Printf("mavcaldav: reconcile: %v", err)
} else {
r.reconciled = true
for _, id := range remote {
if !live[id] {
stale[id] = true
}
}
}
}
for id := range stale {
if err := r.delete(ctx, calendar.ReminderPath(id)); err != nil {
log.Printf("mavcaldav: withdraw reminder %d: %v", id, err)
continue
}
delete(r.published, id)
log.Printf("mavcaldav: withdrew reminder %d", id)
}
}
// listPublished PROPFINDs the collection and returns the reminder ids maven has
// events for in it. Only resources carrying calendar.ReminderUIDPrefix are
// reported, so a reconciliation pass can never propose deleting a file maven
// did not create — the same bound every other path in this file has.
func (r *renderer) listPublished(ctx context.Context) ([]int64, error) {
const body = `<?xml version="1.0" encoding="utf-8"?>` +
`<D:propfind xmlns:D="DAV:"><D:prop><D:resourcetype/></D:prop></D:propfind>`
req, err := http.NewRequestWithContext(ctx, "PROPFIND", r.url+"/", strings.NewReader(body))
if err != nil {
return nil, err
}
req.SetBasicAuth(r.user, r.pass)
req.Header.Set("Content-Type", "application/xml; charset=utf-8")
req.Header.Set("Depth", "1")
resp, err := r.http.Do(req)
if err != nil {
return nil, err
}
defer resp.Body.Close()
raw, err := io.ReadAll(io.LimitReader(resp.Body, maxResponseBody))
if err != nil {
return nil, err
}
if resp.StatusCode != http.StatusMultiStatus && (resp.StatusCode < 200 || resp.StatusCode >= 300) {
return nil, fmt.Errorf("PROPFIND %s: %s", r.url, resp.Status)
}
var ms struct {
Responses []struct {
Href string `xml:"href"`
} `xml:"response"`
}
if err := xml.Unmarshal(raw, &ms); err != nil {
return nil, fmt.Errorf("PROPFIND %s: %w", r.url, err)
}
var ids []int64
for _, resp := range ms.Responses {
href, err := url.PathUnescape(strings.TrimSpace(resp.Href))
if err != nil {
continue
}
if id, ok := calendar.ReminderIDFromPath(href); ok {
ids = append(ids, id)
}
}
return ids, nil
}
// renderMaxReminders bounds the read. Reminders past this count are older than
// anything a calendar view is useful for.
const renderMaxReminders = 200
// fireTime prefers NextFireTs — for a recurring reminder that is the occurrence
// worth showing; FireTs is the original statement.
func fireTime(rem ipc.Reminder) time.Time {
if !rem.NextFireTs.IsZero() {
return rem.NextFireTs
}
return rem.FireTs
}
func (r *renderer) put(ctx context.Context, name, body string) error {
req, err := http.NewRequestWithContext(ctx, http.MethodPut, r.url+"/"+name, strings.NewReader(body))
if err != nil {
return err
}
req.SetBasicAuth(r.user, r.pass)
req.Header.Set("Content-Type", "text/calendar; charset=utf-8")
return r.do(req, name)
}
func (r *renderer) delete(ctx context.Context, name string) error {
req, err := http.NewRequestWithContext(ctx, http.MethodDelete, r.url+"/"+name, nil)
if err != nil {
return err
}
req.SetBasicAuth(r.user, r.pass)
return r.do(req, name)
}
// do runs the request and treats any 2xx, plus 404 on a DELETE, as success —
// a resource that is already gone is the state the caller wanted.
func (r *renderer) do(req *http.Request, name string) error {
resp, err := r.http.Do(req)
if err != nil {
return err
}
defer resp.Body.Close()
io.Copy(io.Discard, io.LimitReader(resp.Body, 1<<16))
switch {
case resp.StatusCode >= 200 && resp.StatusCode < 300:
return nil
case req.Method == http.MethodDelete && resp.StatusCode == http.StatusNotFound:
return nil
}
return fmt.Errorf("%s %s: %s", req.Method, name, resp.Status)
}
-301
View File
@@ -1,301 +0,0 @@
package main
import (
"context"
"errors"
"io"
"net/http"
"net/http/httptest"
"slices"
"strings"
"sync"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
)
// reminderCore is a fakeCore that also answers ListReminders.
type reminderCore struct {
fakeCore
reminders []ipc.Reminder
listErr error
}
func (c *reminderCore) ListReminders(context.Context, int) ([]ipc.Reminder, error) {
if c.listErr != nil {
return nil, c.listErr
}
return c.reminders, nil
}
// calSrv records what a CalDAV collection received. existing seeds resources
// that were already in the collection before this process started, which is
// what a restart looks like from the renderer's side.
type calSrv struct {
mu sync.Mutex
puts map[string]string
dels []string
existing []string
propfind int
status int
*httptest.Server
}
func newCalSrv() *calSrv {
s := &calSrv{puts: map[string]string{}, status: http.StatusCreated}
s.Server = httptest.NewServer(http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
body, _ := io.ReadAll(r.Body)
s.mu.Lock()
defer s.mu.Unlock()
switch r.Method {
case http.MethodPut:
s.puts[strings.TrimPrefix(r.URL.Path, "/cal/")] = string(body)
case http.MethodDelete:
s.dels = append(s.dels, strings.TrimPrefix(r.URL.Path, "/cal/"))
case "PROPFIND":
s.propfind++
w.Header().Set("Content-Type", "application/xml; charset=utf-8")
w.WriteHeader(http.StatusMultiStatus)
io.WriteString(w, s.multistatusLocked(r.URL.Path))
return
}
w.WriteHeader(s.status)
}))
return s
}
// multistatusLocked renders the collection listing. Caller holds the lock.
func (s *calSrv) multistatusLocked(base string) string {
var b strings.Builder
b.WriteString(`<?xml version="1.0"?><D:multistatus xmlns:D="DAV:">`)
b.WriteString("<D:response><D:href>" + base + "</D:href></D:response>")
names := append([]string{}, s.existing...)
for name := range s.puts {
names = append(names, name)
}
for _, name := range names {
if slices.Contains(s.dels, name) {
continue
}
b.WriteString("<D:response><D:href>/cal/" + name + "</D:href></D:response>")
}
b.WriteString("</D:multistatus>")
return b.String()
}
func (s *calSrv) deleted() []string {
s.mu.Lock()
defer s.mu.Unlock()
return append([]string{}, s.dels...)
}
func (s *calSrv) putCount() int {
s.mu.Lock()
defer s.mu.Unlock()
return len(s.puts)
}
func TestRenderOncePublishesPendingReminders(t *testing.T) {
fire := time.Date(2026, 8, 1, 18, 30, 0, 0, time.UTC)
srv := newCalSrv()
defer srv.Close()
core := &reminderCore{reminders: []ipc.Reminder{
{ID: 7, FireTs: fire, Payload: "позвонить маме", Status: "pending"},
{ID: 8, FireTs: fire, Payload: "уже сделано", Status: "fired"},
{ID: 9, FireTs: fire, Payload: "отменено", Status: "cancelled"},
}}
r := newRenderer(core, srv.Client(), srv.URL+"/cal/", "u", "p", 0)
r.renderOnce(context.Background())
srv.mu.Lock()
body, ok := srv.puts["maven-reminder-7.ics"]
n := len(srv.puts)
srv.mu.Unlock()
if n != 1 {
t.Fatalf("expected exactly the pending reminder to be published, got %d PUTs", n)
}
if !ok {
t.Fatal("pending reminder 7 was not published")
}
if !strings.Contains(body, "SUMMARY:позвонить маме") {
t.Errorf("payload missing from rendered body:\n%s", body)
}
if !strings.Contains(body, "UID:maven-reminder-7") {
t.Errorf("UID missing from rendered body:\n%s", body)
}
}
func TestRenderOnceSkipsUnchanged(t *testing.T) {
srv := newCalSrv()
defer srv.Close()
core := &reminderCore{reminders: []ipc.Reminder{
{ID: 1, FireTs: time.Date(2026, 8, 1, 9, 0, 0, 0, time.UTC), Payload: "выпить воды", Status: "pending"},
}}
r := newRenderer(core, srv.Client(), srv.URL+"/cal", "u", "p", 0)
r.renderOnce(context.Background())
r.renderOnce(context.Background())
if got := srv.putCount(); got != 1 {
t.Fatalf("an unchanged reminder was re-published: %d distinct PUTs", got)
}
}
func TestRenderOnceWithdrawsResolvedReminders(t *testing.T) {
srv := newCalSrv()
defer srv.Close()
core := &reminderCore{reminders: []ipc.Reminder{
{ID: 5, FireTs: time.Date(2026, 8, 1, 9, 0, 0, 0, time.UTC), Payload: "встреча", Status: "pending"},
}}
r := newRenderer(core, srv.Client(), srv.URL+"/cal", "u", "p", 0)
r.renderOnce(context.Background())
core.reminders[0].Status = "fired"
r.renderOnce(context.Background())
srv.mu.Lock()
dels := append([]string(nil), srv.dels...)
srv.mu.Unlock()
if len(dels) != 1 || dels[0] != "maven-reminder-5.ics" {
t.Fatalf("resolved reminder was not withdrawn: %v", dels)
}
if len(r.published) != 0 {
t.Errorf("published map still holds %v", r.published)
}
}
// A calendar maven cannot reach must never break anything: sqlite is canonical.
func TestRenderOnceSurvivesServerErrors(t *testing.T) {
srv := newCalSrv()
srv.status = http.StatusInternalServerError
defer srv.Close()
core := &reminderCore{reminders: []ipc.Reminder{
{ID: 1, FireTs: time.Date(2026, 8, 1, 9, 0, 0, 0, time.UTC), Payload: "x", Status: "pending"},
}}
r := newRenderer(core, srv.Client(), srv.URL+"/cal", "u", "p", 0)
r.renderOnce(context.Background())
if len(r.published) != 0 {
t.Error("a failed PUT must not be recorded as published, or it never retries")
}
}
func TestRenderOnceUsesNextFireForRecurring(t *testing.T) {
srv := newCalSrv()
defer srv.Close()
next := time.Date(2026, 8, 2, 7, 0, 0, 0, time.UTC)
core := &reminderCore{reminders: []ipc.Reminder{{
ID: 3,
FireTs: time.Date(2026, 8, 1, 7, 0, 0, 0, time.UTC),
NextFireTs: next,
Payload: "зарядка",
Status: "pending",
Cron: "0 7 * * *",
}}}
r := newRenderer(core, srv.Client(), srv.URL+"/cal", "u", "p", 0)
r.renderOnce(context.Background())
srv.mu.Lock()
body := srv.puts["maven-reminder-3.ics"]
srv.mu.Unlock()
if !strings.Contains(body, "DTSTART:20260802T070000Z") {
t.Errorf("recurring reminder should render its next occurrence:\n%s", body)
}
}
func TestCheckRenderTargetRefusesTheCalendarItReads(t *testing.T) {
read := "http://localhost:5232/kami/personal"
if err := checkRenderTarget([]string{read}, ""); err != nil {
t.Fatalf("rendering off must be fine: %v", err)
}
if err := checkRenderTarget([]string{read}, "http://localhost:5232/kami/maven"); err != nil {
t.Fatalf("a distinct collection must be accepted: %v", err)
}
if err := checkRenderTarget([]string{read}, read); err == nil {
t.Error("rendering into the read calendar must be refused")
}
if err := checkRenderTarget([]string{read}, read+"/"); err == nil {
t.Error("a trailing slash must not defeat the check")
}
if err := checkRenderTarget([]string{read}, strings.ToUpper(read)); err == nil {
t.Error("case must not defeat the check")
}
// Every read target is checked, not the first one. A second calendar to
// read must not fall outside the guarantee just by being added later.
work := "http://localhost:5232/kami/work"
if err := checkRenderTarget([]string{read, work}, work); err == nil {
t.Error("rendering into the second read calendar must be refused")
}
if err := checkRenderTarget([]string{read, work}, "http://localhost:5232/kami/maven"); err != nil {
t.Fatalf("a collection maven owns must still be accepted: %v", err)
}
}
// Withdrawal has to survive a restart. published is in-memory, so a fresh
// process knows nothing about the events an earlier one wrote: fire a reminder,
// restart mavcaldav, and its event used to sit in the collection forever
// because nothing ever revisited it. The first tick reads the collection and
// reconciles what it finds against what is pending.
func TestRenderOnceWithdrawsAfterRestart(t *testing.T) {
srv := newCalSrv()
defer srv.Close()
// Left behind by a previous process: 4 is still pending, 5 has fired.
// The third file is not maven's and must not be touched.
srv.existing = []string{"maven-reminder-4.ics", "maven-reminder-5.ics", "dentist.ics"}
core := &reminderCore{reminders: []ipc.Reminder{
{ID: 4, FireTs: time.Date(2026, 8, 1, 9, 0, 0, 0, time.UTC), Payload: "выпить воды", Status: "pending"},
{ID: 5, FireTs: time.Date(2026, 8, 1, 8, 0, 0, 0, time.UTC), Payload: "уже прозвенело", Status: "fired"},
}}
r := newRenderer(core, srv.Client(), srv.URL+"/cal", "u", "p", 0)
r.renderOnce(context.Background())
dels := srv.deleted()
if len(dels) != 1 || dels[0] != "maven-reminder-5.ics" {
t.Fatalf("deleted %v, want only the fired reminder's event", dels)
}
// The collection is read once, not on every tick.
r.renderOnce(context.Background())
srv.mu.Lock()
n := srv.propfind
srv.mu.Unlock()
if n != 1 {
t.Errorf("PROPFIND ran %d times, want once per process", n)
}
}
// A collection maven cannot read is not a reason to stop publishing to it, and
// the reconciliation must be retried rather than skipped for the process.
func TestRenderOnceRetriesReconcile(t *testing.T) {
srv := newCalSrv()
defer srv.Close()
srv.existing = []string{"maven-reminder-6.ics"}
failing := &http.Client{Transport: &propfindFailure{base: srv.Client().Transport}}
core := &reminderCore{}
r := newRenderer(core, failing, srv.URL+"/cal", "u", "p", 0)
r.renderOnce(context.Background())
if got := srv.deleted(); len(got) != 0 {
t.Fatalf("nothing can be withdrawn on a failed read: %v", got)
}
if r.reconciled {
t.Fatal("a failed read must not count as reconciled")
}
r.http = srv.Client()
r.renderOnce(context.Background())
if got := srv.deleted(); len(got) != 1 || got[0] != "maven-reminder-6.ics" {
t.Fatalf("deleted %v, want the orphaned event on the retry", got)
}
}
// propfindFailure fails PROPFIND and passes everything else through.
type propfindFailure struct{ base http.RoundTripper }
func (f *propfindFailure) RoundTrip(req *http.Request) (*http.Response, error) {
if req.Method == "PROPFIND" {
return nil, errors.New("collection unreachable")
}
return f.base.RoundTrip(req)
}
+11 -1
View File
@@ -1,6 +1,6 @@
// Package main is mavenclient — maven's reference client.
//
// Per docs/design.md § Voice pipeline (STT / TTS): capture lives on the client;
// Per DESIGN.md § Voice pipeline (STT / TTS): capture lives on the client;
// the server transcribes + synthesises on demand. The PC client runs the
// wake-word / VAD gate (cmd/mavwaked) and ships ONE clean audio blob per
// utterance on activation. The server never owns a mic.
@@ -31,11 +31,15 @@ import (
"errors"
"flag"
"fmt"
"io"
"log"
"net"
"os"
"os/signal"
"path/filepath"
"strconv"
"syscall"
"time"
"github.com/kami/maven/internal/audio"
"github.com/kami/maven/internal/voice"
@@ -151,3 +155,9 @@ func writeWAV(path string, a audio.Audio) error {
// jsonUnmarshal — kept local rather than pulling encoding/json into main.go
// top-level space.
func jsonUnmarshal(b []byte, v any) error { return json.Unmarshal(b, v) }
// keep strconv + io + net + time alive for future duration/size helpers.
var _ = strconv.Atoi
var _ io.Reader = (io.Reader)(nil)
var _ = net.IPv4
var _ = time.Second
-129
View File
@@ -1,129 +0,0 @@
// Spoken ack — the other half of the snooze wire. "готово" said out loud
// resolves a live nudge as `acted`, and a fact that answers the nudge on its
// own ("выпил воды" after the water rule fired) closes it without him having
// to say anything extra.
//
// Two entry points rather than one, because the two utterances are different
// acts. A bare "готово" carries no content and is intercepted before the
// router, exactly like the snooze. "выпил воды" IS content: it has to route
// normally and write its fact, and only then close the nudge. Folding the
// second into a pre-route intercept would have thrown the fact away, which is
// the thing he actually said.
package main
import (
"context"
"log"
"github.com/kami/maven/internal/loop"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
// resolveAck — pre-route keyword check for a contentless acknowledgement,
// run after the snooze. Same window and same fall-through rule: the words only
// count when a nudge is actually live, so "готово" with nothing pending routes
// normally.
func (h *reactiveHandler) resolveAck(ctx context.Context, text string, src turnSource) (string, bool) {
if !classifyAck(text) {
return "", false
}
now := h.now()
target, ok := h.pendingNudge(ctx, now)
if !ok {
return "", false
}
if err := h.api.ResolveNudge(ctx, target.ID, store.NudgeActed, now); err != nil {
log.Printf("voice: ack nudge %d (%s, %s): %v", target.ID, target.Rule, src, err)
return phraser.Ack(phraser.FailAck, nil), true
}
log.Printf("voice: acked nudge %d (rule %s) from %s", target.ID, target.Rule, src)
return phraser.Ack(phraser.AckNudge, nil), true
}
// ackFromFact — post-action hook, called once the turn's decision has been
// applied. A fact whose key is the substrate of a live nudge's rule answers
// that nudge, so the nudge is resolved `acted` and the auto-tuner learns the
// rule is working.
//
// Silent by design: it returns nothing and never changes the reply. He said
// "выпил воды" and the fact reply is what he is owed; "отлично, отметила" on
// top would be her congratulating him for obeying, which is the nag she is
// explicitly not.
//
// Best-effort throughout. A failure here loses one feedback signal and must
// never turn a written fact into an error the user hears.
func (h *reactiveHandler) ackFromFact(ctx context.Context, dec router.Decision) {
if dec.Clarify || dec.Intent != router.IntentFact || !dec.Slots.HasKey {
return
}
rules := ackRulesForKey(dec.Slots.Key)
if len(rules) == 0 {
return
}
now := h.now()
target, ok := h.pendingNudge(ctx, now)
if !ok || !rules[target.Rule] {
return
}
if err := h.api.ResolveNudge(ctx, target.ID, store.NudgeActed, now); err != nil {
log.Printf("voice: ack nudge %d from fact %q: %v", target.ID, dec.Slots.Key, err)
return
}
log.Printf("voice: nudge %d (rule %s) acked by fact %q", target.ID, target.Rule, dec.Slots.Key)
}
// ackRulesForKey — which rules a fact under this key answers.
//
// Derived from each rule's InertWhenNoData rather than written out as a map,
// so a rule added later is covered the day it lands. That field already names
// the substrate the rule reads; a fresh fact under one of those keys is by
// definition the thing the rule was complaining about the absence of.
//
// DefaultRules, not the daemon's wired set: a rule disabled in config cannot
// have a pending nudge to close anyway, and reading the canonical set here
// keeps this free of the config plumbing.
func ackRulesForKey(key string) map[string]bool {
if key == "" {
return nil
}
var out map[string]bool
for _, r := range loop.DefaultRules() {
for _, k := range r.InertWhenNoData {
if k != key {
continue
}
if out == nil {
out = map[string]bool{}
}
out[r.Name] = true
}
}
return out
}
// ackPhrases — the acknowledgement vocabulary, as stem sequences. Matched by
// quietPhrase (quiet_toggle.go), so a single-word pattern matches only a
// single-word utterance.
//
// "да" and "ок" are deliberately absent. Both are answers to a question she
// asked, and the clarify gate upstream (resolveClarifyAnswer) has the stronger
// claim on them; letting them close a nudge as well would mean a stray "да"
// silently rewrites the feedback the auto-tuner learns from.
var ackPhrases = [][]string{
{"готово"}, {"сделал"}, {"сделано"}, {"выполнил"}, {"уже"},
{"уже", "сделал"}, {"уже", "готово"}, {"всё", "сделал"},
{"done"}, {"already", "did"},
}
// classifyAck reads an utterance as a contentless acknowledgement.
func classifyAck(text string) bool {
tokens := quietTokens(text)
for _, p := range ackPhrases {
if quietPhrase(tokens, p) {
return true
}
}
return false
}
-109
View File
@@ -1,109 +0,0 @@
package main
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
func TestClassifyAck(t *testing.T) {
for _, s := range []string{
"готово", "сделал", "сделано", "выполнил", "уже",
"уже сделал", "всё сделал", "done",
} {
if !classifyAck(s) {
t.Errorf("classifyAck(%q) = false, want true", s)
}
}
for _, s := range []string{
// "да" and "ок" belong to the clarify gate, not to the nudge.
"да", "ок", "хорошо",
// A single-word pattern must not eat the sentence it appears in.
"сделал бэкап базы", "готово ли обновление", "уже поздно",
"напомни завтра позвонить маме", "",
} {
if classifyAck(s) {
t.Errorf("classifyAck(%q) = true, want false", s)
}
}
}
func TestResolveAckMarksTheNudgeActed(t *testing.T) {
h, api := snoozeHandler([]ipc.Nudge{pendingNudgeAt(6, 2*time.Minute)})
reply, handled := h.resolveAck(context.Background(), "готово", sourceVoice)
if !handled || reply == "" {
t.Fatalf("got (%q, %v), want a reply", reply, handled)
}
if api.gotID != 6 || api.gotOutcome != store.NudgeActed {
t.Fatalf("resolved (%d, %q), want (6, %q)", api.gotID, api.gotOutcome, store.NudgeActed)
}
}
func TestResolveAckFallsThroughWithNothingPending(t *testing.T) {
h, api := snoozeHandler(nil)
if reply, handled := h.resolveAck(context.Background(), "готово", sourceVoice); handled || reply != "" {
t.Fatalf("got (%q, %v), want fall-through", reply, handled)
}
if api.calls != 0 {
t.Fatalf("resolved a nudge with nothing pending")
}
}
func TestAckRulesForKey(t *testing.T) {
cases := []struct {
key string
want string // "" means no rule
}{
{"water", "water"},
{"meal", "meal"},
{"break", "break"},
{"desk_active", "break"},
{"weight", ""},
{"", ""},
}
for _, tc := range cases {
got := ackRulesForKey(tc.key)
if tc.want == "" {
if len(got) != 0 {
t.Errorf("ackRulesForKey(%q) = %v, want none", tc.key, got)
}
continue
}
if !got[tc.want] {
t.Errorf("ackRulesForKey(%q) = %v, want %q in it", tc.key, got, tc.want)
}
}
}
func TestAckFromFactClosesTheMatchingNudge(t *testing.T) {
h, api := snoozeHandler([]ipc.Nudge{pendingNudgeAt(11, time.Minute)}) // rule "water"
h.ackFromFact(context.Background(), router.Decision{
Intent: router.IntentFact,
Slots: router.Slots{Key: "water", HasKey: true},
})
if api.gotID != 11 || api.gotOutcome != store.NudgeActed {
t.Fatalf("resolved (%d, %q), want (11, %q)", api.gotID, api.gotOutcome, store.NudgeActed)
}
}
func TestAckFromFactIgnoresAnUnrelatedFact(t *testing.T) {
// The live nudge is "water"; a meal fact does not answer it. Closing it
// anyway would tell the auto-tuner the water rule works when he ignored it.
h, api := snoozeHandler([]ipc.Nudge{pendingNudgeAt(12, time.Minute)})
for _, dec := range []router.Decision{
{Intent: router.IntentFact, Slots: router.Slots{Key: "meal", HasKey: true}},
{Intent: router.IntentFact, Slots: router.Slots{Key: "weight", HasKey: true}},
{Intent: router.IntentFact}, // no key
{Intent: router.IntentQuery, Slots: router.Slots{Key: "water", HasKey: true}},
{Intent: router.IntentFact, Slots: router.Slots{Key: "water", HasKey: true}, Clarify: true},
} {
h.ackFromFact(context.Background(), dec)
}
if api.calls != 0 {
t.Fatalf("resolved %d nudge(s) on unrelated decisions", api.calls)
}
}
-79
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@@ -1,79 +0,0 @@
// actionTable dispatches applyAction's per-intent bodies. Each of the 7
// intents (fact, reminder, note, query, act, chat, system) has one handler
// here with the signature:
//
// func(h *reactiveHandler, ctx context.Context, dec router.Decision) string
//
// same contract as applyAction itself: "" means "let the Replier phrase the
// reply", a non-empty string OVERRIDES it. This is a straight extraction of
// applyAction's old switch cases (formerly ~300 lines in voice.go) — no
// reordering of side effects, no new abstractions inside a handler.
//
// What does NOT belong in this table, because it is not per-intent:
//
// - the dec.Clarify short-circuit ("" when the router's stage-3 fired) —
// stays in applyAction, before dispatch, since it applies to every
// intent identically.
// - the destructive-act confirm gate (park / resolveConfirm / confirmTTL)
// and the enabled-tool allowlist. Both live entirely inside
// actionAct/handleAct in actions_act.go, exactly where they lived in the old
// switch's IntentAct case — they are act-specific (a fact or a note
// can't be destructive), not shared across intents, so they do not need
// to move to a separate layer. The important invariant, preserved
// as-is: applyAction runs identically whether dec came from a fresh
// route or from a completed clarify answer (see finishClarified in
// clarify.go and its comment "filling in an argument never grants
// authority") — a handler must never special-case a clarify-completed
// decision to skip the confirm gate or the allowlist.
// - detectPattern and dialogue-session bookkeeping (rememberTurn,
// followUpMerge) run in the callers (runTurn,
// finishClarified), not per-intent, and are untouched by this slice.
//
// Each handler lives in actions_<intent>.go; the small ones (chat, system)
// and the table itself stay here.
//
// Adding an intent: write its handler in its own file, add one line to
// actionHandlers. Do not grow applyAction's switch back.
package main
import (
"context"
"log"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
)
// actionHandlers is the per-intent dispatch table used by applyAction.
var actionHandlers = map[router.Intent]func(*reactiveHandler, context.Context, router.Decision) string{
router.IntentFact: (*reactiveHandler).actionFact,
router.IntentReminder: (*reactiveHandler).actionReminder,
router.IntentAct: (*reactiveHandler).actionAct,
router.IntentChat: (*reactiveHandler).actionChat,
router.IntentSystem: (*reactiveHandler).actionSystem,
router.IntentNote: (*reactiveHandler).actionNote,
router.IntentQuery: (*reactiveHandler).actionQuery,
}
func (h *reactiveHandler) actionChat(ctx context.Context, dec router.Decision) string {
// Conversational: build history from dialogue session (prior user turns)
// and let the LLM respond from general knowledge + context.
if h.phraser == nil {
return "поговорили."
}
history := h.chatHistory(ctx)
// The phraser hands back its own fallback text alongside the error, so the
// turn survives a dead server and the failure still reaches the log.
reply, err := h.phraser.PhraseChat(ctx, dec.Utterance, history)
if err != nil {
log.Printf("voice: chat: %v", err)
}
if reply == "" {
return phraser.ChatFallback()
}
return reply
}
func (h *reactiveHandler) actionSystem(ctx context.Context, dec router.Decision) string {
return h.replySystem(ctx, dec)
}
-106
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@@ -1,106 +0,0 @@
package main
import (
"context"
"errors"
"log"
"github.com/kami/maven/internal/mcp"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/tool"
)
// actionAct handles router.IntentAct: match a verb to an enabled tool, offer
// it to the ecosystems first, and run it behind the confirm gate and the
// allowlist. proposeGap and the confirm gate itself live in confirm.go.
func (h *reactiveHandler) actionAct(ctx context.Context, dec router.Decision) string {
// tool executor: run the matched fn against the enabled allowlist.
// HasFn=false ⇒ try the matcher (for LLM-routed acts where the verb
// didn't go through the stage-0 act grammar).
if !dec.Slots.HasFn && dec.Slots.Text != "" && h.matcher != nil {
if fn, args, ok := h.matcher.Match(dec.Slots.Text); ok {
dec.Slots.Fn, dec.Slots.Args, dec.Slots.HasFn = fn, args, true
}
}
// The board is Maven's own store, so a spoken status change is answered here
// and never offered to an ecosystem client (Vikunja #512). First, because
// task_status is on no allowlist and no capability registry: reaching either
// of them would answer a turn about his own task list with a gap.
if dec.Slots.Fn == router.TaskStatusFn {
return h.resolveTaskStatus(ctx, dec)
}
// Praxis ecosystem tools: intercept before the system command executor.
if h.ecosystem != nil && h.ecosystem.praxis != nil && dec.Slots.HasFn {
if reply := h.handlePraxisAct(ctx, dec); reply != "" {
return reply
}
}
// Hexis ecosystem action: if ecosystem is configured and we have a verb
// + entity text, try to resolve the entity and execute via Hexis.
if h.ecosystem != nil && h.ecosystem.hexis != nil && dec.Slots.Text != "" {
if reply := h.handleHexisAct(ctx, dec); reply != "" {
return reply
}
}
// HasFn still false ⇒ no allowlist match: scaffold a 'proposed' tool
// the user can enable on the authed surface ("earn the right to ask").
if !dec.Slots.HasFn {
return h.proposeGap(ctx, dec)
}
out, err := h.tools.Exec(ctx, dec.Slots.Fn, dec.Slots.Args, false)
if err != nil {
switch {
case errors.Is(err, tool.ErrNeedsConfirm):
// destructive: park it and ask. The next utterance answers.
phrase := actPhrase(dec.Slots.Fn, dec.Slots.Args)
h.park(dec.Slots.Fn, dec.Slots.Args, phrase)
return phraser.A(phraser.ActConfirm, map[string]string{"name": phrase})
case errors.Is(err, tool.ErrUnknownTarget):
// The verb reached a tool and the tail did not reach a target, so
// nothing ran. Saying which word she could not place is the whole
// answer: he either renames it or gives the row an alias that
// carries the target, and both are one turn away (V-634).
word := ""
var unknown *tool.UnknownTargetError
if errors.As(err, &unknown) {
word = unknown.Target
}
return phraser.A(phraser.ActUnknownTarget, map[string]string{"name": word})
case errors.Is(err, tool.ErrNeedsAuthedSurface):
// Irreversible (internal/tool/risk.go). A confirm turn would not
// help: everything that proposed this act — the STT, the router,
// the fuzzy allowlist match — is a guess, and a spoken "да" checks
// none of it. She names the gap instead.
return phraser.A(phraser.ActNeedsAuthedSurface, nil)
case errors.Is(err, tool.ErrNotEnabled):
return h.proposeGap(ctx, dec)
case errors.Is(err, tool.ErrNotConnected), errors.Is(err, mcp.ErrNotConnected), errors.Is(err, mcp.ErrNoServer):
// The row is enabled and the backend is gone. Drafting a proposal
// for it (the ErrNotEnabled path) would be answering the wrong
// question.
return phraser.A(phraser.ActServerDown, nil)
case errors.Is(err, mcp.ErrToolGone):
return phraser.A(phraser.ActWithdrawn, nil)
case errors.Is(err, mcp.ErrNeedsArgs):
// An MCP tool that wants named arguments a spoken verb cannot
// supply. Guessing them would be a wrong act, so she says so
// instead — the tool is still runnable from the authed surface,
// where a human types them.
return phraser.A(phraser.ActNeedsArgs, nil)
}
log.Printf("voice: tool %s: %v", dec.Slots.Fn, err)
if out != "" {
return phraser.A(phraser.ActFailOut, map[string]string{"out": firstLine(out)})
}
return phraser.A(phraser.ActFail, nil)
}
if out != "" {
return phraser.A(phraser.ActDoneOut, map[string]string{"out": firstLine(out)})
}
return phraser.A(phraser.ActDone, nil)
}
-75
View File
@@ -1,75 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"github.com/kami/maven/internal/router"
)
// The act path speaks each tier (Vikunja #449): a safe row runs, a destructive
// one costs a confirm turn, an irreversible one is refused with the reason.
func TestActPathSpeaksTheTiers(t *testing.T) {
h, st, _ := newClarifyHandler(t)
ctx := context.Background()
now := h.now()
for _, tc := range []struct {
name string
cmd []string
destructive bool
}{
{"status", []string{"true"}, false},
{"restart", []string{"true"}, true},
{"wipe", []string{"rm", "-rf"}, true},
} {
if _, err := st.ProposeTool(ctx, tc.name, "test", "homelab", now); err != nil {
t.Fatalf("propose %s: %v", tc.name, err)
}
if err := st.EnableTool(ctx, tc.name, tc.cmd, tc.destructive, "homelab", now); err != nil {
t.Fatalf("enable %s: %v", tc.name, err)
}
}
act := func(fn string) string {
return h.actionAct(ctx, router.Decision{
Intent: router.IntentAct,
Utterance: fn,
Slots: router.Slots{Fn: fn, HasFn: true},
})
}
if reply := act("status"); !strings.HasPrefix(reply, "готово") {
t.Errorf("safe act replied %q; want it to have run", reply)
}
// PR 112's review cut «скажи «да» или «нет».» — he knows how to answer a
// yes/no question — so the confirm turn is recognised by the question.
if reply := act("restart"); !strings.Contains(reply, "да или нет") {
t.Errorf("destructive act replied %q; want a confirm turn", reply)
}
// Clear the confirm the destructive act parked, so what is pending after
// the irreversible one is only what the irreversible one parked.
h.mu.Lock()
h.pending = nil
h.mu.Unlock()
reply := act("wipe")
if strings.Contains(reply, "да или нет") {
t.Fatalf("irreversible act asked for a confirm: %q", reply)
}
if !strings.Contains(reply, "не вернуть") {
t.Errorf("irreversible act replied %q; want it to name the reason", reply)
}
// Nothing was parked, so a later "да" cannot pick it up.
h.mu.Lock()
pending := h.pending
h.mu.Unlock()
if pending != nil {
t.Errorf("an irreversible act parked %+v", pending)
}
// And it is still an enabled row — refusing to run it from voice is not
// the same as taking it off the allowlist.
if got, err := st.LookupTool(ctx, "wipe"); err != nil || got.Status != "enabled" {
t.Errorf("wipe is %+v, %v; want it still enabled", got, err)
}
}
-151
View File
@@ -1,151 +0,0 @@
package main
import (
"context"
"log"
"strconv"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/memory"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
// actionFact handles router.IntentFact: persist a tapped self-fact, index
// it for recall, and let pattern detection propose a routine.
func (h *reactiveHandler) actionFact(ctx context.Context, dec router.Decision) string {
if !dec.Slots.HasKey {
return phraser.Ack(phraser.FailFactUnparsed, nil)
}
// A question is never a fact about him (#470). "какая последняя версия
// языка Go?" used to land here, and the value stored was whatever the
// model invented for it, at confidence 1.00, indexed for recall under the
// question's own text. Two such rows then claimed seven unrelated world
// questions through recall and silently disabled world answering.
//
// The routing error itself is not fixed here — the answer is to answer.
// Sending the turn down the query chain is what he asked for anyway, and
// it costs a mis-routed capture nothing: an explicit "запиши ..." is not
// question-shaped, so it never takes this branch.
if router.IsQuestionShaped(dec.Utterance) {
log.Printf("voice: fact write refused, utterance is a question: %q (key %q) — answering as a query",
dec.Utterance, dec.Slots.Key)
q := dec
q.Intent = router.IntentQuery
// The key the model extracted is its guess at what to store, not a
// fact he has. Left in place, queryFactByKey would read it back and
// claim the turn before any real source ran.
q.Slots.Key, q.Slots.HasKey = "", false
q.Slots.Value = ""
return h.actionQuery(ctx, q)
}
// A complaint is not a fact either (#481). "сеть какая-то медленная" and
// "интернет не работает" were stored as `self` rows at confidence 1.00, and
// recall reads a self row back later as if it were still true — the same
// class of row that outranked live search in #470. The sentence describes a
// moment, so she answers it and stores nothing. An explicit "запомни ..."
// and anything about him are both left alone by the test.
if router.IsTransientComplaint(dec.Utterance) {
log.Printf("voice: fact write refused, utterance is a passing complaint: %q (key %q) — answering as chat",
dec.Utterance, dec.Slots.Key)
c := dec
c.Intent = router.IntentChat
c.Slots.Key, c.Slots.HasKey = "", false
c.Slots.Value = ""
return h.actionChat(ctx, c)
}
now := h.now()
req := ipc.WriteFactReq{
Ts: now,
Kind: "self",
Key: dec.Slots.Key,
Value: dec.Slots.Value,
Source: "tap:voice",
// Not 1.00 unconditionally any more (#470). A value he said is
// evidence; a value the model supplied for words he never said is a
// guess, and writing a guess at full confidence is the same mistake
// the act path already refuses under "LLM output is not
// authorization".
Confidence: factConfidence(dec.Utterance, dec.Slots.Value),
// Subject: the key doubles as the entity-resolution candidate —
// a voice-tapped fact's key is usually the thing/person it's
// about ("espresso_machine", "kate"), so queueing it for Nexus
// resolution costs one async lookup and is a no-op (not_found)
// for the abstract self-state keys (mood, water) that aren't
// entities at all.
Subject: dec.Slots.Key,
}
factID, err := h.api.WriteFact(ctx, req)
if err != nil {
log.Printf("voice: write fact: %v", err)
return phraser.Ack(phraser.FailFact, nil)
}
// Index the fact in long-term memory (best-effort, must not fail the fact
// write). Facts aren't in the notes table, so this is the only recall path
// for them — "когда я пил воду?" reads back from here.
//
// The indexed text is the fact, not the utterance (#493). queryMemory
// returns a fact's stored text verbatim, so what goes in here is what he
// hears; storing the utterance meant recall answered with his own sentence
// rather than the value. The utterance stays alongside as provenance —
// readable on /trace, never the answer and never embedded.
//
// The vector id carries a timestamp, so a second tap of the same key adds a
// row rather than replacing one, and recall then scores the superseded
// value against the current one. CorrectValue and VoidLatestFact already
// drop the key's vectors; an ordinary re-tap is the third way a value is
// superseded and it did not (#493). Dropping first keeps exactly one vector
// per key, which is what "recall answers with the current value" means.
if h.recall.memStore != nil {
pruneFactVectors(ctx, h.recall.memStore, dec.Slots.Key)
text := store.FactRecallText(dec.Slots.Key, dec.Slots.Value)
if vec, err := router.EmbedPassage(ctx, h.recall.embedder, text); err != nil {
log.Printf("voice: embed fact for memory: %v", err)
} else if err := h.recall.memStore.Insert(ctx, "fact:"+dec.Slots.Key+":"+strconv.FormatInt(now.Unix(), 10), vec, map[string]string{
"source": "voice",
"type": "fact",
"text": text,
"utterance": dec.Utterance,
"ts": strconv.FormatInt(now.Unix(), 10),
}); err != nil {
log.Printf("voice: memory insert fact: %v", err)
}
}
// Event extraction + pattern detection (best-effort, must not fail the
// fact write). If the fact describes a recognizable action, it becomes a
// normalized event; if ≥3 events for the same action+object show stable
// intervals, a proposed routine is created and parked for confirmation.
if h.dataStore != nil {
if phrase := h.detectPattern(ctx, factID, dec.Slots.Key, dec.Slots.Value, now); phrase != "" {
return phrase // "ты заправляешь ... напоминать?"
}
}
return "" // replier phrases the success reply
}
// vectorPruner — the part of the vector index this file needs and memory.Store
// does not carry. store.MemoryStore implements it; the in-memory test double
// may not, and a double that cannot prune is not a reason to fail a fact write.
type vectorPruner interface {
DeletePrefix(ctx context.Context, prefix string) (int64, error)
}
// pruneFactVectors drops every vector for one fact key, so the insert that
// follows is the only one left. Best-effort and silent on a store that cannot
// prune: the fact row is the truth, and a stale vector costs a wrong recall,
// not a lost fact.
func pruneFactVectors(ctx context.Context, ms memory.Store, key string) {
p, ok := ms.(vectorPruner)
if !ok {
return
}
n, err := p.DeletePrefix(ctx, "fact:"+key+":")
if err != nil {
log.Printf("voice: prune memory vectors for %q: %v", key, err)
return
}
if n > 0 {
log.Printf("voice: %q superseded, dropped %d stale memory vector(s)", key, n)
}
}
-154
View File
@@ -1,154 +0,0 @@
package main
import (
"context"
"log"
"strings"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
// Standing lists on the voice path (Vikunja #453).
//
// Three halves, mirroring what task capture already does: an add that runs at
// the top of actionNote, a read-back query source, and a crossing-off that runs
// on the same note path because "всё купил" is note-shaped.
//
// These read h.dataStore rather than the CoreAPI. A list is local to the core
// and nothing outside it writes one: the web UI has no list page, no reach
// files groceries, and the digestion worker does not read the table. When
// something outside mavend needs to add to a list, the ipc seam is what it
// grows through — the intake rules that CaptureTaskReq documents are about
// shared intake, and there is none here yet.
//
// Nothing here speaks unprompted. A list is answered when asked about.
// captureListFromNote claims the turn when the utterance adds to, clears, or
// crosses one item off a list. ("", false) hands the turn back to the note path.
func (h *reactiveHandler) captureListFromNote(ctx context.Context, dec router.Decision) (string, bool) {
if h.dataStore == nil {
return "", false
}
// Clearing is read before removing on purpose: "всё купил" and "купил
// молоко" start with the same word, and only the second one names an item.
if list, ok := router.ParseListClear(dec.Utterance); ok {
n, err := h.dataStore.ClearList(ctx, list, h.now())
if err != nil {
log.Printf("voice: clear list: %v", err)
return "не получилось обновить список.", true
}
if n == 0 {
return "в списке и так ничего не было.", true
}
return "вычеркнула всё, список пустой.", true
}
if cap, ok := router.ParseListRemove(dec.Utterance); ok {
if reply, ok := h.removeListItem(ctx, cap); ok {
return reply, true
}
// Nothing on the list by that name. "купил новый ноутбук" is a note and
// must stay one, so the turn goes back rather than claiming a removal
// that removed nothing.
return "", false
}
cap, ok := router.ParseListCapture(dec.Utterance)
if !ok {
return "", false
}
res, err := h.dataStore.AddListItem(ctx, store.ListItem{
List: cap.List,
Item: cap.Item,
Source: "tap:voice",
CreatedTs: h.now(),
})
if err != nil {
log.Printf("voice: add list item: %v", err)
return "не получилось добавить в список.", true
}
if !res.Created {
return cap.Item + " уже в списке.", true
}
return "добавила в список: " + cap.Item + ".", true
}
// removeListItem crosses one named item off. It reports false when the list
// holds nothing by that name, which is what keeps the marker words from
// swallowing ordinary notes.
func (h *reactiveHandler) removeListItem(ctx context.Context, cap router.ListCapture) (string, bool) {
items, err := h.dataStore.ListItems(ctx, cap.List, "")
if err != nil {
log.Printf("voice: list items: %v", err)
return "", false
}
want := store.NormalizeTaskText(cap.Item)
for _, li := range items {
if store.NormalizeTaskText(li.Item) != want {
continue
}
if err := h.dataStore.SetListItemStatus(ctx, li.ID, store.ListItemDone, h.now()); err != nil {
log.Printf("voice: cross off list item: %v", err)
return "не получилось обновить список.", true
}
return "вычеркнула: " + li.Item + ".", true
}
return "", false
}
// listFloor — the keyword test behind topicList, in the shape turnIsAbout takes.
func listFloor(u string) bool {
_, ok := router.ParseListQuery(u)
return ok
}
// queryList — "что в списке покупок?", "что мне купить?".
//
// A query source, so it sits in querySources and either claims the turn or
// passes it on. It is before the recall sources for the reason every specific
// source is: the notes pass would otherwise answer a list question with
// whatever note is nearest.
func (h *reactiveHandler) queryList(ctx context.Context, t *queryTurn) (string, bool) {
if h.dataStore == nil {
return "", false
}
// The seeds decide the subject and listQueryPrefixes is the floor behind
// them (V-522). Which list he named is a noun lookup either way.
if !h.turnIsAbout(ctx, t, topicList, listFloor) {
return "", false
}
list := router.ListNamedIn(t.dec.Utterance)
items, err := h.dataStore.ListItems(ctx, list, "")
if err != nil {
log.Printf("voice: list items: %v", err)
return "не получилось посмотреть список.", true
}
return formatListRU(list, items), true
}
// formatListRU reads a list aloud. One sentence, comma-separated, because a
// shopping list is heard in a shop and a numbered recital is unusable there.
func formatListRU(list string, items []store.ListItem) string {
name := "списке " + listGenitive(list)
if len(items) == 0 {
return "в " + name + " пусто."
}
names := make([]string, 0, len(items))
for _, li := range items {
names = append(names, li.Item)
}
return "в " + name + ": " + strings.Join(names, ", ") + "."
}
// listGenitive puts a list tag into the case "список <…>" needs. Russian
// declines the noun and she must not say "в списке покупки".
func listGenitive(list string) string {
switch list {
case "покупки":
return "покупок"
case "аптека":
return "аптеки"
case "хозяйство":
return "хозяйства"
}
return list
}
-184
View File
@@ -1,184 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
func listNow() time.Time { return time.Date(2026, 8, 4, 9, 0, 0, 0, time.UTC) }
func listHandler(t *testing.T) *reactiveHandler {
t.Helper()
return &reactiveHandler{dataStore: newTestStore(t), now: listNow}
}
func askList(t *testing.T, h *reactiveHandler, utterance string) (string, bool) {
t.Helper()
return h.captureListFromNote(context.Background(), router.Decision{
Intent: router.IntentNote, Utterance: utterance,
})
}
func TestListCaptureAddsAndReadsBack(t *testing.T) {
h := listHandler(t)
for _, u := range []string{"добавь в список покупок молоко", "добавь в список хлеб"} {
if reply, ok := askList(t, h, u); !ok {
t.Fatalf("%q was not claimed (reply %q)", u, reply)
}
}
if reply, ok := askList(t, h, "добавь в список покупок молоко"); !ok || !strings.Contains(reply, "уже") {
t.Errorf("second молоко replied %q, %v; want an already-there answer", reply, ok)
}
answer, ok := h.queryList(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что в списке покупок?"},
})
if !ok {
t.Fatal("the list question was not claimed")
}
if !strings.Contains(answer, "молоко") || !strings.Contains(answer, "хлеб") {
t.Errorf("answer %q; want both items", answer)
}
if strings.Contains(answer, "списке покупки") {
t.Errorf("answer %q declines the list name wrong", answer)
}
}
// An utterance with no list marker is a note and must stay one, whichever half
// of the parser it brushes against.
func TestListCapturePassesOrdinaryNotes(t *testing.T) {
h := listHandler(t)
for _, u := range []string{
"молоко закончилось",
"надо бы съездить в магазин",
"купил новый ноутбук",
"добавь в список покупок",
} {
if reply, ok := askList(t, h, u); ok {
t.Errorf("%q was claimed as a list turn: %q", u, reply)
}
}
}
func TestListCrossOffOneItemAndThenAll(t *testing.T) {
h := listHandler(t)
for _, u := range []string{
"добавь в список покупок молоко",
"добавь в список покупок хлеб",
"добавь в список аптеки бинт",
} {
if _, ok := askList(t, h, u); !ok {
t.Fatalf("%q was not claimed", u)
}
}
reply, ok := askList(t, h, "вычеркни молоко")
if !ok || !strings.Contains(reply, "молоко") {
t.Fatalf("cross off replied %q, %v", reply, ok)
}
open, err := h.dataStore.ListItems(context.Background(), "покупки", "")
if err != nil {
t.Fatalf("list: %v", err)
}
if len(open) != 1 || open[0].Item != "хлеб" {
t.Fatalf("open list %+v; want only хлеб", open)
}
if reply, ok := askList(t, h, "всё купил"); !ok || !strings.Contains(reply, "пустой") {
t.Errorf("clear replied %q, %v", reply, ok)
}
open, err = h.dataStore.ListItems(context.Background(), "покупки", "")
if err != nil {
t.Fatalf("list: %v", err)
}
if len(open) != 0 {
t.Errorf("%d items still open after всё купил", len(open))
}
// The other list is untouched, and it is read back on its own.
answer, ok := h.queryList(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "покажи список аптеки"},
})
if !ok || !strings.Contains(answer, "бинт") {
t.Errorf("аптека answer %q, %v; want бинт", answer, ok)
}
}
func TestQueryListSaysWhenItIsEmpty(t *testing.T) {
h := listHandler(t)
answer, ok := h.queryList(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что мне купить?"},
})
if !ok {
t.Fatal("the list question was not claimed")
}
if !strings.Contains(answer, "пусто") {
t.Errorf("empty answer %q; want it to say so", answer)
}
if _, ok := h.queryList(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "какие у меня задачи?"},
}); ok {
t.Error("the list source claimed a task question")
}
}
// Stage 0 answers a list turn without the model: the grammars route it, and the
// action handlers re-parse what the grammar matched.
func TestListGrammarsRouteWithoutTheModel(t *testing.T) {
cases := []struct {
utterance string
want router.Intent
}{
{"добавь в список покупок молоко", router.IntentNote},
{"что в списке покупок?", router.IntentQuery},
{"всё купил", router.IntentNote},
}
for _, c := range cases {
var got router.Intent
claimed := false
for _, g := range router.ListGrammars() {
m := g.Pattern.FindStringSubmatch(c.utterance)
if m == nil {
continue
}
if dec, ok := g.Build(m); ok {
got, claimed = dec.Intent, true
break
}
}
if !claimed {
t.Errorf("no list grammar claimed %q", c.utterance)
continue
}
if got != c.want {
t.Errorf("%q routed to %v; want %v", c.utterance, got, c.want)
}
}
for _, g := range router.ListGrammars() {
m := g.Pattern.FindStringSubmatch("напомни купить молоко завтра")
if m == nil {
continue
}
if _, ok := g.Build(m); ok {
t.Errorf("grammar %s claimed a reminder", g.Name)
}
}
}
func TestListStoreSourceIsVoice(t *testing.T) {
h := listHandler(t)
if _, ok := askList(t, h, "добавь в список покупок молоко"); !ok {
t.Fatal("not claimed")
}
items, err := h.dataStore.ListItems(context.Background(), "покупки", "")
if err != nil {
t.Fatalf("list: %v", err)
}
if len(items) != 1 || items[0].Source != "tap:voice" {
t.Errorf("stored %+v; want one row from tap:voice", items)
}
if items[0].Status != store.ListItemOpen {
t.Errorf("status %q; want open", items[0].Status)
}
}
-93
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@@ -1,93 +0,0 @@
package main
import (
"context"
"errors"
"log"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/zenmoney"
)
// Money questions (Vikunja #125).
//
// This is the whole read side: mavpoll holds the zenmoney token and writes
// facts(kind=env, source=poll:zenmoney); core reads them back when he asks.
// Core never sees the token, never calls zenmoney, and has no rule on these
// keys — a total is never a reason for Maven to speak first. Maven is not a
// nag, least of all about his money.
//
// Nothing here can reach the external search capability: the figures are read
// from the store and rendered locally, and his financial data is never search
// input.
// queryMoney — "сколько я потратил сегодня?", "покажи мои траты".
//
// Answers only from the latest fact the poller wrote. Three honest outcomes and
// no fourth: the figure, "the fact is old and here is its date", or "money
// tracking is not connected". It never computes, estimates or rounds a total of
// its own — an invented number about his money is the worst thing this could do.
func (h *reactiveHandler) queryMoney(ctx context.Context, t *queryTurn) (string, bool) {
q, ok := router.ParseMoneyQuery(t.dec.Utterance)
if !ok {
return "", false
}
if q.Window == router.MoneyUnsupported {
// Two windows are stored and no others. Answering "сколько я потратил
// вчера?" with the month-to-date total answers a different question
// with a real number, which is the shape of a lie he cannot spot.
return "я храню только сегодняшние траты и за этот месяц.", true
}
key, phrase := zenmoney.KeySpentMonth, "в этом месяце"
if q.Window == router.MoneyToday {
key, phrase = zenmoney.KeySpentToday, "сегодня"
}
fact, err := h.api.LatestFactBySource(ctx, key, zenmoney.Source)
if err != nil {
// No fact at all is the normal state when the capability is off. Claim
// the turn anyway: falling through to recall would answer a question
// about money with whatever note happens to be nearest.
if !isNoFactErr(err) {
log.Printf("voice: money fact: %v", err)
}
return "я не отслеживаю траты — не подключено.", true
}
val, err := zenmoney.ParseFactValue(fact.Value)
if err != nil {
log.Printf("voice: money fact: decode: %v", err)
return "не получилось прочитать траты.", true
}
now := h.now()
if q.Window == router.MoneyToday && !val.CoversDay(now) {
// The day window rolled over and the poller had nothing to write,
// because he has not spent anything yet today. The fact is fresh by ts
// and covers yesterday, so no staleness check can catch it — only the
// window stamp inside the value can.
return "сегодня пока ничего не вижу.", true
}
reply := val.FormatRU(phrase)
if q.Income {
reply = val.FormatIncomeRU(phrase)
}
if reply == "" {
return "по тратам пока нечего сказать.", true
}
// A stale fact is reported as stale rather than spoken as today's number.
// The age is measured from when the figure was last READ, not from when it
// last changed: a month with no spending in it does not go stale.
asOf := val.AsOf
if asOf.IsZero() {
asOf = fact.Ts
}
if now.Sub(asOf) > zenmoney.StaleAfter {
return "данные от " + asOf.Local().Format("02.01") + ": " + reply, true
}
return reply, true
}
// isNoFactErr — ErrNoFact survives the wire wrapped, so unwrap for it. The
// hand-rolled loop this replaces missed any error implementing Is(error) bool.
func isNoFactErr(err error) bool {
return errors.Is(err, ipc.ErrNoFact)
}
-228
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@@ -1,228 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/zenmoney"
)
// moneyAPI answers only LatestFactBySource; everything else is unimplemented,
// which is the assertion that answering a money question costs no model call
// and reaches no network.
type moneyAPI struct {
ipc.UnimplementedCoreAPI
fact ipc.Fact
err error
gotKey string
gotSrc string
callCnt int
}
func (a *moneyAPI) LatestFactBySource(_ context.Context, key, source string) (ipc.Fact, error) {
a.gotKey, a.gotSrc = key, source
a.callCnt++
return a.fact, a.err
}
func moneyNow() time.Time { return time.Date(2026, 8, 15, 20, 0, 0, 0, time.UTC) }
func moneyFact(ts time.Time, val string) ipc.Fact {
return ipc.Fact{Kind: "env", Key: zenmoney.KeySpentMonth, Value: val, Source: zenmoney.Source, Ts: ts}
}
func TestQueryMoneyAnswersFromTheFact(t *testing.T) {
api := &moneyAPI{fact: moneyFact(moneyNow(), `{"spent":[{"currency":"RUB","amount":1749.5}],"count":3}`)}
h := &reactiveHandler{api: api, now: moneyNow}
reply, ok := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я потратил в этом месяце?"},
})
if !ok {
t.Fatal("the money source must claim a money question")
}
if api.gotKey != zenmoney.KeySpentMonth || api.gotSrc != zenmoney.Source {
t.Errorf("read %q/%q, want the month key from the poller's source", api.gotKey, api.gotSrc)
}
if !strings.Contains(reply, "1749.5") {
t.Errorf("reply = %q, want the exact figure", reply)
}
if !strings.Contains(reply, "в этом месяце") {
t.Errorf("reply = %q, want the window named", reply)
}
}
func TestQueryMoneyPicksTodaysKey(t *testing.T) {
api := &moneyAPI{fact: moneyFact(moneyNow(), `{"spent":[{"currency":"RUB","amount":250}],"count":1}`)}
h := &reactiveHandler{api: api, now: moneyNow}
if _, ok := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я потратил сегодня?"},
}); !ok {
t.Fatal("expected the source to claim it")
}
if api.gotKey != zenmoney.KeySpentToday {
t.Errorf("key = %q, want today's", api.gotKey)
}
}
// The capability is off unless configured, and then there is no fact. She says
// so instead of letting the recall pass answer a money question from a note.
func TestQueryMoneySaysNotConnected(t *testing.T) {
h := &reactiveHandler{api: &moneyAPI{err: ipc.ErrNoFact}, now: moneyNow}
reply, ok := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я потратил?"},
})
if !ok {
t.Fatal("expected the source to claim it")
}
if !strings.Contains(reply, "не подключено") {
t.Errorf("reply = %q, want an honest 'not connected'", reply)
}
// No number of any kind in that answer.
for _, d := range []string{"0", "1", "2", "3", "4", "5", "6", "7", "8", "9"} {
if strings.Contains(reply, d) {
t.Errorf("reply %q contains a digit — nothing was read, so there is no figure", reply)
}
}
}
// A fact older than the staleness bound is dated rather than spoken as if it
// were current: the poller can be down, and last week's total presented as
// today's is a lie by omission.
func TestQueryMoneyDatesAStaleFact(t *testing.T) {
old := moneyNow().Add(-72 * time.Hour)
api := &moneyAPI{fact: moneyFact(old, `{"spent":[{"currency":"RUB","amount":100}],"count":1}`)}
h := &reactiveHandler{api: api, now: moneyNow}
reply, _ := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я потратил?"},
})
if !strings.Contains(reply, "данные от") {
t.Errorf("reply = %q, want the stale fact dated", reply)
}
}
func TestQueryMoneyPassesOtherQuestions(t *testing.T) {
api := &moneyAPI{}
h := &reactiveHandler{api: api, now: moneyNow}
for _, u := range []string{"какая погода?", "я потратил весь день на это", "какие у меня задачи?"} {
if _, ok := h.queryMoney(context.Background(), &queryTurn{dec: router.Decision{Utterance: u}}); ok {
t.Errorf("the money source claimed %q", u)
}
}
if api.callCnt != 0 {
t.Error("a non-money question must not read the money facts")
}
}
// Money must be answered before the recall sources, or a question about
// spending gets answered by the nearest note.
func TestQuerySourcesOrderMoneyBeforeRecall(t *testing.T) {
moneyAt, notesAt := -1, -1
for i, src := range querySources {
switch src.name {
case "money":
moneyAt = i
case "notes":
notesAt = i
}
}
if moneyAt < 0 || notesAt < 0 {
t.Fatalf("sources missing: money=%d notes=%d", moneyAt, notesAt)
}
if moneyAt > notesAt {
t.Errorf("money source at %d, after notes at %d", moneyAt, notesAt)
}
}
// The day window rolls over at midnight and the poller writes nothing until the
// first spend of the new day, so the last money_today fact is fresh by ts and
// covers yesterday. No staleness check can catch that.
func TestQueryMoneyRefusesYesterdaysDayTotal(t *testing.T) {
yesterday, _ := zenmoney.DayWindow(moneyNow().AddDate(0, 0, -1))
sum := zenmoney.Summary{From: yesterday, Spent: []zenmoney.Money{{Currency: "RUB", Amount: 1749.5}}, Count: 3}
val, ok := sum.Value(moneyNow().AddDate(0, 0, -1).Add(2 * time.Hour))
if !ok {
t.Fatal("want a fact value")
}
api := &moneyAPI{fact: ipc.Fact{
Kind: "env", Key: zenmoney.KeySpentToday, Value: val,
Source: zenmoney.Source, Ts: moneyNow().Add(-11 * time.Hour),
}}
h := &reactiveHandler{api: api, now: moneyNow}
reply, claimed := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я потратил сегодня?"},
})
if !claimed {
t.Fatal("expected the source to claim it")
}
if strings.Contains(reply, "1749.5") {
t.Errorf("reply = %q — that is yesterday's spending spoken as today's", reply)
}
}
// Ts advances only when the number moves, so a quiet month used to be reported
// as stale while being current. The read stamp inside the value is what the
// staleness check means.
func TestQueryMoneyMeasuresStalenessFromTheRead(t *testing.T) {
from, _ := zenmoney.MonthWindow(moneyNow())
sum := zenmoney.Summary{From: from, Spent: []zenmoney.Money{{Currency: "RUB", Amount: 100}}, Count: 1}
val, _ := sum.Value(moneyNow().Add(-time.Hour))
// The fact itself last CHANGED three days ago: nothing was spent since.
api := &moneyAPI{fact: ipc.Fact{
Kind: "env", Key: zenmoney.KeySpentMonth, Value: val,
Source: zenmoney.Source, Ts: moneyNow().Add(-72 * time.Hour),
}}
h := &reactiveHandler{api: api, now: moneyNow}
reply, _ := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я потратил в этом месяце?"},
})
if strings.Contains(reply, "данные от") {
t.Errorf("reply = %q — the figure was read an hour ago and is current", reply)
}
}
// Two windows are stored and no others. Answering "вчера" with the
// month-to-date total answers a different question with a real number.
func TestQueryMoneyRefusesWindowsItDoesNotKeep(t *testing.T) {
api := &moneyAPI{}
h := &reactiveHandler{api: api, now: moneyNow}
reply, ok := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я потратил вчера?"},
})
if !ok {
t.Fatal("a money question must be claimed, not passed to recall")
}
if !strings.Contains(reply, "только") {
t.Errorf("reply = %q, want her to say which windows she keeps", reply)
}
if api.callCnt != 0 {
t.Error("a window she does not keep must not read a fact")
}
}
// "сколько я заработал" reads the same fact and must lead with the income.
func TestQueryMoneyLeadsWithIncomeWhenAsked(t *testing.T) {
from, _ := zenmoney.MonthWindow(moneyNow())
sum := zenmoney.Summary{
From: from,
Spent: []zenmoney.Money{{Currency: "RUB", Amount: 100}},
Earned: []zenmoney.Money{{Currency: "RUB", Amount: 3000}},
Count: 2,
}
val, _ := sum.Value(moneyNow())
api := &moneyAPI{fact: ipc.Fact{
Kind: "env", Key: zenmoney.KeySpentMonth, Value: val,
Source: zenmoney.Source, Ts: moneyNow(),
}}
h := &reactiveHandler{api: api, now: moneyNow}
reply, _ := h.queryMoney(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "сколько я заработал в этом месяце?"},
})
if strings.Index(reply, "3000") > strings.Index(reply, "100") {
t.Errorf("reply = %q, want the income he asked about first", reply)
}
}
-69
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@@ -1,69 +0,0 @@
package main
import (
"context"
"log"
"strconv"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
)
// nothingToCorrectReply — what she says to a correction that points at
// nothing. Filing it would put a sentence in his memory that reads as a fact.
const nothingToCorrectReply = "не поняла, что поправить. скажи целиком, и я запишу."
// actionNote handles router.IntentNote: embed the note, persist it, and
// index it for recall.
//
// The stored body is dec.Utterance and nothing else (V-576). It is not
// Slots.Text, not phraser output and not any other model string: a note is
// durable, the embedder indexes it, and it comes back later as recall in his
// own words. Phrasing belongs in the spoken confirmation.
func (h *reactiveHandler) actionNote(ctx context.Context, dec router.Decision) string {
// A correction with no referent. Everything that could own one has already
// run by here: clarify, confirm and repair are all resolved before routing,
// so a fragment reaching the note path has nothing behind it (V-576).
if correctionFragment(dec.Utterance) {
return nothingToCorrectReply
}
// An utterance that explicitly files a task is work, not recall, and
// belongs in the task store (Vikunja #130). Checked before the embedding
// is paid for. Everything else is a note, exactly as before.
if reply, ok := h.captureTaskFromNote(ctx, dec); ok {
return reply
}
// A standing list is neither work nor recall (Vikunja #453). Checked here
// for the same reason and at the same cost: before the embedding is paid
// for, and it passes the turn straight back when no marker matches.
if reply, ok := h.captureListFromNote(ctx, dec); ok {
return reply
}
// embed the note text with the same model the classifier uses, persist
// via CoreAPI (source=tap:voice). Semantic recall lives in `notes`, not
// facts — no predicate reads it (spec's two-memory split).
vec, err := router.EmbedPassage(ctx, h.recall.embedder, dec.Utterance)
if err != nil {
log.Printf("voice: embed note: %v", err)
return phraser.Ack(phraser.FailNote, nil)
}
noteTs := h.now()
noteID, err := h.api.WriteNote(ctx, noteTs, dec.Utterance, vec, "tap:voice")
if err != nil {
log.Printf("voice: write note: %v", err)
return phraser.Ack(phraser.FailNote, nil)
}
// Insert into long-term memory (best-effort, must not fail the note write).
// text/ts in the meta make a Search hit self-describing (see bestRecall).
if h.recall.memStore != nil {
if err := h.recall.memStore.Insert(ctx, "note:"+strconv.FormatInt(noteID, 10), vec, map[string]string{
"source": "voice",
"type": "note",
"text": dec.Utterance,
"ts": strconv.FormatInt(noteTs.Unix(), 10),
}); err != nil {
log.Printf("voice: memory insert: %v", err)
}
}
return "" // replier phrases the "saved" reply
}
File diff suppressed because it is too large Load Diff
-116
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@@ -1,116 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
)
// contQueryAPI records which core call a continued query reached. DayPlan and
// LatestFact are here to be caught, not to be used: a continuation must never
// reach them, and the counters are how the test says so.
type contQueryAPI struct {
ipc.UnimplementedCoreAPI
from, to time.Time
events int
plans int
factLooks int
}
func (a *contQueryAPI) CalendarEvents(_ context.Context, from, to time.Time) ([]ipc.Fact, error) {
a.events++
a.from, a.to = from, to
return []ipc.Fact{{Key: "calendar", Value: "Планёрка @ 14:00", Confidence: 1.0, Ts: from.Add(14 * time.Hour)}}, nil
}
func (a *contQueryAPI) DayPlan(context.Context) (ipc.DayPlan, error) {
a.plans++
return ipc.DayPlan{Spoken: "план на сегодня"}, nil
}
func (a *contQueryAPI) LatestFact(_ context.Context, key string) (ipc.Fact, error) {
a.factLooks++
return ipc.Fact{Key: key, Value: "2л", Ts: contNow.Add(-time.Hour)}, nil
}
func contQueryHandler() (*reactiveHandler, *contQueryAPI) {
api := &contQueryAPI{}
return &reactiveHandler{api: api, now: func() time.Time { return contNow }}, api
}
// A continuation is a question about another day, so the one source that can
// read a day answers it — for the day the ellipsis named, not for today.
func TestContinuedQueryReachesTheCalendar(t *testing.T) {
h, api := contQueryHandler()
reply := h.actionQuery(context.Background(), router.Decision{
Intent: router.IntentQuery,
Utterance: "а завтра?",
Continued: true,
Slots: router.Slots{Text: "что у меня сегодня", Time: contNow.Add(24 * time.Hour), HasTime: true},
})
if api.events != 1 {
t.Fatalf("CalendarEvents called %d times, want 1", api.events)
}
if got, want := api.from.Format("2006-01-02"), "2026-08-02"; got != want {
t.Errorf("asked the calendar for %s, want %s", got, want)
}
if reply == "" {
t.Error("empty reply")
}
}
// The regression this gate exists for: every other source is date-blind, so
// letting one claim a continuation answers a question about tomorrow with
// today's data. queryFactByKey was the live case — HasKey plus HasTime, both
// set by the continuation, and it replies with a stored fact's own timestamp.
func TestContinuedQuerySkipsDateBlindSources(t *testing.T) {
h, api := contQueryHandler()
h.actionQuery(context.Background(), router.Decision{
Intent: router.IntentQuery,
Utterance: "а вчера?",
Continued: true,
Slots: router.Slots{
Key: "water", HasKey: true,
Text: "когда я пил воду",
Time: contNow.Add(-24 * time.Hour), HasTime: true,
},
})
if api.factLooks != 0 {
t.Errorf("fact-by-key claimed a continuation (%d lookups)", api.factLooks)
}
if api.plans != 0 {
t.Errorf("day-plan claimed a continuation (%d calls)", api.plans)
}
}
// Nothing date-aware claimed it: say that, rather than "не знаю", which reads
// as "no data for that day" when she never looked.
func TestContinuedQueryWithNoDateAwareAnswerSaysSo(t *testing.T) {
h, _ := contQueryHandler()
// No parseable day in the utterance, so even the calendar passes.
reply := h.actionQuery(context.Background(), router.Decision{
Intent: router.IntentQuery,
Utterance: "а?",
Continued: true,
Slots: router.Slots{Text: "какая погода", HasTime: true},
})
if reply == "не знаю." || !strings.Contains(reply, "спроси целиком") {
t.Fatalf("reply = %q, want the honest continuation refusal", reply)
}
}
// An ordinary query is untouched by the gate — every source still runs.
func TestOrdinaryQueryStillReachesEverySource(t *testing.T) {
h, api := contQueryHandler()
h.actionQuery(context.Background(), router.Decision{
Intent: router.IntentQuery,
Utterance: "какие планы на сегодня?",
})
if api.plans != 1 {
t.Fatalf("day-plan called %d times on an ordinary query, want 1", api.plans)
}
}
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package main
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
)
func TestIsPersonalQuery(t *testing.T) {
for _, s := range []string{
"во сколько у меня встреча",
"что у меня сегодня",
"когда мой следующий отпуск",
"где моя книга",
"сколько моих задач висит",
"when is my meeting",
"do i have anything today",
"did i take my vitamins",
// Speech, but only the forms possession already covers ("did i").
// The verb forms the floor cannot see are the seeds' job, scored in
// TestONNXPersonalBoundary.
"what did i say about backups",
} {
if !isPersonalQuery(s) {
t.Errorf("isPersonalQuery(%q) = false, want true", s)
}
}
for _, s := range []string{
// First person without possession. These are questions about the
// world that merely mention the asker, and refusing them would be the
// opposite mistake.
"как мне сварить борщ",
"что я могу посмотреть вечером",
"почему небо синее",
"столица франции",
"how do i boil an egg",
// The floor is possession-only by design: a speech verb it cannot see
// passes here and is caught by the seeds instead.
"что я говорил про бэкапы?",
"как я говорил, почему небо синее",
"",
} {
if isPersonalQuery(s) {
t.Errorf("isPersonalQuery(%q) = true, want false", s)
}
}
}
// kiwixTrapAPI stands in for the world. Nothing below the personal boundary
// should be consulted for a question about him, so the test asserts on the
// reply rather than on a call: reaching Kiwix or general knowledge produces a
// phrased answer, and refusing produces the honest one.
func personalHandler() *reactiveHandler {
return &reactiveHandler{
api: ipc.UnimplementedCoreAPI{},
now: func() time.Time { return contNow },
// No phraser and no kiwix wiring: if the walk gets past the personal
// source it reaches queryGeneral, which returns "не знаю." with a nil
// phraser — a different string from the one this guard produces, so
// the two cases stay distinguishable.
}
}
// The regression: "во сколько у меня встреча" reached Kiwix, Wikipedia matched
// an article on the 2015 CPISRA World Games, and the phraser reported it back
// as his meeting. Seen on the deployed daemon, 01-08-2026.
func TestPersonalQuestionIsNotSentToTheWorld(t *testing.T) {
h := personalHandler()
reply, ok := h.queryPersonal(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "во сколько у меня встреча"},
})
if !ok {
t.Fatal("queryPersonal passed on a question about him")
}
if reply == "" {
t.Fatal("empty reply")
}
}
func TestWorldQuestionsPassThroughTheBoundary(t *testing.T) {
h := personalHandler()
for _, u := range []string{"почему небо синее", "столица франции"} {
if _, ok := h.queryPersonal(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: u},
}); ok {
t.Errorf("queryPersonal claimed %q, want it to pass to the encyclopedia", u)
}
}
}
// The boundary must sit above kiwix and general-knowledge and below every
// source that reads his own data. Asserted on the table itself: an ordering
// bug here is silent, because both arrangements answer, just from the wrong
// place.
func TestPersonalBoundarySitsBetweenHisDataAndTheWorld(t *testing.T) {
idx := map[string]int{}
for i, s := range querySources {
idx[s.name] = i
}
boundary, ok := idx["personal"]
if !ok {
t.Fatal("no personal source in the chain")
}
for _, his := range []string{"fact-by-key", "day-plan", "tasks", "calendar", "memory", "notes"} {
if i, ok := idx[his]; !ok || i > boundary {
t.Errorf("%q reads his own data and must run before the personal boundary", his)
}
}
for _, world := range []string{"search", "kiwix", "web", "general-knowledge"} {
if i, ok := idx[world]; !ok || i < boundary {
t.Errorf("%q reads the world and must run after the personal boundary", world)
}
}
}
-105
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package main
import (
"context"
"net/http"
"net/http/httptest"
"net/url"
"strings"
"testing"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/websearch"
)
func searchHandler(t *testing.T, body string, status int) (*reactiveHandler, *string) {
t.Helper()
var seen string
srv := httptest.NewServer(http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
seen = r.URL.RawQuery
if status != http.StatusOK {
http.Error(w, "no", status)
return
}
w.Write([]byte(body))
}))
t.Cleanup(srv.Close)
return &reactiveHandler{
// No phraser: querySearch then reads back the best evidence, which is
// what makes the claim visible without a llama-server in the test.
search: &searchWiring{client: websearch.New(srv.URL, websearch.Options{}), max: 3, runes: 1500},
}, &seen
}
const searchBody = `{"answers":["Небо голубое из-за рэлеевского рассеяния."],
"results":[{"title":"Рэлеевское рассеяние","url":"https://ru.wikipedia.org/x","content":"Рассеяние света."}]}`
func TestQuerySearchClaimsAndReadsBack(t *testing.T) {
h, _ := searchHandler(t, searchBody, http.StatusOK)
reply, ok := h.querySearch(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "почему небо голубое"},
})
if !ok {
t.Fatal("querySearch passed on a search with hits")
}
if !strings.Contains(reply, "рэлеевского рассеяния") {
t.Fatalf("reply = %q", reply)
}
}
// No rewriter in front of this source: SearXNG ranks by meaning, and reducing
// the question to English keywords would throw away the language he asked in.
func TestQuerySearchSendsTheQuestionVerbatim(t *testing.T) {
h, seen := searchHandler(t, searchBody, http.StatusOK)
h.querySearch(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "почему небо голубое"},
})
if !strings.Contains(*seen, "q="+url.QueryEscape("почему небо голубое")) {
t.Fatalf("query string = %q", *seen)
}
}
// The whole reason the ordering is safe: an unreachable or empty instance
// passes the turn to Kiwix instead of claiming it with an apology.
func TestQuerySearchFallsThroughWhenItFails(t *testing.T) {
for _, tc := range []struct {
name string
body string
status int
}{
{"http error", "", http.StatusForbidden},
{"no hits", `{"answers":[],"results":[]}`, http.StatusOK},
} {
t.Run(tc.name, func(t *testing.T) {
h, _ := searchHandler(t, tc.body, tc.status)
if _, ok := h.querySearch(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "почему небо голубое"},
}); ok {
t.Fatal("querySearch claimed the turn; Kiwix never got its fallback")
}
})
}
}
// Off unless configured, and silent about it: he never asked for a capability
// he did not enable.
func TestQuerySearchOffWithoutConfig(t *testing.T) {
h := &reactiveHandler{}
if _, ok := h.querySearch(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "почему небо голубое"},
}); ok {
t.Fatal("querySearch claimed a turn with no search block")
}
}
// The owner's ruling of 2026-08-02: the live search asks first, the ZIM is the
// fallback for a box with no line out.
func TestSearchRunsBeforeKiwix(t *testing.T) {
idx := map[string]int{}
for i, s := range querySources {
idx[s.name] = i
}
if idx["search"] > idx["kiwix"] {
t.Fatalf("search at %d, kiwix at %d: the ZIM is the fallback, not the first read", idx["search"], idx["kiwix"])
}
}
-62
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@@ -1,62 +0,0 @@
package main
import (
"context"
"fmt"
"log"
"time"
"github.com/kami/maven/internal/lexicon"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
)
// actionReminder handles router.IntentReminder: parse the time when stage-0
// skipped the extractor, then create the reminder.
func (h *reactiveHandler) actionReminder(ctx context.Context, dec router.Decision) string {
if !dec.Slots.HasTime {
// Stage-0 (reminder-wakeword grammar) skips the extractor, so the
// time wasn't parsed. Run the parser as a fallback.
if dec.Stage == 0 && h.timeParser != nil {
t, ok, err := h.timeParser.Parse(ctx, dec.Utterance, h.now())
// Same gate as the extractor (V-577, V-579, V-610): a request whose
// hour was not spoken, or was spoken and not read, gets asked about
// and is never completed from the clock.
if err == nil && ok && router.ResolvedTheHour(dec.Utterance, t) {
dec.Slots.Time = t
dec.Slots.HasTime = true
}
}
if !dec.Slots.HasTime {
return phraser.Ack(phraser.FailReminderTime, nil)
}
}
// The body is what she says at the hour, so the marker and the time come
// out of it: the fire time is already a column, and "напомни" is an
// instruction that has been carried out (Vikunja #469).
payload := `{"text":` + jsonString(reminderBody(dec.Utterance, dec.Slots.Text)) + `}`
if _, err := h.api.CreateReminder(ctx, dec.Slots.Time, payload, ""); err != nil {
log.Printf("voice: create reminder: %v", err)
return phraser.Ack(phraser.FailReminder, nil)
}
// Phrased from the row, never from the utterance (Vikunja #507). The
// replier only ever saw Slots.Text, so it named whatever hour the sentence
// contained — including one the parser had rejected or read differently.
// A confirmation naming an hour no row holds is worse than a clarify,
// because he stops thinking about it.
return reminderConfirm(dec.Slots.Time, h.now())
}
// reminderConfirm — the confirmation for a reminder that exists, naming the
// stored fire time. Deterministic on purpose: the one sentence that must match
// a database row is not one to hand to a 1.7B.
func reminderConfirm(fire, now time.Time) string {
when := dayPrefix(now, fire)
if when == "это" {
// Further out than the day words reach — say the date instead of a
// word that would be wrong.
date := fmt.Sprintf("%d %s", fire.Day(), lexicon.MonthGenitive(int(fire.Month())))
return "хорошо, напомню " + date + " в " + fire.Format("15:04") + "."
}
return "хорошо, напомню " + when + " в " + fire.Format("15:04") + "."
}
-189
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@@ -1,189 +0,0 @@
package main
import (
"context"
"log"
"strings"
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
"github.com/kami/maven/internal/tasks"
)
// Task capture on the voice/chat path (Vikunja #130).
//
// Two halves, both deliberately small:
//
// - captureTaskFromNote runs at the top of actionNote. An utterance that
// explicitly files a task ("добавь в задачи купить молоко") goes to the task
// store instead of the note store. Anything without an explicit marker is
// still a note — see router.ParseTaskCapture for why "надо бы поспать" must
// not become a task.
// - queryTasks is a query source that reads the list back.
//
// Nothing here speaks unprompted. Tasks are answered when asked about; no tick
// rule reads the table.
// captureTaskFromNote claims the turn when the utterance explicitly files a
// task, returning the reply. ("", false) hands the turn back to the note path.
func (h *reactiveHandler) captureTaskFromNote(ctx context.Context, dec router.Decision) (string, bool) {
cap, ok := router.ParseTaskCapture(dec.Utterance)
if !ok {
return "", false
}
resp, err := h.api.CaptureTask(ctx, ipc.CaptureTaskReq{
Text: cap.Text,
Source: "tap:voice",
Status: store.TaskOpen, // he stated it himself — not a candidate
Weight: cap.Weight, // 0 unless he said "срочно" / "важно"
Ts: h.now(),
})
if err != nil {
log.Printf("voice: capture task: %v", err)
return phraser.Ack(phraser.FailTask, nil), true
}
if resp.Promoted {
// It was a candidate Maven derived from something she read, and he has
// now said it himself. Saying "уже в списке" here would be answering a
// confirmation with a shrug.
return phraser.Ack(phraser.AckTaskUrgent, map[string]string{"text": cap.Text}), true
}
if !resp.Created {
return phraser.Ack(phraser.AckTaskDuplicate, nil), true
}
return phraser.Ack(phraser.AckTask, map[string]string{"text": cap.Text}), true
}
// queryTasks — "какие у меня задачи?", "что мне нужно сделать?".
//
// Reads the live set and recites it in priority order (Vikunja #129). The order
// is computed by internal/tasks from what he told her — deadlines, the urgency
// he stated, how long a task has been sitting — never asked of the model. The
// rendering is the package's too, so the spoken list and the /tasks page can
// never disagree about what comes first.
func (h *reactiveHandler) queryTasks(ctx context.Context, t *queryTurn) (string, bool) {
if !router.IsTaskListQuery(t.dec.Utterance) {
return "", false
}
live, err := h.api.ListTasks(ctx, "live")
if err != nil {
log.Printf("voice: list tasks: %v", err)
return "не получилось посмотреть задачи.", true
}
ranked := tasks.Rank(taskItems(live), h.now())
// Bind what she is about to say, in the order she says it, so "второй"
// means the second task he heard (ordinal.go).
spoken := tasks.Spoken(ranked)
cands := make([]dialogue.Candidate, 0, len(spoken))
for _, r := range spoken {
cands = append(cands, dialogue.Candidate{Kind: "task", Ref: r.ID, Label: r.Text})
}
h.offerCandidates(ctx, cands)
reply := tasks.FormatRU(ranked)
// The counted shapes, after the list and only when there are any (V-512).
// They answer "what is going wrong with this list" without assessing any of
// it, and they are said here rather than announced: no tick rule reads them.
if stalls := tasks.StallsRU(tasks.Stalls(taskItems(live), h.now())); stalls != "" {
if !strings.HasSuffix(reply, ".") {
reply += "."
}
reply += " " + stalls
}
return reply, true
}
// resolveTaskStatus moves a task he named out loud (Vikunja #512).
//
// The position path already worked: resolveCandidate answers "первую сделал"
// against the list she just read. This is the other half — naming the task
// instead of its position, which reached no code at all before the stage-0 rule
// in internal/router/taskstatus.go filled the fn slot.
//
// Three answers besides the move, and none of them guesses. No match says so. A
// match on more than one asks which, because closing the wrong task is work he
// never finished being marked done. No task named asks which too, since the
// router claims the turn without the referent and the list lives here.
func (h *reactiveHandler) resolveTaskStatus(ctx context.Context, dec router.Decision) string {
live, err := h.api.ListTasks(ctx, "live")
if err != nil {
log.Printf("voice: task status: list: %v", err)
return "не получилось посмотреть задачи."
}
if dec.Slots.Text == "" {
return "какую задачу?"
}
match := matchTaskText(live, dec.Slots.Text)
switch len(match) {
case 0:
return "не нашла такой задачи."
case 1:
default:
return "у тебя несколько подходящих — какую именно?"
}
pick := match[0]
status := dec.Slots.Value
// A candidate is work Maven proposed and he never confirmed, and the store
// refuses candidate → done: the legal move is to open it first. Saying it is
// done IS the confirmation, so both writes happen rather than the turn
// naming a gap about a distinction he did not make.
if pick.Status == store.TaskCandidate && status == store.TaskDone {
if err := h.api.SetTaskStatus(ctx, pick.ID, store.TaskOpen, h.now(), string(sourceVoice)); err != nil {
log.Printf("voice: task status: promote %d: %v", pick.ID, err)
return "не получилось изменить задачу."
}
}
if err := h.api.SetTaskStatus(ctx, pick.ID, status, h.now(), string(sourceVoice)); err != nil {
log.Printf("voice: task status: %d → %s: %v", pick.ID, status, err)
return "не получилось изменить задачу."
}
log.Printf("voice: task %d (%q) → %s", pick.ID, pick.Text, status)
if status == store.TaskDropped {
return "убрала: " + pick.Text
}
return "закрыла: " + pick.Text
}
// matchTaskText finds the live tasks he could have meant.
//
// Normalised containment, either direction, over store.NormalizeTaskText — the
// same key capture dedupes on, so a task he can file twice is a task he can name
// twice. Either direction because he shortens what he said ("молоко" for
// "купить молоко") as often as he pads it.
//
// Deliberately not fuzzy. A ranked best guess would always return exactly one
// answer, and the one thing this must be able to say is that it is not sure.
func matchTaskText(live []ipc.Task, named string) []ipc.Task {
want := store.NormalizeTaskText(named)
if want == "" {
return nil
}
var out []ipc.Task
for _, t := range live {
have := store.NormalizeTaskText(t.Text)
if have == "" {
continue
}
if strings.Contains(have, want) || strings.Contains(want, have) {
out = append(out, t)
}
}
return out
}
// taskItems maps wire rows onto the ranker's input. Written here rather than in
// internal/tasks so the ranker stays a pure package with no ipc (and therefore
// no store, and therefore no cgo) dependency — the same posture as
// internal/morning and internal/memory.
func taskItems(ts []ipc.Task) []tasks.Item {
out := make([]tasks.Item, len(ts))
for i, t := range ts {
out[i] = tasks.Item{
ID: t.ID, Text: t.Text, Status: t.Status,
Created: t.CreatedTs, Due: t.Due, Weight: t.Weight,
}
}
return out
}
-342
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@@ -1,342 +0,0 @@
package main
import (
"context"
"errors"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
)
// taskAPI answers only the three task methods; every other call is
// unimplemented, which is the assertion that capture needs nothing else — in
// particular no embedder, so a filed task costs no model call.
type taskAPI struct {
ipc.UnimplementedCoreAPI
captured []ipc.CaptureTaskReq
created bool
promoted bool
capErr error
tasks []ipc.Task
listArg string
listErr error
moved []setStatusCall
moveErr error
}
func (a *taskAPI) CaptureTask(_ context.Context, req ipc.CaptureTaskReq) (ipc.CaptureTaskResp, error) {
a.captured = append(a.captured, req)
if a.capErr != nil {
return ipc.CaptureTaskResp{}, a.capErr
}
return ipc.CaptureTaskResp{ID: 1, Created: a.created, Promoted: a.promoted}, nil
}
func (a *taskAPI) ListTasks(_ context.Context, status string) ([]ipc.Task, error) {
a.listArg = status
return a.tasks, a.listErr
}
func taskNow() time.Time { return time.Date(2026, 8, 1, 9, 0, 0, 0, time.UTC) }
func taskHandler(api ipc.CoreAPI) *reactiveHandler {
return &reactiveHandler{api: api, now: taskNow}
}
func TestCaptureTaskFromNoteFilesTheTask(t *testing.T) {
api := &taskAPI{created: true}
h := taskHandler(api)
reply, ok := h.captureTaskFromNote(context.Background(), router.Decision{
Intent: router.IntentNote, Utterance: "добавь в задачи купить молоко",
})
if !ok {
t.Fatal("an explicit capture must claim the turn")
}
if len(api.captured) != 1 {
t.Fatalf("captured %d, want 1", len(api.captured))
}
got := api.captured[0]
if got.Text != "купить молоко" {
t.Errorf("text = %q, want the marker stripped", got.Text)
}
if got.Source != "tap:voice" {
t.Errorf("source = %q, want tap:voice", got.Source)
}
if got.Status != "open" {
t.Errorf("status = %q — work he stated is open, never a candidate", got.Status)
}
if !got.Ts.Equal(taskNow()) {
t.Errorf("ts = %v, want the handler clock", got.Ts)
}
if !strings.Contains(reply, "купить молоко") {
t.Errorf("reply = %q, want it to read the task back", reply)
}
}
// A note is still a note: capture only fires on an explicit marker, so
// ordinary recall is untouched.
func TestCaptureTaskFromNotePassesOrdinaryNotes(t *testing.T) {
api := &taskAPI{}
h := taskHandler(api)
for _, u := range []string{"надо бы поспать", "мне понравился этот фильм", "запиши что я пил воду"} {
if _, ok := h.captureTaskFromNote(context.Background(), router.Decision{Utterance: u}); ok {
t.Errorf("%q was captured as a task", u)
}
}
if len(api.captured) != 0 {
t.Errorf("captured %d requests, want none", len(api.captured))
}
}
func TestCaptureTaskFromNoteSaysAlreadyOnTheList(t *testing.T) {
h := taskHandler(&taskAPI{created: false})
reply, ok := h.captureTaskFromNote(context.Background(), router.Decision{Utterance: "добавь в задачи купить молоко"})
if !ok {
t.Fatal("expected the capture path to claim it")
}
if !strings.Contains(reply, "уже") {
t.Errorf("reply = %q — a deduped capture must not claim it saved something new", reply)
}
}
func TestCaptureTaskFromNoteReportsStoreFailure(t *testing.T) {
h := taskHandler(&taskAPI{capErr: errors.New("db is on fire")})
reply, ok := h.captureTaskFromNote(context.Background(), router.Decision{Utterance: "добавь задачу починить кран"})
if !ok {
t.Fatal("a failed capture still claims the turn — the note path must not double-write")
}
if !phraser.IsAck(phraser.FailTask, nil, reply) {
t.Errorf("reply = %q, want an honest failure", reply)
}
}
func TestQueryTasksRecitesTheLiveList(t *testing.T) {
api := &taskAPI{tasks: []ipc.Task{
{ID: 1, Text: "купить молоко", Status: "open"},
{ID: 2, Text: "продлить страховку", Status: "candidate"},
}}
h := taskHandler(api)
reply, ok := h.queryTasks(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "какие у меня задачи?"},
})
if !ok {
t.Fatal("the task source must claim a task-list question")
}
if api.listArg != "live" {
t.Errorf("ListTasks(%q), want \"live\" — a resolved task is not outstanding work", api.listArg)
}
if !strings.Contains(reply, "купить молоко") || !strings.Contains(reply, "продлить страховку") {
t.Errorf("reply = %q, want both tasks", reply)
}
// The candidate must be named as unconfirmed, not recited as his work.
openIdx := strings.Index(reply, "купить молоко")
candIdx := strings.Index(reply, "продлить страховку")
if !(openIdx < candIdx) {
t.Errorf("reply = %q, want confirmed work before candidates", reply)
}
if !strings.Contains(reply, "не подтверждал") {
t.Errorf("reply = %q, want the candidate flagged as unconfirmed", reply)
}
}
// The stated urgency rides through capture as a weight, so the ranker can use
// it later (Vikunja #129). "срочно" is not part of the task text.
func TestCaptureTaskCarriesStatedUrgency(t *testing.T) {
api := &taskAPI{created: true}
h := taskHandler(api)
if _, ok := h.captureTaskFromNote(context.Background(), router.Decision{
Utterance: "добавь в задачи срочно оплатить интернет",
}); !ok {
t.Fatal("expected a capture")
}
got := api.captured[0]
if got.Text != "оплатить интернет" {
t.Errorf("text = %q, want the urgency word out of the task", got.Text)
}
if got.Weight == 0 {
t.Error("weight = 0 — he said срочно and it was dropped")
}
}
// The recital is ordered by the ranker, not by insertion: a deadline he named
// comes before undated work.
func TestQueryTasksRecitesInPriorityOrder(t *testing.T) {
due := taskNow()
api := &taskAPI{tasks: []ipc.Task{
{ID: 1, Text: "купить молоко", Status: "open", CreatedTs: taskNow()},
{ID: 2, Text: "оплатить интернет", Status: "open", CreatedTs: taskNow(), Due: &due},
}}
h := taskHandler(api)
reply, _ := h.queryTasks(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "какие у меня задачи?"},
})
if strings.Index(reply, "оплатить интернет") > strings.Index(reply, "купить молоко") {
t.Errorf("reply = %q, want the dated task first", reply)
}
if !strings.Contains(reply, "сегодня") {
t.Errorf("reply = %q, want the reason named", reply)
}
}
func TestQueryTasksEmptyList(t *testing.T) {
h := taskHandler(&taskAPI{})
reply, ok := h.queryTasks(context.Background(), &queryTurn{
dec: router.Decision{Utterance: "что мне нужно сделать?"},
})
if !ok {
t.Fatal("expected the task source to claim it")
}
if reply != "задач нет." {
t.Errorf("reply = %q", reply)
}
}
func TestQueryTasksPassesOtherQuestions(t *testing.T) {
api := &taskAPI{}
h := taskHandler(api)
for _, u := range []string{"как дела?", "какая погода в москве?", "что у меня сегодня?"} {
if _, ok := h.queryTasks(context.Background(), &queryTurn{dec: router.Decision{Utterance: u}}); ok {
t.Errorf("the task source claimed %q", u)
}
}
if api.listArg != "" {
t.Error("a non-task question must not read the task list")
}
}
// The chain must reach the task source before the recall sources, or "что мне
// нужно сделать?" gets answered by whatever note is nearest.
func TestQuerySourcesOrderTasksBeforeRecall(t *testing.T) {
var tasksAt, notesAt = -1, -1
for i, src := range querySources {
switch src.name {
case "tasks":
tasksAt = i
case "notes":
notesAt = i
}
}
if tasksAt < 0 || notesAt < 0 {
t.Fatalf("sources missing: tasks=%d notes=%d", tasksAt, notesAt)
}
if tasksAt > notesAt {
t.Errorf("tasks source at %d, after notes at %d", tasksAt, notesAt)
}
}
// Saying a task out loud that Maven had only proposed is a confirmation. She
// used to answer "это уже в списке" and then read it back, in the same
// conversation, as something he had not confirmed.
func TestCaptureTaskFromNoteAcknowledgesAPromotion(t *testing.T) {
api := &taskAPI{promoted: true}
h := taskHandler(api)
reply, ok := h.captureTaskFromNote(context.Background(), router.Decision{
Intent: router.IntentNote, Utterance: "добавь в задачи продлить страховку",
})
if !ok {
t.Fatal("an explicit capture must claim the turn")
}
if strings.Contains(reply, "уже в списке") {
t.Errorf("reply = %q — he just confirmed it, that is not a duplicate", reply)
}
if !strings.Contains(reply, "продлить страховку") {
t.Errorf("reply = %q, want the task named back", reply)
}
// Persona: feminine, informal.
for _, bad := range []string{"рад ", "вы ", "ваш"} {
if strings.Contains(reply, bad) {
t.Errorf("reply %q contains %q", reply, bad)
}
}
}
// setStatusCall — one SetTaskStatus the arm made, in order, so a candidate he
// says is done can be shown to take both legal moves.
type setStatusCall struct {
id int64
status string
by string
}
func (a *taskAPI) SetTaskStatus(_ context.Context, id int64, status string, _ time.Time, by string) error {
a.moved = append(a.moved, setStatusCall{id: id, status: status, by: by})
return a.moveErr
}
func TestResolveTaskStatusMovesTheNamedTask(t *testing.T) {
api := &taskAPI{tasks: []ipc.Task{
{ID: 7, Text: "купить молоко", Status: "open"},
{ID: 8, Text: "оплатить интернет", Status: "open"},
}}
h := taskHandler(api)
reply := h.resolveTaskStatus(context.Background(), router.Decision{
Intent: router.IntentAct,
Slots: router.Slots{Fn: router.TaskStatusFn, HasFn: true, Value: "done", Text: "молоко"},
})
if api.listArg != "live" {
t.Errorf("listed %q, want live — a resolved task cannot be resolved again", api.listArg)
}
if len(api.moved) != 1 {
t.Fatalf("moved %d tasks, want 1: %+v", len(api.moved), api.moved)
}
if api.moved[0].id != 7 || api.moved[0].status != "done" {
t.Errorf("moved %+v, want id 7 → done", api.moved[0])
}
if !strings.Contains(reply, "купить молоко") {
t.Errorf("reply = %q, want the task named back", reply)
}
}
func TestResolveTaskStatusRefusesToGuess(t *testing.T) {
cases := []struct {
name string
tasks []ipc.Task
named string
want string
}{
{"no match", []ipc.Task{{ID: 7, Text: "купить молоко", Status: "open"}}, "позвонить маме", "не нашла"},
{"two matches", []ipc.Task{
{ID: 7, Text: "купить молоко", Status: "open"},
{ID: 8, Text: "купить молоко и хлеб", Status: "open"},
}, "купить молоко", "несколько"},
{"none named", []ipc.Task{{ID: 7, Text: "купить молоко", Status: "open"}}, "", "какую"},
}
for _, c := range cases {
t.Run(c.name, func(t *testing.T) {
api := &taskAPI{tasks: c.tasks}
h := taskHandler(api)
reply := h.resolveTaskStatus(context.Background(), router.Decision{
Slots: router.Slots{Fn: router.TaskStatusFn, HasFn: true, Value: "done", Text: c.named},
})
if len(api.moved) != 0 {
t.Errorf("moved %+v — closing the wrong task is the failure this arm exists to avoid", api.moved)
}
if !strings.Contains(reply, c.want) {
t.Errorf("reply = %q, want it to contain %q", reply, c.want)
}
})
}
}
func TestResolveTaskStatusOpensACandidateFirst(t *testing.T) {
// The store refuses candidate → done. Saying it is done is the confirmation
// the candidate was waiting for, so the arm makes both legal moves.
api := &taskAPI{tasks: []ipc.Task{{ID: 9, Text: "продлить домен", Status: "candidate"}}}
h := taskHandler(api)
h.resolveTaskStatus(context.Background(), router.Decision{
Slots: router.Slots{Fn: router.TaskStatusFn, HasFn: true, Value: "done", Text: "продлить домен"},
})
if len(api.moved) != 2 {
t.Fatalf("moved %+v, want open then done", api.moved)
}
if api.moved[0].status != "open" || api.moved[1].status != "done" {
t.Errorf("moved %+v, want open then done", api.moved)
}
}
-186
View File
@@ -1,186 +0,0 @@
package main
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/delivery"
"github.com/kami/maven/internal/loop"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/store"
)
// The sev4 repeat path had no off switch (Vikunja #535): it re-sent every
// pending telegram nudge every repeat_interval, and nothing in the tree could
// ever mark one acked. None of what follows can be reproduced by hand without
// sitting in front of the box for hours, so it is covered here or nowhere.
// seedDown writes one kuma monitor fact at ts. value is "down" or "up".
func seedDown(t *testing.T, st *store.Store, ctx context.Context, value string, ts time.Time) {
t.Helper()
if _, err := st.SetValue(ctx, store.KindSelf, "service_down:db", "poll:uptimekuma", value, ts); err != nil {
t.Fatalf("seed service_down:db=%s: %v", value, err)
}
}
// newAlarmTickLoop — like newTestTickLoop but with the ack tracker wired, which
// the shared helper leaves nil. Without it RepeatUnacked returns early and the
// repeat these tests are about never happens. The daemon wires it (main.go).
func newAlarmTickLoop(t *testing.T, st *store.Store, sink delivery.Sink) *tickLoop {
t.Helper()
rules := loop.DefaultRules()
g := loop.NewGatherer(st, rules)
d := delivery.NewDispatcher(delivery.Config{
Voice: sink, Ntfy: sink, Telegram: sink,
Ack: st, Nudges: st, Reminders: st,
})
return newTickLoop(st, g, d, phraser.NewStub(), rules, time.Second, 5*time.Minute, 0, nil, nil, nil, nil)
}
// telegramSends counts sends that went out on the telegram reach.
func telegramSends(sink *fakeSink, rule string) int {
n := 0
for _, s := range sink.sends {
if s.RuleName == rule {
n++
}
}
return n
}
// outcomes returns the outcome of every nudge row for a rule, newest first.
func outcomes(t *testing.T, st *store.Store, ctx context.Context, rule string) []string {
t.Helper()
rows, err := st.RecentNudges(ctx, 50)
if err != nil {
t.Fatalf("recent nudges: %v", err)
}
var out []string
for _, n := range rows {
if n.Rule == rule {
out = append(out, n.Outcome)
}
}
return out
}
func TestAlarmStopsWhenTheServiceComesBackUp(t *testing.T) {
// The condition clearing is the ending that should happen. StillTrue reads
// the same DownServices helper the phraser reads, so the repeat stops on
// exactly the monitor he was told about.
st := newTestStore(t)
ctx := context.Background()
now := refNow()
seedDown(t, st, ctx, "down", now.Add(-5*time.Minute))
sink := &fakeSink{}
tl := newAlarmTickLoop(t, st, sink)
tl.tick(ctx, now)
if telegramSends(sink, "service_down") == 0 {
t.Fatal("the alarm never went out; the rest of this test proves nothing")
}
seedDown(t, st, ctx, "up", now.Add(time.Minute))
sink.sends = nil
tl.tick(ctx, now.Add(6*time.Minute)) // past repeat_interval
if n := telegramSends(sink, "service_down"); n != 0 {
t.Fatalf("repeated %d time(s) after the service came back up; want 0", n)
}
for _, o := range outcomes(t, st, ctx, "service_down") {
if o != store.NudgeResolved {
t.Fatalf("nudge outcome = %q, want %q", o, store.NudgeResolved)
}
}
}
func TestAlarmStopsAtTheAgeCapWhileStillDown(t *testing.T) {
// Still down, still un-acked, and nobody has answered in two hours. That is
// not one more repeat away from being answered.
st := newTestStore(t)
ctx := context.Background()
now := refNow()
seedDown(t, st, ctx, "down", now.Add(-5*time.Minute))
sink := &fakeSink{}
tl := newAlarmTickLoop(t, st, sink)
tl.tick(ctx, now)
sink.sends = nil
tl.tick(ctx, now.Add(6*time.Minute))
if n := telegramSends(sink, "service_down"); n == 0 {
t.Fatal("no repeat inside the cap; the cap is not what stopped it later")
}
sink.sends = nil
tl.tick(ctx, now.Add(maxAlarmAge+time.Minute))
if n := telegramSends(sink, "service_down"); n != 0 {
t.Fatalf("repeated %d time(s) past the %s cap; want 0", n, maxAlarmAge)
}
// Ignored, not resolved: nothing says the service got better.
for _, o := range outcomes(t, st, ctx, "service_down") {
if o != store.NudgeIgnored {
t.Fatalf("nudge outcome = %q, want %q", o, store.NudgeIgnored)
}
}
}
func TestAFlapRaisesAFreshAlarmRatherThanReviveTheClosedOne(t *testing.T) {
// Down, up, down again. Closing the first run must not make the second run
// unreportable, and must not silently reopen the closed rows either.
st := newTestStore(t)
ctx := context.Background()
now := refNow()
seedDown(t, st, ctx, "down", now.Add(-5*time.Minute))
sink := &fakeSink{}
tl := newAlarmTickLoop(t, st, sink)
tl.tick(ctx, now)
first := len(outcomes(t, st, ctx, "service_down"))
seedDown(t, st, ctx, "up", now.Add(time.Minute))
tl.tick(ctx, now.Add(2*time.Minute))
if got := outcomes(t, st, ctx, "service_down"); len(got) != first {
t.Fatalf("closing the run changed the row count: %d → %d", first, len(got))
}
seedDown(t, st, ctx, "down", now.Add(25*time.Minute))
sink.sends = nil
tl.tick(ctx, now.Add(31*time.Minute))
if n := telegramSends(sink, "service_down"); n == 0 {
t.Fatal("the second outage said nothing; the first alarm's ending swallowed it")
}
got := outcomes(t, st, ctx, "service_down")
if len(got) <= first {
t.Fatalf("no new nudge row for the second outage (%d rows, was %d)", len(got), first)
}
}
func TestARuleThatSaysNothingAboutItsConditionOnlyStopsOnAge(t *testing.T) {
// StillTrue == nil means "I cannot tell you", never "it cleared". A rule
// that says nothing must keep its alarm until the age cap, or a rule author
// silences their own alarm by omission.
st := newTestStore(t)
ctx := context.Background()
now := refNow()
sink := &fakeSink{}
tl := newAlarmTickLoop(t, st, sink)
tl.rules = []loop.Rule{{Name: "mute", Severity: loop.Sev4}} // no StillTrue
if _, err := st.RecordNudge(ctx, "mute", string(delivery.ChannelTelegram), "still bad", now); err != nil {
t.Fatalf("record nudge: %v", err)
}
live := tl.stopFinishedAlarms(ctx, []string{"mute"}, loop.State{}, now.Add(time.Minute))
if len(live) != 1 {
t.Fatalf("a nil StillTrue was read as resolved: live = %v", live)
}
live = tl.stopFinishedAlarms(ctx, []string{"mute"}, loop.State{}, now.Add(maxAlarmAge+time.Minute))
if len(live) != 0 {
t.Fatalf("the age cap did not stop a rule with no StillTrue: live = %v", live)
}
}
-125
View File
@@ -1,125 +0,0 @@
package main
import (
"context"
"encoding/json"
"strings"
"testing"
)
// An empty attention list used to be answered "ничего не требует внимания"
// unconditionally, which is an all-clear Maven had no way to know was true
// (ECOSYSTEM-SPEC §2.6, Vikunja #540).
func TestAttentionEmptyWithHealthySourcesIsAllClear(t *testing.T) {
praxis := newFakePraxisWithSources(t, `[]`, `[{"source_id":"src_ntfy","health":"ok"}]`)
h := newPraxisTestHandler(t, praxis)
reply := h.handlePraxisAct(context.Background(), praxisActDec("list_attention"))
if !strings.Contains(reply, "ничего не требует внимания") {
t.Fatalf("healthy and quiet should be an all-clear, got %q", reply)
}
}
func TestAttentionEmptyWithAFailedSourceHedges(t *testing.T) {
praxis := newFakePraxisWithSources(t, `[]`, `[
{"source_id":"src_ntfy","health":"ok"},
{"source_id":"src_llamacpp","health":"failed"},
{"source_id":"src_imap","health":"stale"}
]`)
h := newPraxisTestHandler(t, praxis)
reply := h.handlePraxisAct(context.Background(), praxisActDec("list_attention"))
if strings.Contains(reply, "ничего не требует внимания") {
t.Fatalf("a failed source must not read as all-clear, got %q", reply)
}
for _, want := range []string{"src_llamacpp", "src_imap"} {
if !strings.Contains(reply, want) {
t.Errorf("reply names no %s: %q", want, reply)
}
}
if strings.Contains(reply, "src_ntfy") {
t.Errorf("the healthy source is named as a problem: %q", reply)
}
}
// A Praxis that polls nothing knows nothing, which is the state the box is in.
func TestAttentionEmptyWithNoSourcesHedges(t *testing.T) {
praxis := newFakePraxisWithSources(t, `[]`, `[]`)
h := newPraxisTestHandler(t, praxis)
reply := h.handlePraxisAct(context.Background(), praxisActDec("list_attention"))
if strings.Contains(reply, "ничего не требует внимания") {
t.Fatalf("a Praxis with no sources must not answer all-clear, got %q", reply)
}
if !strings.Contains(reply, "источник") {
t.Errorf("reply does not say why she cannot tell: %q", reply)
}
}
// The spec's own mechanism, which the deployed Praxis does not send yet: the
// envelope's degraded array is believed without a second call.
func TestAttentionDegradedEnvelopeIsReadWithoutASourcesCall(t *testing.T) {
praxis := newFakePraxisWithSources(t,
`{"items":[],"degraded":["src_metrics"]}`,
`[{"source_id":"src_ntfy","health":"ok"}]`)
h := newPraxisTestHandler(t, praxis)
reply := h.handlePraxisAct(context.Background(), praxisActDec("list_attention"))
if !strings.Contains(reply, "src_metrics") {
t.Fatalf("the envelope's degraded source is not named: %q", reply)
}
for _, r := range praxis.Requests() {
if r.Path == "/api/v1/sources" {
t.Error("sources was read even though the response carried degraded")
}
}
}
// A sources endpoint that errors is not evidence of a fault: the attention call
// itself succeeded, and hedging on it would make her permanently uncertain.
func TestAttentionKeepsAllClearWhenSourcesCannotBeRead(t *testing.T) {
praxis := newFakePraxisWithSources(t, `[]`, `[]`)
praxis.SetRouteFault("/api/v1/sources", 500)
h := newPraxisTestHandler(t, praxis)
reply := h.handlePraxisAct(context.Background(), praxisActDec("list_attention"))
if !strings.Contains(reply, "ничего не требует внимания") {
t.Fatalf("an unreadable sources list should leave the answer alone, got %q", reply)
}
}
// Both response shapes decode, because the spec says one and the box sends the
// other.
func TestPraxisAttentionDecodesBothShapes(t *testing.T) {
var bare praxisAttention
if err := json.Unmarshal([]byte(`[{"id":"item_1"}]`), &bare); err != nil {
t.Fatalf("bare array: %v", err)
}
if len(bare.Items) != 1 || len(bare.Degraded) != 0 {
t.Errorf("bare array decoded as %+v", bare)
}
var env praxisAttention
if err := json.Unmarshal([]byte(`{"items":[{"id":"item_2"}],"degraded":["src_a"]}`), &env); err != nil {
t.Fatalf("envelope: %v", err)
}
if len(env.Items) != 1 || len(env.Degraded) != 1 || env.Degraded[0] != "src_a" {
t.Errorf("envelope decoded as %+v", env)
}
}
// A source that reports no health at all counts as healthy. A Praxis that never
// fills the field would otherwise make every quiet turn a hedge.
func TestUnhealthySourcesTreatsAnAbsentHealthFieldAsHealthy(t *testing.T) {
praxis := newFakePraxisWithSources(t, `[]`, `[{"source_id":"src_a"},{"id":"src_b","health":"stale"}]`)
bad, total, err := newPraxisClient(praxis.URL).UnhealthySources(context.Background())
if err != nil {
t.Fatalf("UnhealthySources: %v", err)
}
if total != 2 {
t.Errorf("total = %d, want 2", total)
}
if len(bad) != 1 || bad[0] != "src_b" {
t.Errorf("bad = %v, want [src_b]", bad)
}
}
-71
View File
@@ -1,71 +0,0 @@
package main
import (
"context"
"strings"
"github.com/kami/maven/internal/router"
)
// attentionMarkers — the offline floor under the attention topic (topics.go).
// The seeds decide when the embedder is there; this answers when it is not, and
// it stays a substring list on purpose for the reason the other floors do: a
// narrow test made blind beats a broad guess made blind.
//
// "что нового" is deliberately absent: the feeds source claims it, and it
// still should — a question about news is a question about the feeds she
// reads. This list is about the operational state of his things.
var attentionMarkers = []string{
"внимани", "что требует", "что не так", "что важн", "что срочн",
"needs attention", "what needs looking",
}
// isAttentionQuery reports whether the utterance asks what needs looking at.
// Called through turnIsAbout, never directly.
func isAttentionQuery(u string) bool {
s := strings.ToLower(strings.TrimSpace(u))
if s == "" {
return false
}
for _, m := range attentionMarkers {
if strings.Contains(s, m) {
return true
}
}
return false
}
// queryAttention answers "что требует внимания?" from Praxis.
//
// The capability was already built and already degraded correctly, and no
// utterance could reach it (Vikunja #475). Its aliases live on the act
// dispatch, and the question routes to IntentQuery, so it fell through every
// source to the web search and came back with an encyclopedia article about
// the concept of attention — worse than silence, because it reads as an
// answer.
//
// Placed above the recall sources and well above the personal boundary: this
// is operational state about his things, and a notes pass would otherwise
// answer it from whatever he once wrote about a server. An unconfigured or
// absent Praxis falls through rather than claiming the turn, the same
// convention queryHome and queryNetwork follow. A Praxis that is configured
// and down does claim it, and says it cannot reach the service — that is the
// degradation the ecosystem contract asks for, and it comes from the same
// handler the act path uses.
func (h *reactiveHandler) queryAttention(ctx context.Context, t *queryTurn) (string, bool) {
if !h.turnIsAbout(ctx, t, topicAttend, isAttentionQuery) {
return "", false
}
if h.ecosystem == nil || h.ecosystem.praxis == nil {
return "", false
}
reply := h.handlePraxisAct(ctx, router.Decision{
Utterance: t.dec.Utterance,
Intent: router.IntentAct,
Slots: router.Slots{Fn: "list_attention", HasFn: true},
})
if reply == "" {
return "", false
}
return reply, true
}
-77
View File
@@ -1,77 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/router"
)
func TestIsAttentionQuery(t *testing.T) {
for _, tc := range []struct {
text string
want bool
}{
{"что требует внимания", true},
{"на что обратить внимание?", true},
{"что не так?", true},
{"что важного?", true},
// The feeds source owns this one, and should keep owning it.
{"что нового?", false},
{"какая погода?", false},
{"", false},
} {
if got := isAttentionQuery(tc.text); got != tc.want {
t.Errorf("isAttentionQuery(%q) = %v, want %v", tc.text, got, tc.want)
}
}
}
// TestAttentionQuestionReachesPraxis — the defect (Vikunja #475). The question
// routes to IntentQuery, and every source used to pass, so a web search about
// the concept of attention answered it.
func TestAttentionQuestionReachesPraxis(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(map[string]any{
"id": "item_1", "title": "disk almost full", "importance": 3.0,
}))
h := ecoHandler(t, nil, praxis, nil)
reply, ok := h.queryAttention(ctx, &queryTurn{dec: router.Decision{
Intent: router.IntentQuery, Utterance: "что требует внимания",
}})
if !ok {
t.Fatal("the attention question must be claimed before the world sources")
}
if !strings.Contains(reply, "disk almost full") {
t.Fatalf("reply = %q, want the praxis item", reply)
}
}
// A configured Praxis that is down claims the turn and says so. Falling
// through here would answer an outage with an encyclopedia article.
func TestAttentionQuestionSaysWhenPraxisIsDown(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
h := ecoHandler(t, nil, praxis, nil)
praxis.SetFault(503)
reply, ok := h.queryAttention(ctx, &queryTurn{dec: router.Decision{
Intent: router.IntentQuery, Utterance: "что требует внимания",
}})
if !ok || !strings.Contains(reply, "не могу") {
t.Fatalf("an outage must name the gap, got ok=%v reply=%q", ok, reply)
}
}
// No Praxis configured means no claim: the rest of the chain still runs.
func TestAttentionQuestionFallsThroughWithoutPraxis(t *testing.T) {
h, _ := newFactGateHandler(t, time.Now())
if _, ok := h.queryAttention(context.Background(), &queryTurn{dec: router.Decision{
Intent: router.IntentQuery, Utterance: "что требует внимания",
}}); ok {
t.Fatal("an unconfigured praxis must not claim the turn")
}
}
-120
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@@ -1,120 +0,0 @@
package main
import (
"context"
"errors"
"log"
"net"
"sync"
"time"
"github.com/kami/maven/internal/event"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/store"
)
// The two boot paths meet here. run() wires the daemon twice: once at boot
// when a key is in the environment, and once inside UnlockFn after a passkey
// assertion, minutes or days later. Listing the same wiring in both places is
// what let them drift — seven workers started untracked on the unlock path and
// two daemonAPI fields were never set there, silently, for as long as anyone
// had been cold-starting (V-639).
//
// So both paths call newDaemonAPI and startBackground and nothing else. A
// field or a worker added later reaches both paths or neither.
// bootDeps is everything the two constructors below read. It is filled from
// the same variables on both paths, by depsNow in run().
type bootDeps struct {
coreFor func() ipc.CoreAPI
tl *tickLoop
evBus *event.Bus
voiceW *voiceWiring
st *store.Store
factWorker *factEnrichmentWorker
evalWorker *memoryEvalWorker // nil ⇒ memory evaluation off (the default)
feedWkr *feedWorker // nil ⇒ no feed is read (the default)
crawlWkr *crawlWorker // nil ⇒ no page is watched (the default)
}
// newDaemonAPI builds the real CoreAPI, with every field set. The unlock path
// used to leave nexus and getMCPServers nil, so after a cold start
// ResolveEntity refused with a nexus block configured and /tools rendered
// "not configured" with an mcp block configured. Empty is a wrong answer
// there, not a degraded one.
func newDaemonAPI(d bootDeps) *daemonAPI {
api := &daemonAPI{
CoreAPI: d.coreFor(),
getTrace: d.tl.trace,
getMorningStatus: func(ctx context.Context) []ipc.MorningRoutineStatus { return d.tl.morningStatus(ctx, time.Now()) },
getDayPlan: func(ctx context.Context) ipc.DayPlan { return d.tl.dayPlan(ctx, time.Now()) },
getEvents: intakeEventsFn(d.evBus),
getDecisions: turnDecisionsFn(d.voiceW),
seedStore: seedStoreIfAllowed(d.st),
nexus: nexusOf(d.voiceW),
}
if d.voiceW != nil && d.voiceW.handler != nil {
api.chatFn = d.voiceW.handler.handleText
// And the reverse: the handler was wired with the bare store adapter,
// which cannot serve the day plan. See upgradeAPI.
d.voiceW.handler.upgradeAPI(api)
}
if d.voiceW != nil && d.voiceW.mcp != nil {
api.getMCPServers = d.voiceW.mcp.status
}
return api
}
// namedWorker is one long-running goroutine. The name exists so the set is
// assertable from a test and readable in a log; nothing dispatches on it.
type namedWorker struct {
name string
run func(ctx context.Context)
}
// backgroundWorkers lists what this deployment runs. It is pure — it starts
// nothing — so a test can compare the set the two paths would start without
// standing a daemon up.
func backgroundWorkers(d bootDeps) []namedWorker {
var ws []namedWorker
if d.voiceW != nil && d.voiceW.server != nil {
ws = append(ws, namedWorker{"voice", func(context.Context) {
if err := d.voiceW.server.Serve(); err != nil && !errors.Is(err, net.ErrClosed) {
log.Printf("voice serve: %v", err)
}
}})
}
ws = append(ws,
namedWorker{"tick", d.tl.run},
namedWorker{"fact-enrichment", d.factWorker.run},
)
if d.evalWorker != nil {
ws = append(ws, namedWorker{"memory-eval", d.evalWorker.run})
}
if d.feedWkr != nil {
ws = append(ws, namedWorker{"feed", d.feedWkr.run})
}
if d.crawlWkr != nil {
ws = append(ws, namedWorker{"crawl", d.crawlWkr.run})
}
if d.voiceW != nil && d.voiceW.mcp != nil {
ws = append(ws, namedWorker{"mcp", d.voiceW.mcp.run})
}
if d.voiceW != nil && d.voiceW.home != nil {
ws = append(ws, namedWorker{"home", d.voiceW.home.run})
}
return ws
}
// startBackground starts every worker through goWorker, so waitWorkers can
// wait for it at shutdown. A worker started as a bare `go func()` is the
// shutdown bug documented at the end of run(): run() never returns, the
// deferred Close never seals the database, and the ciphertext goes stale.
func startBackground(ctx context.Context, wg *sync.WaitGroup, d bootDeps) {
for _, w := range backgroundWorkers(d) {
goWorker(wg, func() { w.run(ctx) })
}
if d.voiceW != nil && d.voiceW.server != nil {
log.Printf("mavend: voice listening on %s", d.voiceW.server.Addr())
}
}
-96
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@@ -1,96 +0,0 @@
package main
import (
"reflect"
"testing"
"github.com/kami/maven/internal/decision"
"github.com/kami/maven/internal/event"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/store"
"github.com/kami/maven/internal/voice"
)
// fullDeps — a deployment with every optional piece present. Nothing here is
// run: newDaemonAPI takes method values and backgroundWorkers is pure, so
// zero-value wirings are enough to say what WOULD be started.
func fullDeps() bootDeps {
h := &reactiveHandler{
ecosystem: &ecosystemWiring{nexus: &nexusClient{}},
decisions: decision.NewRing(),
}
return bootDeps{
coreFor: func() ipc.CoreAPI { return ipc.UnimplementedCoreAPI{} },
tl: &tickLoop{},
evBus: event.NewBus(4),
st: &store.Store{},
factWorker: &factEnrichmentWorker{},
evalWorker: &memoryEvalWorker{},
feedWkr: &feedWorker{},
crawlWkr: &crawlWorker{},
voiceW: &voiceWiring{
server: &voice.Server{},
handler: h,
mcp: &mcpWiring{},
home: &homeWiring{},
},
}
}
// The unlock path used to build its own daemonAPI literal and leave nexus and
// getMCPServers nil (V-639). Both paths call newDaemonAPI now, so the drift
// that can still happen is a field added to the struct and not to the
// constructor. This catches that one, by name.
func TestNewDaemonAPISetsEveryField(t *testing.T) {
prev := allowSeedOnStart
allowSeedOnStart = true
defer func() { allowSeedOnStart = prev }()
api := newDaemonAPI(fullDeps())
v := reflect.ValueOf(*api)
for i := range v.NumField() {
if v.Field(i).IsZero() {
t.Errorf("newDaemonAPI left %s unset — a fully wired deployment must fill every field", v.Type().Field(i).Name)
}
}
}
// The handler is wired with the bare store adapter and cannot serve the day
// plan until upgradeAPI hands it the real one. The unlocked path did that and
// the unlock path did it too; keep it a property of the constructor.
func TestNewDaemonAPIUpgradesTheHandler(t *testing.T) {
d := fullDeps()
api := newDaemonAPI(d)
if d.voiceW.handler.api != ipc.CoreAPI(api) {
t.Fatal("newDaemonAPI did not hand the handler the API it built")
}
}
// Every worker the daemon runs goes through startBackground, so shutdown can
// wait for it. The unlock path used to start seven of these as bare
// `go func()` under a shadowed WaitGroup.
func TestBackgroundWorkersFullSet(t *testing.T) {
want := []string{"voice", "tick", "fact-enrichment", "memory-eval", "feed", "crawl", "mcp", "home"}
var got []string
for _, w := range backgroundWorkers(fullDeps()) {
got = append(got, w.name)
}
if !reflect.DeepEqual(got, want) {
t.Errorf("workers = %v, want %v", got, want)
}
}
// A default box configures none of the optional blocks. Two workers always run
// and the rest stay dark, rather than a nil run being scheduled.
func TestBackgroundWorkersFloor(t *testing.T) {
d := fullDeps()
d.evalWorker, d.feedWkr, d.crawlWkr, d.voiceW = nil, nil, nil, nil
want := []string{"tick", "fact-enrichment"}
var got []string
for _, w := range backgroundWorkers(d) {
got = append(got, w.name)
}
if !reflect.DeepEqual(got, want) {
t.Errorf("workers = %v, want %v", got, want)
}
}
-61
View File
@@ -1,61 +0,0 @@
package main
import (
"context"
"testing"
"github.com/kami/maven/internal/router"
)
// TestCalendarStepsAsideForTheWorld — the defect (Vikunja #552). Weather was
// one instance of a wider class, and V-474 fixed only that instance. Every one
// of these answered "на 05.08.2026 ничего нет" on the deployed daemon, and
// every one of them has an answer in search, which sits below the calendar.
func TestCalendarStepsAsideForTheWorld(t *testing.T) {
h, api := contQueryHandler()
for _, u := range []string{
"во сколько закат сегодня",
"какой сегодня курс доллара",
"какой сегодня праздник",
"что интересного произошло сегодня в мире",
} {
if reply, ok := h.queryCalendar(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: u},
}); ok {
t.Errorf("the calendar claimed %q with %q", u, reply)
}
}
if api.events != 0 {
t.Errorf("CalendarEvents called %d times for world questions, want 0", api.events)
}
}
// The other half of the same narrowing: a question about his own day still
// reaches the calendar, including the one that names no subject at all.
func TestCalendarStillAnswersHisDay(t *testing.T) {
for _, u := range []string{
"что у меня сегодня",
"во сколько у меня встреча сегодня",
"какие встречи завтра",
"что в календаре на завтра",
"что сегодня?",
} {
h, _ := contQueryHandler()
if _, ok := h.queryCalendar(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: u},
}); !ok {
t.Errorf("the calendar passed on %q", u)
}
}
}
// A continuation carries its subject in the turn before it, and the calendar
// is the only date-aware source, so the narrowing must not reach it.
func TestCalendarStillAnswersAContinuation(t *testing.T) {
h, _ := contQueryHandler()
if _, ok := h.queryCalendar(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "а завтра?", Continued: true},
}); !ok {
t.Error("the calendar passed on a continuation")
}
}
-364
View File
@@ -1,364 +0,0 @@
// mavend/capture.go — core's half of the meeting recorder (Vikunja #253,
// docs/plans/08-hearing.md).
//
// The split: a client that has a microphone (mavenclient, or a phone on the PWA)
// is told to start, streams frames over ipc.MethodCaptureAppend, and is told to
// stop. Core keeps the PCM, stores it as a WAV blob under the same media store
// and the same retention as images, transcribes it through the ONE STT Maven has
// (mavsttd's whisper.cpp, reused — not a second engine), and summarises the
// transcript on the resident model in windows that fit n_ctx 4096.
//
// # Off unless configured, twice over
//
// No `media` block ⇒ nowhere to keep audio ⇒ the four capture methods do not
// exist. No `capture` block with enabled ⇒ they still do not exist. On an
// unconfigured box there is no wire path that starts a recording, which is the
// only guarantee worth making about a capability like this one.
//
// # What this file refuses to do
//
// - Nothing listens. There is no VAD hook here, no wake-word branch, no
// "start when you hear a meeting". The plan document's keyword-triggered
// recorder is refused in internal/capture's package comment for the reason
// that applies here too: noticing a keyword requires listening, which is
// the behaviour this capability must not have.
// - No transcript note by default. The summary is written where he will read
// it; the verbatim record of what other people said takes a deliberate
// capture.save_transcript.
// - The transcript is never search input beyond this box, and the audio never
// leaves it at all.
package main
import (
"context"
"encoding/json"
"errors"
"fmt"
"log"
"strings"
"sync"
"time"
"github.com/kami/maven/internal/capture"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/llm"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
// captureSummaryTimeout — the budget for one summary, which is a map-reduce over
// the whole meeting: one model call per transcript window plus a reduce, each of
// which is seconds on this box. Forty windows is the configured ceiling, so the
// budget has to be minutes, not the 60s the reply path uses. It is spent on a
// background goroutine, never inside the capture_stop request: a client that
// asks Maven to stop recording gets the transcript back in seconds.
const captureSummaryTimeout = 20 * time.Minute
// summaryGrammar — GBNF pinning a summarisation call to one JSON object holding
// the summary and nothing else. Same reasoning as responseGrammar and memeval's
// evalGrammar: the resident model is a Thinking variant, and a summarisation
// prompt is exactly the shape that invites it to answer with its reasoning as
// plain text. Demanding JSON leaves the reasoning nowhere to go.
//
// The bound is 2000 characters, twice the phraser's, because a reduce step over
// a two-hour meeting is a paragraph and not a sentence. Newlines are escaped by
// the escape rule, so the bullet list the prompt asks for survives the wrapper.
const summaryGrammar = `
root ::= "{" ws "\"summary\"" ws ":" ws string ws "}"
string ::= "\"" ([^"\\] | "\\" ["\\/bfnrt]){0,2000} "\""
ws ::= [ \t\n]*
`
// llmCompleter adapts *llm.Client to capture.Completer. The pure package names
// the two strings it needs and stays free of the llm request struct; the client
// itself is the swap-aware one from llmClientFor, so a model swap re-points it.
//
// The JSON wrapper lives here, not in internal/capture: that package is
// text-in/text-out by design, and the map/reduce steps still see plain prose.
type llmCompleter struct {
c *llm.Client
maxTokens int
}
func (l llmCompleter) Complete(ctx context.Context, system, user string) (string, error) {
out, err := l.c.Complete(ctx, llm.Req{
System: system,
User: user,
Grammar: summaryGrammar,
MaxTokens: l.maxTokens,
})
if err != nil {
return "", err
}
return unwrapSummary(out), nil
}
// unwrapSummary takes the summary out of the JSON object the grammar produced.
// Anything that does not parse is returned as-is: an operator running without a
// grammar, or a llama-server too old to honour one, gets the plain text it used
// to get rather than an empty meeting summary.
func unwrapSummary(raw string) string {
s := phraser.StripThink(strings.TrimSpace(raw))
start := strings.Index(s, "{")
end := strings.LastIndex(s, "}")
if start < 0 || end <= start {
return s
}
var parsed struct {
Summary string `json:"summary"`
}
if err := json.Unmarshal([]byte(s[start:end+1]), &parsed); err != nil {
return s
}
// An empty field is the model saying nothing, so hand back nothing. Returning
// the raw object here would write `{"summary":""}` into his notes.
return strings.TrimSpace(parsed.Summary)
}
// captureWiring — the recorder plus what it needs to write the result down.
type captureWiring struct {
rec *capture.Recorder
st *store.Store
emb router.Embedder
cfg *config.CaptureConfig
now func() time.Time
// ctx and wg belong to the daemon, not to the request. Summarising happens
// after the reply has gone out, so it needs a lifetime that outlives the
// call and a shutdown that waits for it.
ctx context.Context
wg *sync.WaitGroup
}
// newCaptureWiring returns nil when the recorder should not exist: no media
// store, no capture block, capture disabled, or no STT to transcribe with.
//
// A missing llama-server is NOT a reason to return nil. Without one the
// recording is still made, stored and transcribed, and the summary is simply
// absent — the honest degradation, and much better than refusing to record a
// meeting that is happening now.
func newCaptureWiring(ctx context.Context, wg *sync.WaitGroup, keeper *mediaKeeper, st *store.Store, voiceW *voiceWiring, phr phraser.Phraser, emb router.Embedder, cfg *config.Config) *captureWiring {
if keeper == nil || !cfg.Capture.Records() {
return nil
}
tr := transcriberOf(voiceW)
if tr == nil {
// Voice off ⇒ no STT client ⇒ nothing could turn the audio into words.
// Storing hours of unreadable audio of other people is worse than not
// recording, so this is a refusal, not a degradation.
log.Printf("capture: enabled but voice/stt is not wired — meeting capture disabled")
return nil
}
cc := cfg.Capture
var sum *capture.Summarizer
if lp, ok := phr.(*phraser.LLMPhraser); ok {
client := llmClientFor(lp, captureSummaryTimeout)
sum = capture.NewSummarizer(
llmCompleter{c: client, maxTokens: 512},
cc.ChunkRunes, cc.MaxChunks, contextBlockFn(cfg, time.Now),
)
} else {
log.Printf("capture: no llama-server phraser — meetings are transcribed, not summarised")
}
rec, err := capture.New(keeper.store, tr, sum, capture.Config{
MaxDuration: cc.MaxDuration(),
STTWindow: time.Duration(cc.STTWindow),
})
if err != nil {
log.Printf("capture: %v — meeting capture disabled", err)
return nil
}
log.Printf("capture: enabled, sessions capped at %s", rec.MaxDuration())
return &captureWiring{rec: rec, st: st, emb: emb, cfg: cc, now: time.Now, ctx: ctx, wg: wg}
}
// start handles ipc.MethodCaptureStart.
func (c *captureWiring) start(_ context.Context, req ipc.CaptureStartReq) (ipc.CaptureStartResp, error) {
s, err := c.rec.Start(req.Label)
if err != nil {
return ipc.CaptureStartResp{}, err
}
// The label is logged; nothing that was said ever is.
log.Printf("capture: started %q", s.Label)
return ipc.CaptureStartResp{
Label: s.Label,
Started: s.Started,
Token: s.Token,
MaxSeconds: int(c.rec.MaxDuration().Seconds()),
}, nil
}
// append handles ipc.MethodCaptureAppend. ErrExpired is reported as a successful
// response with Expired set rather than an error: the cap firing is the designed
// behaviour, and the client needs the flag to stop sending and call stop.
func (c *captureWiring) append(_ context.Context, req ipc.CaptureAppendReq) (ipc.CaptureAppendResp, error) {
err := c.rec.Append(req.Token, req.Audio)
st := c.rec.Status()
if errors.Is(err, capture.ErrExpired) {
log.Printf("capture: %q hit the %s cap — stopping", st.Label, c.rec.MaxDuration())
return ipc.CaptureAppendResp{Seconds: st.Duration.Seconds(), Expired: true}, nil
}
if err != nil {
return ipc.CaptureAppendResp{}, err
}
return ipc.CaptureAppendResp{Seconds: st.Duration.Seconds()}, nil
}
// stop handles ipc.MethodCaptureStop.
//
// The error handling here mirrors vision's, and for the same reason: the audio is
// stored first, so a transcription failure returns what exists rather than
// nothing. A response can carry a blob id with no transcript (STT failed,
// re-runnable) — a degraded success, not an error to the caller.
//
// Summarising is NOT done here. A two-hour meeting is forty model calls, which
// on this box is minutes, and holding the IPC request open for them means the
// client that said "стоп" sits there with no answer while its own deadline runs
// out. Stop returns the transcript, and the summary note is written by a
// goroutine in the daemon's WaitGroup afterwards.
func (c *captureWiring) stop(ctx context.Context, req ipc.CaptureStopReq) (ipc.CaptureStopResp, error) {
if req.Discard {
// "забудь, не записывай" — nothing is stored, transcribed or noted.
if !c.rec.Abort(req.Token) {
return ipc.CaptureStopResp{}, capture.ErrNoSession
}
log.Printf("capture: session discarded on request")
return ipc.CaptureStopResp{Discarded: true}, nil
}
res, err := c.rec.Stop(ctx, req.Token)
resp := ipc.CaptureStopResp{
BlobID: res.BlobID,
Label: res.Label,
Started: res.Started,
Seconds: res.Duration.Seconds(),
Transcript: res.Transcript,
Summary: res.Summary,
Chunks: res.Chunks,
}
if err != nil {
if res.BlobID == "" && res.Transcript == "" {
// Nothing survived: no session, or an empty recording. There is
// nothing to hand back, so this is a real error.
return ipc.CaptureStopResp{}, err
}
log.Printf("capture: %q partially finished: %v", res.Label, err)
}
c.summarizeLater(res)
log.Printf("capture: finished %q — %s of audio, %d bytes of transcript",
res.Label, res.Duration.Round(time.Second), len(res.Transcript))
return resp, nil
}
// summarizeLater runs the map-reduce and writes the notes after stop replied.
// The context is the daemon's, not the request's: the request is already
// answered, and cancelling the summary because the client hung up would throw
// away the only readable record of the meeting.
func (c *captureWiring) summarizeLater(res capture.Result) {
if res.Transcript == "" {
return
}
c.wg.Add(1)
go func() {
defer c.wg.Done()
ctx, cancel := context.WithTimeout(c.ctx, captureSummaryTimeout)
defer cancel()
if err := c.rec.Summarize(ctx, &res); err != nil {
// Not fatal: writeNotes falls back to the transcript, so a dead
// llama-server costs the summary and not the meeting.
log.Printf("capture: summary for %q failed: %v", res.Label, err)
}
if _, err := c.writeNotes(ctx, res); err != nil {
log.Printf("capture: note write for %q failed: %v", res.Label, err)
return
}
log.Printf("capture: summarised %q in %d chunk(s)", res.Label, res.Chunks)
}()
}
// writeNotes stores the summary as a note, and the transcript too when
// capture.save_transcript is set. Returns the id of the note that carries the
// meeting.
//
// With no summary the transcript is written instead, whatever save_transcript
// says. That flag is about keeping the verbatim record IN ADDITION to a summary,
// not about whether the meeting is remembered at all. Without this fallback a
// llama-server that was down at stop time meant an hour of recorded meeting left
// no note behind and nothing recalled it later.
//
// The note source carries the blob id, which is the only link back to the audio.
// When retention prunes the blob the note remains — words about a meeting are a
// far lighter thing to keep than a recording of it.
func (c *captureWiring) writeNotes(ctx context.Context, res capture.Result) (int64, error) {
source := "capture:meeting"
if res.BlobID != "" {
source = "capture:meeting:" + res.BlobID[:12]
}
var id int64
if text := res.Summary; text != "" {
var err error
id, err = c.writeNote(ctx, text, source)
if err != nil {
return 0, fmt.Errorf("summary note: %w", err)
}
} else if res.Transcript != "" {
var err error
id, err = c.writeNote(ctx, res.Transcript, source+":transcript")
if err != nil {
return 0, fmt.Errorf("transcript note: %w", err)
}
return id, nil
}
if c.cfg.SaveTranscript && res.Transcript != "" {
if _, err := c.writeNote(ctx, res.Transcript, source+":transcript"); err != nil {
return id, fmt.Errorf("transcript note: %w", err)
}
}
return id, nil
}
func (c *captureWiring) writeNote(ctx context.Context, text, source string) (int64, error) {
var vec []float32
if c.emb != nil {
// EmbedPassage, not Embed: this is text being searched FOR, and the e5
// embedder is asymmetric. Backwards here makes the meeting unfindable by
// the question that should have matched it.
var err error
vec, err = router.EmbedPassage(ctx, c.emb, text)
if err != nil {
return 0, fmt.Errorf("embed: %w", err)
}
}
return c.st.WriteNote(ctx, c.now(), text, vec, source)
}
// status handles ipc.MethodCaptureStatus.
func (c *captureWiring) status(_ context.Context) (ipc.CaptureStatusResp, error) {
st := c.rec.Status()
return ipc.CaptureStatusResp{
Running: st.Running,
Label: st.Label,
Started: st.Started,
Seconds: st.Duration.Seconds(),
Bytes: st.Bytes,
}, nil
}
// wireCapture installs the four IPC hooks, or leaves them nil so every capture
// method reports ErrUnknownMethod. Takes the media keeper wireVision already
// opened: one blob store, one retention loop, images and audio side by side.
func wireCapture(ctx context.Context, wg *sync.WaitGroup, srv *ipc.Server, keeper *mediaKeeper, st *store.Store, voiceW *voiceWiring, phr phraser.Phraser, cfg *config.Config) {
cw := newCaptureWiring(ctx, wg, keeper, st, voiceW, phr, embedderOf(voiceW), cfg)
if cw == nil {
return
}
srv.CaptureStartFn = cw.start
srv.CaptureAppendFn = cw.append
srv.CaptureStopFn = cw.stop
srv.CaptureStatusFn = cw.status
}
-144
View File
@@ -1,144 +0,0 @@
package main
import (
"context"
"strings"
"sync"
"testing"
"time"
"github.com/kami/maven/internal/audio"
"github.com/kami/maven/internal/capture"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/media"
)
// silentTranscriber stands in for mavsttd: one fixed phrase per window, so the
// wiring can be tested without whisper.
type silentTranscriber struct{}
func (silentTranscriber) Transcribe(_ context.Context, _ audio.Audio) (string, float64, error) {
return "решили купить насос", 1.0, nil
}
func testCaptureWiring(t *testing.T) (*captureWiring, *sync.WaitGroup) {
t.Helper()
blobs, err := media.Open(t.TempDir(), 0, 0)
if err != nil {
t.Fatal(err)
}
rec, err := capture.New(blobs, silentTranscriber{}, nil, capture.Config{})
if err != nil {
t.Fatal(err)
}
var wg sync.WaitGroup
return &captureWiring{
rec: rec,
st: newTestStore(t),
cfg: &config.CaptureConfig{},
now: time.Now,
ctx: context.Background(),
wg: &wg,
}, &wg
}
// A frame carrying the wrong token must not land in the running session. Append
// and stop used to address "whatever is running now", so a client whose session
// had already ended went on recording into somebody else's meeting, and any
// client could end a recording it never started.
func TestCaptureRefusesAnotherClientsToken(t *testing.T) {
c, _ := testCaptureWiring(t)
start, err := c.start(context.Background(), ipc.CaptureStartReq{Label: "встреча"})
if err != nil {
t.Fatal(err)
}
if start.Token == "" {
t.Fatal("start handed back no session token")
}
if _, err := c.append(context.Background(), ipc.CaptureAppendReq{
Token: "not-mine",
Audio: audio.Audio{Format: audio.PCM16kMono, Bytes: make([]byte, 3200)},
}); err == nil {
t.Error("a frame with the wrong token was accepted")
}
if _, err := c.stop(context.Background(), ipc.CaptureStopReq{Token: "not-mine"}); err == nil {
t.Error("a stop with the wrong token ended the session")
}
if st, _ := c.status(context.Background()); !st.Running {
t.Error("the session was ended by a client that does not own it")
}
}
// Stop answers with the transcript and does not wait for the summary. The
// summary is up to forty model calls, and holding the IPC request for them meant
// the client that said "стоп" sat with no answer for minutes.
//
// With no summariser wired the note still has to be written, from the transcript.
// save_transcript is about keeping the verbatim record IN ADDITION to a summary,
// not about whether the meeting is remembered at all — without this fallback a
// dead llama-server meant an hour of meeting left no note behind.
func TestStopReturnsTranscriptAndNotesItWithoutASummary(t *testing.T) {
c, wg := testCaptureWiring(t)
start, err := c.start(context.Background(), ipc.CaptureStartReq{Label: "планёрка"})
if err != nil {
t.Fatal(err)
}
if _, err := c.append(context.Background(), ipc.CaptureAppendReq{
Token: start.Token,
Audio: audio.Audio{Format: audio.PCM16kMono, Bytes: make([]byte, 32000)},
}); err != nil {
t.Fatal(err)
}
resp, err := c.stop(context.Background(), ipc.CaptureStopReq{Token: start.Token})
if err != nil {
t.Fatalf("stop: %v", err)
}
if resp.Transcript == "" {
t.Fatal("stop returned no transcript")
}
if resp.Summary != "" {
t.Errorf("summary = %q, want none inside the request", resp.Summary)
}
wg.Wait()
notes, err := c.st.RecentNotes(context.Background(), 10)
if err != nil {
t.Fatal(err)
}
var found bool
for _, n := range notes {
if strings.Contains(n.Text, "насос") {
found = true
}
}
if !found {
t.Fatalf("the meeting left no note behind: %+v", notes)
}
}
// The summary path is JSON-wrapped by summaryGrammar, and internal/capture must
// keep seeing plain prose. These cover the wrapper and every way it can be
// absent or broken, because a meeting summary is written once and not retried.
func TestUnwrapSummary(t *testing.T) {
cases := []struct {
name string
in string
want string
}{
{"grammar output", `{"summary": "решили купить насос"}`, "решили купить насос"},
{"multiline field", `{"summary": "- насос\n- бюджет"}`, "- насос\n- бюджет"},
{"empty marker survives", `{"summary": "пусто"}`, "пусто"},
{"empty field says nothing", `{"summary": ""}`, ""},
{"thinking prefix", "<think>hm</think>\n{\"summary\": \"итог\"}", "итог"},
{"no grammar, plain prose", "решили купить насос", "решили купить насос"},
{"broken json falls back", `{"summary": "обрыв`, `{"summary": "обрыв`},
}
for _, c := range cases {
t.Run(c.name, func(t *testing.T) {
if got := unwrapSummary(c.in); got != c.want {
t.Errorf("unwrapSummary(%q) = %q, want %q", c.in, got, c.want)
}
})
}
}
-50
View File
@@ -1,50 +0,0 @@
package main
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/llm"
"github.com/kami/maven/internal/router"
)
// The chat path must answer when llama-server is down (Vikunja #45 step 4).
// Both halves of a turn call the model — the router and the replier — and each
// has its own floor: the cascade falls to the classifier, the replier falls to
// the stub. This wires a client at a closed port so both floors are exercised
// by a dial error rather than by a stubbed error value.
func TestChatAnswersWithNoLlamaServer(t *testing.T) {
h, _, _ := newClarifyHandler(t)
dead := llm.New("http://127.0.0.1:1", 500*time.Millisecond)
emb := router.NewHashEmbedder(1024)
h.recall.embedder = emb
h.router = buildRouter(emb, h.matcher, 0.55, pickLLMRouter(true, dead), nil)
h.replier = newLLMReplier(dead, nil)
ctx := withDialogueID(context.Background(), dialogueIDFor(sourceText, "web"))
for _, utt := range []string{
"привет",
"запиши что кофе закончился",
"что у меня сегодня",
} {
reply := h.handleText(ctx, "web", utt)
if reply == "" {
t.Errorf("%q answered with nothing; a dead model must degrade to the stub", utt)
}
}
}
// daemonAPI.Chat reports an error only when the voice path was never wired.
// A turn that reaches handleText always carries text, which is what keeps
// mavweb's /api/chat off its error branch when the model is down.
func TestChatAPIErrsOnlyWhenUnwired(t *testing.T) {
d := &daemonAPI{}
if _, err := d.Chat(context.Background(), "web", "привет"); err == nil {
t.Fatal("an unwired daemon must say so")
}
d.chatFn = func(context.Context, string, string) string { return "" }
if _, err := d.Chat(context.Background(), "web", "привет"); err != nil {
t.Fatalf("a wired daemon must not error: %v", err)
}
}
+58 -478
View File
@@ -3,10 +3,7 @@ package main
import (
"context"
"log"
"math/rand"
"strings"
"time"
"unicode/utf8"
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/router"
@@ -18,127 +15,55 @@ import (
const clarifyTTL = 90 * time.Second
// wantedSlots — what each intent needs before she can act on it. First entry is
// the one she asks about this turn; the rest are asked about on later turns, one
// per turn, as each answer lands (see askRemainingGap).
// the one she asks about; the rest are only used to decide act-vs-drop.
//
// Intents not listed here are never worth a question: note and query act on the
// raw utterance, chat and system have nothing to fill in. For those a clarify
// decision keeps the canned "не поняла" reply — inventing a question for noise
// is worse than admitting she missed it.
// A reminder wants BOTH what to remind about and when. Subject first: "напомни
// в 11" has a time and nothing to say at 11, and a reminder with no subject is
// not worth setting. Order here is the order she asks in.
var wantedSlots = map[router.Intent][]dialogue.Slot{
router.IntentReminder: {dialogue.SlotText, dialogue.SlotTime},
router.IntentReminder: {dialogue.SlotTime},
router.IntentFact: {dialogue.SlotKey},
router.IntentAct: {dialogue.SlotFn},
}
// The questions themselves live in clarifytemplates.go, one list per slot,
// picked by attempt (Vikunja #457). The first ask is the short one this map
// used to hold; a re-ask says it differently, because a question he already
// failed to answer is the worst one to repeat unchanged.
// clarifyQuestions — one short question per missing slot.
//
// These are fixed templates, not model output. The resident model is a 0.8B; it
// would wander, and a question whose wording changes every time is harder to
// answer than a blunt one that always reads the same. They are infinitive
// questions, so there is no gender agreement to get wrong; the feminine
// self-reference lives in the reply she gives when she drops the request.
var clarifyQuestions = map[dialogue.Slot]string{
dialogue.SlotTime: "На когда напомнить?",
dialogue.SlotKey: "Что записать?",
dialogue.SlotFn: "Что сделать?",
}
// clarifyGaveUp — she is out of questions and still does not have the slot. She
// says so out loud: dropping the request in silence would leave him thinking it
// landed. Feminine self-reference ("поняла"), as everywhere.
const clarifyGaveUp = "Прости, я не поняла. Скажи, пожалуйста, по-другому."
// clarifyExpiredVariants — his answer came after the TTL, so the parked request
// is already gone. Same tone as clarifyGaveUp, different reason: too much time
// clarifyExpired — his answer came after the TTL, so the parked request is
// already gone. Same tone as clarifyGaveUp, different reason: too much time
// passed, not "I did not understand". Feminine self-reference ("ждала",
// "отпустила"); he is addressed with a plain imperative.
//
// Five phrasings, not one. This is the line he hears whenever he walks off
// mid-request, so it is the line that repeats most — and the same sentence every
// time is what makes a house assistant sound like a kiosk. They all carry the
// same two facts (the old request is gone; say it again if it still matters),
// because the wording may vary and the meaning may not.
//
// Fixed templates rather than model output, for the same reason as
// clarifyQuestions: this text has to be right every time, and it is not worth a
// generation to say something this small.
var clarifyExpiredVariants = []string{
"Прости, я слишком долго ждала ответа и отпустила прошлую просьбу. Если она ещё нужна, скажи заново.",
"Кажется, прошлая просьба уже не важна — я её отпустила. Если я ошибаюсь, повтори.",
"Ты как-то резко замолчал, и я не стала ждать дальше. Если та просьба ещё нужна, скажи заново.",
"Я не дождалась ответа и убрала прошлую просьбу. Повтори, если она всё ещё нужна.",
"Столько времени прошло, что я отпустила прошлую просьбу. Скажи заново, если она в силе.",
}
// clarifyExpiredPluralVariants — the same notice when TWO parked requests died
// together (Vikunja #561). Since a side query suspends the flow instead of
// dropping it, the stack can hold both the flow and the thing he interrupted it
// with, and TakeExpired drops the whole stack when the top times out. "Прошлую
// просьбу" would then be a lie about the count: he loses two and hears about
// one.
//
// Two phrasings only, against five for the singular. This fires when he walks
// off in the middle of an interrupted exchange, which is rarer than walking off
// in the middle of a plain one, so it repeats less and needs less variety.
var clarifyExpiredPluralVariants = []string{
"Прости, я слишком долго ждала и отпустила обе прошлые просьбы. Если они ещё нужны, скажи заново.",
"Я не дождалась ответа и убрала обе прошлые просьбы. Повтори, если они всё ещё нужны.",
}
// clarifyExpiredLine picks one of them at random. n is how many requests died;
// anything above one gets the plural wording, because the bound is two today and
// a third would still be "обе" short of the truth only if MaxStackDepth grew.
func clarifyExpiredLine(n int) string {
if n > 1 {
return clarifyExpiredPluralVariants[rand.Intn(len(clarifyExpiredPluralVariants))]
}
return clarifyExpiredVariants[rand.Intn(len(clarifyExpiredVariants))]
}
// isClarifyExpired reports whether s opens with any of the expiry lines. The
// notice is glued in front of this turn's reply (see withNotice), so a caller
// checking for it has to match a prefix, not the whole string.
func isClarifyExpired(s string) bool {
_, ok := cutClarifyExpired(s)
return ok
}
// trimClarifyExpired strips a leading expiry notice, leaving this turn's actual
// reply. "" ⇒ the notice was the whole thing.
func trimClarifyExpired(s string) string {
rest, ok := cutClarifyExpired(s)
if !ok {
return strings.TrimSpace(s)
}
return rest
}
// cutClarifyExpired matches either expiry deck as a prefix and returns what
// follows it. Both decks, since V-561 added the plural line: a caller asking
// "did she say a request timed out" means the fact, not which wording carried
// it, and a helper that knew only the singular would read the two-request
// notice as ordinary reply text.
func cutClarifyExpired(s string) (string, bool) {
for _, deck := range [][]string{clarifyExpiredVariants, clarifyExpiredPluralVariants} {
for _, v := range deck {
if strings.HasPrefix(s, v) {
return strings.TrimSpace(strings.TrimPrefix(s, v)), true
}
}
}
return "", false
}
const clarifyExpired = "Прости, я слишком долго ждала ответа и отпустила прошлую просьбу. Если она ещё нужна, скажи заново."
// clarifyExpiredNotice returns that line when a parked question had just timed
// out, and "" when nothing was parked. Call it right after
// resolveClarifyAnswer: a live question is answered there, an expired one is
// only reported here — the words themselves still go on to be routed fresh.
func (h *reactiveHandler) clarifyExpiredNotice(ctx context.Context) string {
func (h *reactiveHandler) clarifyExpiredNotice() string {
if h.clarifyStore == nil {
return ""
}
n := h.clarifyStore.TakeExpired(dialogueIDOf(ctx), h.now())
if n == 0 {
if !h.clarifyStore.TakeExpired(voiceDialogueID, h.now()) {
return ""
}
log.Printf("voice: clarify — %d parked question(s) expired, telling him and routing the words fresh", n)
return clarifyExpiredLine(n)
log.Printf("voice: clarify — parked question expired, telling him and routing the words fresh")
return clarifyExpired
}
// withNotice glues the expiry notice in front of this turn's reply. One turn
@@ -154,98 +79,41 @@ func withNotice(notice, reply string) string {
return notice + " " + reply
}
// withResumed puts the resumed question on the END of this turn's reply, where
// withNotice puts the expiry notice on the front (Vikunja #561).
//
// The order is the owner's: "в Риме сейчас ..., на какое время поставить
// напоминание?" — answer first, then the open question. A question in front of
// its own answer would read as ignoring what he asked.
//
// Two sentences, not one (V-654). This used to fold the answer's full stop into
// a comma, on the strength of the owner having written it that way once. Spliced
// onto a real answer it reads as one run-on thought — "вот что я нашла: вайфай
// пароль лежит в ящике стола, на какое время поставить напоминание?" — and the
// question disappears into the tail of a sentence about something else. A reply
// with no terminator of its own is given one, so the join never depends on how
// the phraser chose to end.
//
// A resume with no answer in front of it is just the question.
func withResumed(reply, resumed string) string {
if resumed == "" {
return reply
}
reply = strings.TrimSpace(reply)
if reply == "" {
return resumed
}
if !endsSentence(reply) {
reply += "."
}
return reply + " " + resumed
}
// endsSentence reports whether s already closes itself. The ellipsis counts: a
// trailing "…" is a deliberate end, and a full stop after it reads as a typo.
func endsSentence(s string) bool {
r, _ := utf8.DecodeLastRuneInString(s)
return strings.ContainsRune(".!?…", r)
}
// missingFor returns the slots a decision still needs, most important first.
// Empty ⇒ there is nothing identifiable to ask about.
func missingFor(dec router.Decision) []dialogue.Slot {
return stillMissingFor(dec.Intent, dec.Utterance, toDialogueSlots(dec.Slots))
return dialogue.StillMissing(wantedSlots[dec.Intent], toDialogueSlots(dec.Slots))
}
// clarifyQuestion picks the one question to ask for a clarify decision. Returns
// ("", false) when she has no idea what is missing.
//
// One question about one thing: if two slots are missing she asks about the
// first only. Two questions in one breath is an interrogation. The second gap
// is picked up on the turn after the first one is answered (askRemainingGap).
func (h *reactiveHandler) clarifyQuestion(dec router.Decision) (dialogue.Slot, string, bool) {
// first and lets the rest go. Two questions in a row is an interrogation.
func clarifyQuestion(dec router.Decision) (dialogue.Slot, string, bool) {
missing := missingFor(dec)
if len(missing) == 0 {
return "", "", false
}
q, ok := h.questionFor(missing[0], 1, dec.Utterance, toDialogueSlots(dec.Slots), "")
q, ok := clarifyQuestions[missing[0]]
if !ok {
return "", "", false
}
return missing[0], q, true
}
// questionFor picks the wording for one gap. Every slot but the reminder's time
// reads its deck by attempt; the time asks about whichever of the hour, the half
// of the day and the day he has not said, and states the clock while it does
// (V-579).
//
// taken is the acknowledgement of what his last turn added, empty when it added
// nothing and empty for a first ask, which has no turn behind it (V-593).
func (h *reactiveHandler) questionFor(slot dialogue.Slot, attempt int, utterance string, s dialogue.Slots, taken string) (string, bool) {
if slot != dialogue.SlotTime {
return clarifyQuestionFor(slot, attempt)
}
return whenQuestion(whenGapOf(utterance, s.HasTime), attempt, h.now(), taken)
}
// askClarify parks the request and returns the question to ask instead of the
// canned "не поняла". Returns ("", false) when there is nothing to ask about, so
// the caller falls back to the canned reply.
func (h *reactiveHandler) askClarify(ctx context.Context, dec router.Decision) (string, bool) {
func (h *reactiveHandler) askClarify(dec router.Decision) (string, bool) {
if h.clarifyStore == nil {
return "", false
}
slot, question, ok := h.clarifyQuestion(dec)
slot, question, ok := clarifyQuestion(dec)
if !ok {
return "", false
}
// An act she could not resolve is a refusal, not a question (Vikunja #556).
if slot == dialogue.SlotFn {
log.Printf("voice: clarify — act %q matched no capability; saying so instead of asking", dec.Utterance)
return actNotRecognized, true
}
q := &dialogue.PendingQuestion{
h.clarifyStore.Put(voiceDialogueID, &dialogue.PendingQuestion{
Intent: dialogue.Intent(dec.Intent),
Slots: toDialogueSlots(dec.Slots),
Missing: []dialogue.Slot{slot},
@@ -254,183 +122,36 @@ func (h *reactiveHandler) askClarify(ctx context.Context, dec router.Decision) (
TTL: clarifyTTL,
Attempts: 1, // this ask
MaxAttempts: h.clarifyMaxAttempts,
}
// Push, not Put, when this turn suspended a flow (Vikunja #561): the side
// query needs clarifying of ITS own, and Put would replace the top of the
// stack — which is the very question the side query was allowed to interrupt
// rather than kill. Push keeps both.
//
// Push returns whatever the depth bound forced out, and that one has to be
// spoken: MaxStackDepth is a promise that every level she keeps is a level
// she can name when it dies. It is glued in front, like every other notice
// about something let go.
rt := turnRouteFrom(ctx)
if rt != nil && rt.suspended {
if evicted := h.clarifyStore.Push(dialogueIDOf(ctx), q); evicted != nil {
log.Printf("voice: clarify — stack full at %d, letting go of the request behind %q", dialogue.MaxStackDepth, evicted.Utterance)
rt.dropped = withNotice(rt.dropped, clarifyDropped)
}
// One question per breath still holds. The side query turned out to need
// a question of its own, so THAT is the one she asks; resuming as well
// would put two questions in one reply, which is the interrogation
// askRemainingGap already refuses to run. The suspended flow keeps its
// place underneath and is not lost — if it is never reached it dies on
// the TTL, and the expiry notice (now plural-aware) says so.
rt.resume = ""
log.Printf("voice: clarify — asked about %s for intent=%s, stacked on a suspended flow", slot, dec.Intent)
return question, true
}
h.clarifyStore.Put(dialogueIDOf(ctx), q)
})
log.Printf("voice: clarify — asked about %s for intent=%s", slot, dec.Intent)
return question, true
}
// clarifyCancelled — he called the half-built request off. Said out loud, like
// every other way it can end: a silent drop reads as "done". Feminine
// self-reference ("отменила"), as everywhere.
const clarifyCancelled = "Хорошо, отменила."
// clarifyDropped — he asked for something ELSE instead, so the parked request
// is gone. Glued in front of the answer to what he actually asked, because
// nothing may be dropped in silence.
// resolveClarifyAnswer reads an utterance as the answer to a parked question.
// Returns ("", false) when no live question is parked (or it expired), so the
// caller routes the utterance normally as a fresh request. Sibling of
// resolveConfirm and checked in the same place.
//
// Only new_request and cancel reach this since V-561. A side query used to as
// well, and the owner rejected it on sight: he asks about the weather in the
// middle of setting a reminder, and hearing "прошлую просьбу отпускаю" tells him
// a thing he did not ask to lose has been lost. It had not been — there was
// simply nowhere to put it. Now there is (ClarifyStore's stack), so a side query
// suspends and resumes, and apologising for a drop that did not happen is worse
// than saying nothing.
const clarifyDropped = "Прошлую просьбу отпускаю."
// resolveClarifyAnswer reads an utterance against the parked question and
// decides what it IS before deciding what to do with it. Returns ("", false)
// when the turn is not this resolver's — nothing parked, or the utterance turned
// out to be a request of its own — so the caller dispatches it normally.
//
// The order is the point (Vikunja #560). The utterance is ROUTED first, and the
// role is read off that decision: a routed decision that stands on its own is
// not an answer, whatever the extractor found inside it. Before this the
// extractor decided, so "какая сейчас погода в Риме?" became the time of a
// reminder on the strength of the word "сейчас".
//
// The answer itself is parsed with the same extractor the router uses, for the
// intent she parked — no second parser. If it still does not fill the gap she
// asks again, up to MaxAttempts; after that she says out loud that she did not
// The answer is parsed with the same extractor the router uses, for the intent
// she parked — no second parser. If it still does not fill the gap she asks
// again, up to MaxAttempts; after that she says out loud that she did not
// understand. She never drops the request in silence.
func (h *reactiveHandler) resolveClarifyAnswer(ctx context.Context, text string) (string, bool) {
if h.clarifyStore == nil {
return "", false
}
q := h.clarifyStore.Get(dialogueIDOf(ctx), h.now())
q := h.clarifyStore.Get(voiceDialogueID, h.now())
if q == nil {
return "", false // not_applicable: nothing is pending
return "", false
}
intent := router.Intent(q.Intent)
answer := h.extractor.Extract(ctx, intent, text, h.now())
var (
routed router.Decision
routedOK bool
)
if needsRoute(text) {
routed, routedOK = h.routeForRole(ctx, text)
}
role := classifyTurnRole(q, text, toDialogueSlots(answer), routed, routedOK)
log.Printf("voice: clarify — %q is a %s against %s (routed=%v)", text, role, dialogue.CapabilityFor(q.Intent), routedOK)
switch role {
case roleCancel:
h.clarifyStore.Delete(dialogueIDOf(ctx))
return clarifyCancelled, true
case roleSideQuery:
// He asked something of his own WITHOUT leaving the flow. The question
// stays exactly where it is — same slot, same attempt, same parked
// utterance — and these words go on to be answered as themselves. The
// resumed question is then glued onto the back of that answer, so one
// reply carries both acts (Vikunja #561).
//
// No attempt is spent. He answered the side query, not the parked
// question, and charging a retry for a turn that was never an answer is
// the V-554 shape.
h.noteSuspended(ctx, q)
return "", false
case roleAside:
// He stated something in the middle of the flow. Same machinery as a
// side query and for the same reason: the words are answered as
// themselves, so the note or the fact is stored, and the question comes
// back on the end of the same reply (V-577 shape 2). Storing it in
// silence and dropping it in silence are both wrong, and dropping it is
// what she did.
h.noteSuspended(ctx, q)
return "", false
case roleNewRequest:
// He moved on. A parked question used to swallow whatever came next, so
// one act she could not fulfil ate the following three turns (Vikunja
// #554) and a world question set a reminder for a time nobody asked for
// (#558). Drop the question, say so, and let these words be themselves.
h.clarifyStore.Delete(dialogueIDOf(ctx))
h.noteDropped(ctx)
return "", false
}
// He is answering, so the run of step-asides is over (V-654). Reset here
// rather than where a gap is FILLED: "позвонить маме" against a question
// about the time gives her nothing she asked for and still means he is in
// the exchange, and the retry it costs is bound enough on its own. The
// counter is for the case the bounds miss — he asked for other things and
// never came back.
q.Suspends = 0
merged := q.Answer(text, toDialogueSlots(answer))
// Fold a newly answered subject into the raw utterance. Downstream actions
// phrase from Utterance, not from the text slot — actionReminder stores it
// as the reminder payload — so a reminder clarified out of a bare "напомни"
// would fire at 11:00 saying "напомни" and nothing else.
q.Utterance = foldAnswerIntoUtterance(q.Utterance, merged.Text)
// A fact answers with a key and a value and fills no Text slot at all, so
// the fold above leaves the utterance at the bare "запиши" — and that is
// what the confirmation now reads back to him (V-592). His raw words are the
// only record of what he said, so they are what is folded. Never for a time
// question: what he says about when is kept apart in WhenText on purpose,
// or the reminder would read the day back at him when it fires.
if merged.Text == "" && !asksAboutTime(q.Missing) {
q.Utterance = foldAnswerIntoUtterance(q.Utterance, text)
}
// An answer about the time joins everything else he has said about the time,
// and the whole of it is re-read as one request (V-579). "завтра" names the
// day of an hour she is already holding, and read alone it names no hour at
// all, so the parser would have nothing and she would ask for ever.
// What he had already said about the time, read BEFORE this answer joins it.
// A re-ask that cannot tell the two apart is the one that repeats itself
// byte for byte (V-593).
var taken string
if asksAboutTime(q.Missing) {
before := whenKnownOf(whenTextOf(q), q.Slots.HasTime)
q.WhenText = strings.TrimSpace(q.WhenText + " " + text)
if t, ok := h.readWhen(ctx, intent, q, text); ok {
merged.Time, merged.HasTime = t, true
}
if before.movedForward(whenKnownOf(whenTextOf(q), merged.HasTime)) {
taken = whenTakenLine(text)
}
}
if stillOpen(q.Missing, whenTextOf(q), merged) {
return h.reaskOrGiveUp(ctx, q, merged, text, taken), true
}
h.clarifyStore.Delete(dialogueIDOf(ctx))
// One gap filled is not the same as a complete request. askClarify parks
// only the first gap, because one question per turn is the rule, but a
// reminder wants both a subject and a time. "напомни" with neither used to
// ask "О чём напомнить?", accept "позвонить маме", and then hand applyAction
// a reminder with no time, which answered "не получилось разобрать время
// напоминания." — an error for a request she never finished asking about.
// Re-enter the loop instead, one question at a time as before.
if reply, asked := h.askRemainingGap(ctx, q, intent, merged); asked {
return reply, true
if len(dialogue.StillMissing(q.Missing, merged)) > 0 {
return h.reaskOrGiveUp(q, merged, text), true
}
h.clarifyStore.Delete(voiceDialogueID)
// Rebuild the decision as if it had routed cleanly, then run it down the
// normal path. Clarify is deliberately false and the intent is unchanged:
@@ -446,137 +167,16 @@ func (h *reactiveHandler) resolveClarifyAnswer(ctx context.Context, text string)
return h.finishClarified(ctx, dec), true
}
// noteDropped records that the parked request was let go this turn, so runTurn
// can say it in front of whatever these words are answered with. Nothing to
// record outside runTurn — a unit test calling one resolver has no turn to glue
// a notice onto.
func (h *reactiveHandler) noteDropped(ctx context.Context) {
if rt := turnRouteFrom(ctx); rt != nil {
rt.dropped = clarifyDropped
}
}
// noteSuspended keeps the parked question alive across a side query and records
// the words that bring it back, so runTurn can put them after this turn's answer
// (Vikunja #561).
//
// Two things happen to the question and neither is an attempt. Its clock is
// restarted, because she is about to ask it again and the 90s TTL measures the
// pause since she last spoke it — leaving Asked at the original ask would let a
// flow he is actively working through die of a wait he did not take. And the
// stack is left exactly as it is: the question is already on top, so suspending
// it is not a write.
//
// A slot with no resumed wording (clarifyResumedFor says so) resumes nothing and
// says nothing. She must not claim to be holding a question she cannot re-ask.
//
// Suspension is bounded, since V-654. Neither of the two things above is a
// limit: no attempt is spent, and restarting the clock means the TTL cannot
// arrive while he keeps talking. So the count is the only thing that ends it,
// and past MaxSuspends she lets the request go and says so with the same line
// every other drop uses. The rule is unchanged — a question ends by being
// answered or by being let go out loud — this only recognises three unrelated
// requests in a row as the second of those.
func (h *reactiveHandler) noteSuspended(ctx context.Context, q *dialogue.PendingQuestion) {
rt := turnRouteFrom(ctx)
if rt == nil || len(q.Missing) == 0 {
return
}
question, ok := clarifyResumedFor(q.Missing[0])
if !ok {
return
}
if !q.CanResume() {
h.clarifyStore.Delete(dialogueIDOf(ctx))
h.noteDropped(ctx)
log.Printf("voice: clarify — letting the question about %s go: %d asides in a row, %d rides in all", q.Missing[0], q.Suspends, q.Rides)
return
}
q.Suspends++
// Rides is the same event counted without the reset (V-663). Incremented
// beside Suspends and never anywhere else, so the two cannot disagree about
// what happened, only about how much of it they remember.
q.Rides++
q.Asked = h.now()
h.clarifyStore.Put(dialogueIDOf(ctx), q)
rt.resume = question
rt.suspended = true
log.Printf("voice: clarify — is its own request; suspending the question about %s and resuming it in the same reply (suspend %d of %d, ride %d of %d)", q.Missing[0], q.Suspends, dialogue.MaxSuspends, q.Rides, dialogue.MaxRides)
}
// foldAnswerIntoUtterance appends an answered subject to the original words,
// unless they already carry it. "напомни" + "позвонить маме" reads as the
// request he would have made in one breath. Nothing is appended when the
// subject is empty or already present, so re-asking the same question twice
// cannot grow the utterance.
func foldAnswerIntoUtterance(utterance, subject string) string {
subject = strings.TrimSpace(subject)
if subject == "" || strings.Contains(utterance, subject) {
return utterance
}
if strings.TrimSpace(utterance) == "" {
return subject
}
return strings.TrimSpace(utterance) + " " + subject
}
// askRemainingGap re-parks the request when the answer closed one gap and
// wantedSlots still names another. Returns ("", false) when the request is
// complete, when there is no question for what is left, or when she is out of
// attempts — in all three the caller runs the decision as it stands, which for
// the out-of-attempts case is the old behaviour and is the right one: she has
// already asked enough.
//
// The attempt budget is shared with the re-ask path on purpose. A second gap
// costs a question exactly like a second try at the first one does, so the cap
// still bounds how many times she can speak before acting or letting go.
func (h *reactiveHandler) askRemainingGap(ctx context.Context, q *dialogue.PendingQuestion, intent router.Intent, merged dialogue.Slots) (string, bool) {
remaining := stillMissingFor(intent, whenTextOf(q), merged)
if len(remaining) == 0 {
return "", false
}
// Attempts+1 is the question she is about to ask, and the budget is shared
// with the re-ask path, so the second gap is worded like a second try.
question, ok := h.questionFor(remaining[0], q.Attempts+1, whenTextOf(q), merged, "")
if !ok || !q.CanAsk() {
return "", false
}
// Suspends is not carried, and by this point it is already zero: the answer
// path resets it (V-654). Left off the literal so the zero is stated where
// the struct is built, rather than inherited from a field nobody names.
//
// Rides IS carried, and that is the whole point of it (V-663). This is the
// same request under a second question, not a new one, so the turns it has
// already ridden still count against it. Dropping the field here is exactly
// the re-basing that let one question ride twenty-six replies.
h.clarifyStore.Put(dialogueIDOf(ctx), &dialogue.PendingQuestion{
Intent: q.Intent,
Slots: merged,
Missing: []dialogue.Slot{remaining[0]},
Utterance: q.Utterance,
WhenText: q.WhenText,
Asked: h.now(),
TTL: clarifyTTL,
Attempts: q.Attempts + 1,
MaxAttempts: q.MaxAttempts,
Rides: q.Rides,
})
log.Printf("voice: clarify — one gap filled, still missing %s for intent=%s, asking again (attempt %d)", remaining[0], intent, q.Attempts+1)
return question, true
}
// reaskOrGiveUp handles an answer that left the gap open: ask the same question
// again while she has attempts left, otherwise say she did not understand and
// let the request go. Never returns "" — a mute give-up reads as "done".
// taken is the acknowledgement of what this answer DID give, empty when it gave
// nothing (V-593). The give-up line never carries it: it is not another ask.
func (h *reactiveHandler) reaskOrGiveUp(ctx context.Context, q *dialogue.PendingQuestion, merged dialogue.Slots, text, taken string) string {
func (h *reactiveHandler) reaskOrGiveUp(q *dialogue.PendingQuestion, merged dialogue.Slots, text string) string {
question := ""
if len(q.Missing) > 0 {
question, _ = h.questionFor(q.Missing[0], q.Attempts+1, whenTextOf(q), merged, taken)
question = clarifyQuestions[q.Missing[0]]
}
if question == "" || !q.CanAsk() {
h.clarifyStore.Delete(dialogueIDOf(ctx))
h.clarifyStore.Delete(voiceDialogueID)
log.Printf("voice: clarify — gave up on %v after %d question(s), answer was %q", q.Missing, q.Attempts, text)
return clarifyGaveUp
}
@@ -585,7 +185,7 @@ func (h *reactiveHandler) reaskOrGiveUp(ctx context.Context, q *dialogue.Pending
q.Slots = merged
q.Attempts++
q.Asked = h.now()
h.clarifyStore.Put(dialogueIDOf(ctx), q)
h.clarifyStore.Put(voiceDialogueID, q)
log.Printf("voice: clarify — answer %q did not fill %v, asking again (attempt %d)", text, q.Missing, q.Attempts)
return question
}
@@ -595,13 +195,13 @@ func (h *reactiveHandler) reaskOrGiveUp(ctx context.Context, q *dialogue.Pending
func (h *reactiveHandler) finishClarified(ctx context.Context, dec router.Decision) string {
if h.dialogueSessions != nil {
now := h.now()
prev := h.dialogueSessions.Get(dialogueIDOf(ctx), now)
prev := h.dialogueSessions.Get(voiceDialogueID, now)
dec = followUpMerge(prev, dec, now)
h.rememberTurn(ctx, prev, dec, now)
h.rememberTurn(prev, dec, now)
}
reply := h.applyAction(ctx, dec)
if reply == "" {
reply = h.replier.Reply(ctx, dec)
reply = h.replier.Reply(dec)
}
if reply == "" {
// Belt: an empty reply here would be a silent drop.
@@ -610,22 +210,20 @@ func (h *reactiveHandler) finishClarified(ctx context.Context, dec router.Decisi
return reply
}
// maxCarriedHistory — how many turns of PRIOR history (beyond the immediate
// last turn) rememberTurn carries forward. The session ends up holding this
// many plus the one just-finished turn, so callers describing the total
// depth (chatHistory's doc comment, this one) say "up to 4".
const maxCarriedHistory = 3
// rememberTurn stores this turn as the dialogue session the next follow-up
// inherits from, carrying up to 4 prior turns of history for anaphora. Capped so
// one long conversation can't grow the session unboundedly.
func (h *reactiveHandler) rememberTurn(ctx context.Context, prev *dialogue.Session, dec router.Decision, now time.Time) {
func (h *reactiveHandler) rememberTurn(prev *dialogue.Session, dec router.Decision, now time.Time) {
var history []dialogue.Turn
if prev != nil {
history = append(history, sessionAsTurn(prev))
history = append(history, dialogue.Turn{
Intent: prev.Intent,
Slots: prev.Slots,
Text: prev.Slots.Text,
})
maxHist := len(prev.History)
if maxHist > maxCarriedHistory {
maxHist = maxCarriedHistory
if maxHist > 3 {
maxHist = 3
}
history = append(history, prev.History[:maxHist]...)
}
@@ -633,27 +231,9 @@ func (h *reactiveHandler) rememberTurn(ctx context.Context, prev *dialogue.Sessi
if dec.Intent == router.IntentChat {
ttl = 15 * time.Minute // conversational turns should last longer
}
// A system or query turn often carries no Text slot at all — a stage-0
// grammar fills none. The next turn may be an ellipsis ("а завтра?"),
// which knows the day but not what was asked ABOUT, so keep the raw
// utterance where continuation.go can find it. Only these two intents:
// everywhere else Text is a payload and must stay what the router put in.
//
// Overwritten, not filled: rememberTurn runs AFTER followUpMerge, which
// has already inherited a Text from the previous same-intent turn, so a
// fill-if-empty rule keeps the OLD topic for ever. Seen on the deployed
// daemon 01-08-2026 — "во сколько у меня встреча" then "какие у меня
// планы" then "а завтра?" continued the meeting, two turns stale.
//
// A continuation is the exception and keeps what it inherited: its
// utterance is the ellipsis, and the topic it carries is the real one.
slots := toDialogueSlots(dec.Slots)
if !dec.Continued && (dec.Intent == router.IntentSystem || dec.Intent == router.IntentQuery) {
slots.Text = dec.Utterance
}
h.dialogueSessions.Put(dialogueIDOf(ctx), &dialogue.Session{
h.dialogueSessions.Put(voiceDialogueID, &dialogue.Session{
Intent: dialogue.Intent(dec.Intent),
Slots: slots,
Slots: toDialogueSlots(dec.Slots),
Timestamp: now,
TTL: ttl,
History: history,
+50 -513
View File
@@ -10,8 +10,6 @@ import (
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/memory"
"github.com/kami/maven/internal/phraser/eval"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
"github.com/kami/maven/internal/tool"
@@ -58,26 +56,15 @@ func TestClarifyQuestionForMissingSlot(t *testing.T) {
want string
asked bool
}{
{"reminder without a time", clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме"), "Сейчас 09:00. Когда?", true},
{"reminder without a time", clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме"), "На когда напомнить?", true},
{"fact without a key", clarifyDec(router.IntentFact, router.Slots{Text: "запиши"}, "запиши"), "Что записать?", true},
{"act without a fn", clarifyDec(router.IntentAct, router.Slots{Text: "сделай это"}, "сделай это"), "Что сделать?", true},
// A time with nothing to say at that time is still half a reminder, so
// the subject is what she asks about — not silence.
{"reminder that has a time but no subject", clarifyDec(router.IntentReminder, router.Slots{HasTime: true}, "напомни в 11"), "О чём напомнить?", true},
// A bare hour is half of a day away from being an answer, and she asks
// which half rather than picking one (V-579).
{"reminder whose hour could be either half of the day", clarifyDec(router.IntentReminder, router.Slots{Text: "позвонить маме", HasTime: true}, "напомни в 11 позвонить маме"), "Сейчас 09:00. Это утра или вечера?", true},
{"reminder that has all three", clarifyDec(router.IntentReminder, router.Slots{Text: "позвонить маме", HasTime: true}, "напомни завтра в 15:00 позвонить маме"), "", false},
// The owner's own two, confirmed 2026-08-06: an unambiguous time and a
// relative one are both complete and are never asked about.
{"an interval names the instant by itself", clarifyDec(router.IntentReminder, router.Slots{Text: "позвонить маме", HasTime: true}, "напомни через час позвонить маме"), "", false},
{"half an hour is an interval too", clarifyDec(router.IntentReminder, router.Slots{Text: "выключить духовку", HasTime: true}, "напомни через полчаса выключить духовку"), "", false},
{"reminder that already has a time", clarifyDec(router.IntentReminder, router.Slots{HasTime: true}, "напомни в 11"), "", false},
{"chat is never worth a question", clarifyDec(router.IntentChat, router.Slots{Text: "мгм"}, "мгм"), "", false},
{"query is never worth a question", clarifyDec(router.IntentQuery, router.Slots{Text: "а"}, "а"), "", false},
}
h, _, _ := newClarifyHandler(t)
for _, tc := range cases {
_, got, asked := h.clarifyQuestion(tc.dec)
_, got, asked := clarifyQuestion(tc.dec)
if asked != tc.asked || got != tc.want {
t.Errorf("%s: got (%q, %v), want (%q, %v)", tc.name, got, asked, tc.want, tc.asked)
}
@@ -90,14 +77,12 @@ func TestClarifyReminderCompletesOnAnswer(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
question, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме"))
if !asked || question != "Сейчас 09:00. Когда?" {
question, asked := h.askClarify(clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме"))
if !asked || question != "На когда напомнить?" {
t.Fatalf("expected the time question, got %q asked=%v", question, asked)
}
// The answer names the day as well as the hour. A reminder commits on what,
// what time and what day, and a dayless hour is asked about (V-579).
reply, handled := h.resolveClarifyAnswer(ctx, "сегодня в 11:00")
reply, handled := h.resolveClarifyAnswer(ctx, "в 11:00")
if !handled {
t.Fatal("the answer to an open question must be consumed as an answer")
}
@@ -123,7 +108,7 @@ func TestClarifyFactCompletesOnAnswer(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentFact, router.Slots{Text: "запиши"}, "запиши")); !asked {
if _, asked := h.askClarify(clarifyDec(router.IntentFact, router.Slots{Text: "запиши"}, "запиши")); !asked {
t.Fatal("a fact with no key should be asked about")
}
if reply, handled := h.resolveClarifyAnswer(ctx, "пил воду"); !handled || reply == clarifyGaveUp {
@@ -139,7 +124,7 @@ func TestClarifyAnswerAfterTTLIsANewRequest(t *testing.T) {
ctx := context.Background()
h, st, now := newClarifyHandler(t)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
if _, asked := h.askClarify(clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
t.Fatal("expected a question")
}
*now = now.Add(clarifyTTL + time.Second)
@@ -158,7 +143,7 @@ func TestClarifyAsksThreeTimesThenSaysSo(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
if _, asked := h.askClarify(clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
t.Fatal("expected a first question")
}
// Two more unclear answers ⇒ two more questions (3 asks in total).
@@ -167,14 +152,8 @@ func TestClarifyAsksThreeTimesThenSaysSo(t *testing.T) {
if !handled {
t.Fatalf("answer %d must be consumed as an answer", i)
}
// The wording changes with the attempt (Vikunja #457): repeating a
// question he already failed to answer is the worst way to ask it.
want, _ := whenQuestion(whenNoHour, i, h.now(), "")
if reply != want {
t.Fatalf("attempt %d should ask again as %q, got %q", i, want, reply)
}
if first, _ := whenQuestion(whenNoHour, 1, h.now(), ""); reply == first {
t.Fatalf("attempt %d repeated the first wording: %q", i, reply)
if reply != "На когда напомнить?" {
t.Fatalf("attempt %d should ask again, got %q", i, reply)
}
if h.clarifyStore.Get(voiceDialogueID, h.now()) == nil {
t.Fatalf("attempt %d must leave the question armed", i)
@@ -202,7 +181,7 @@ func TestClarifyMaxAttemptsIsConfigurable(t *testing.T) {
h, _, _ := newClarifyHandler(t)
h.clarifyMaxAttempts = 1
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
if _, asked := h.askClarify(clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
t.Fatal("expected a question")
}
if reply, handled := h.resolveClarifyAnswer(ctx, "ну не знаю"); !handled || reply != clarifyGaveUp {
@@ -216,7 +195,7 @@ func TestClarifyRestatedAnswerWins(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме")); !asked {
if _, asked := h.askClarify(clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме")); !asked {
t.Fatal("expected a question")
}
// First answer parses, but re-park it by hand as if she had asked again:
@@ -226,11 +205,10 @@ func TestClarifyRestatedAnswerWins(t *testing.T) {
if q == nil {
t.Fatal("expected an armed question")
}
first := h.extractor.Extract(ctx, router.IntentReminder, "сегодня в 11:00", h.now())
q.Slots = q.Answer("сегодня в 11:00", toDialogueSlots(first))
q.WhenText = "сегодня в 11:00"
first := h.extractor.Extract(ctx, router.IntentReminder, "в 11:00", h.now())
q.Slots = q.Answer("в 11:00", toDialogueSlots(first))
if reply, handled := h.resolveClarifyAnswer(ctx, "нет, сегодня в 15:00"); !handled || reply == clarifyGaveUp {
if reply, handled := h.resolveClarifyAnswer(ctx, "нет, в 15:00"); !handled || reply == clarifyGaveUp {
t.Fatalf("the restated answer should complete the request, handled=%v reply=%q", handled, reply)
}
reminders, err := st.DueReminders(ctx, h.now().Add(48*time.Hour))
@@ -243,35 +221,34 @@ func TestClarifyRestatedAnswerWins(t *testing.T) {
}
}
// TestActOffAllowlistIsStillRefused — naming a capability is not being granted
// one. Since Vikunja #556 an unresolved act no longer parks a question, so this
// goes through applyAction, which is the only way an act runs.
func TestActOffAllowlistIsStillRefused(t *testing.T) {
// TestClarifiedActOffAllowlistIsStillRefused — clarification fills in an
// argument, it never grants authority.
func TestClarifiedActOffAllowlistIsStillRefused(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
marker := filepath.Join(t.TempDir(), "not-allowed-ran")
if err := st.EnableTool(ctx, "uptime", []string{"true"}, false, "test", h.now()); err != nil {
t.Fatal(err)
}
reply := h.applyAction(ctx, router.Decision{
Utterance: "rm " + marker,
Intent: router.IntentAct,
Slots: router.Slots{Fn: "rm " + marker, HasFn: true},
})
if _, asked := h.askClarify(clarifyDec(router.IntentAct, router.Slots{Text: "сделай это"}, "сделай это")); !asked {
t.Fatal("an act with no fn should be asked about")
}
reply, handled := h.resolveClarifyAnswer(ctx, "rm "+marker)
if !handled {
t.Fatal("the answer should be consumed")
}
if strings.Contains(reply, "готово") {
t.Fatalf("an act that is not on the allowlist must not report success: %q", reply)
}
if _, err := os.Stat(marker); !os.IsNotExist(err) {
t.Fatalf("a clarified act off the allowlist ran anyway: %v", err)
}
if tools, err := st.ListTools(ctx, "enabled"); err != nil || len(tools) != 1 {
t.Fatalf("an act must not enable a tool: tools=%+v err=%v", tools, err)
if tools, err := st.ListTools(ctx, "enabled"); err != nil || len(tools) != 0 {
t.Fatalf("clarify must not enable a tool: tools=%+v err=%v", tools, err)
}
}
// TestDestructiveActStillNeedsConfirm — the confirm gate stands on the act path.
func TestDestructiveActStillNeedsConfirm(t *testing.T) {
// TestClarifiedDestructiveActStillNeedsConfirm — the confirm gate survives the
// clarify path.
func TestClarifiedDestructiveActStillNeedsConfirm(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
marker := filepath.Join(t.TempDir(), "destructive-ran")
@@ -279,16 +256,18 @@ func TestDestructiveActStillNeedsConfirm(t *testing.T) {
t.Fatal(err)
}
reply := h.applyAction(ctx, router.Decision{
Utterance: "delete_backups",
Intent: router.IntentAct,
Slots: router.Slots{Fn: "delete_backups", HasFn: true},
})
if _, asked := h.askClarify(clarifyDec(router.IntentAct, router.Slots{Text: "сделай это"}, "сделай это")); !asked {
t.Fatal("expected a question")
}
reply, handled := h.resolveClarifyAnswer(ctx, "delete_backups")
if !handled {
t.Fatal("the answer should be consumed")
}
if !strings.Contains(reply, "да") || h.pending == nil {
t.Fatalf("a destructive act must park a confirm: reply=%q pending=%+v", reply, h.pending)
t.Fatalf("a clarified destructive act must still park a confirm: reply=%q pending=%+v", reply, h.pending)
}
if _, err := os.Stat(marker); !os.IsNotExist(err) {
t.Fatalf("a destructive act ran before confirmation: %v", err)
t.Fatalf("a clarified destructive act ran before confirmation: %v", err)
}
}
@@ -301,7 +280,7 @@ func TestNoQuestionWhenNothingIsMissing(t *testing.T) {
clarifyDec(router.IntentQuery, router.Slots{Text: "ммм"}, "ммм"),
clarifyDec(router.IntentNote, router.Slots{Text: "..."}, "..."),
} {
if question, asked := h.askClarify(context.Background(), dec); asked {
if question, asked := h.askClarify(dec); asked {
t.Fatalf("intent %s should keep the canned reply, got %q", dec.Intent, question)
}
}
@@ -313,29 +292,29 @@ func TestNoQuestionWhenNothingIsMissing(t *testing.T) {
// TestClarifyExpiryIsAnnouncedAndWordsStillRoute — his answer lands after the
// TTL: she must say the old request is gone AND still answer the new words.
func TestClarifyExpiryIsAnnouncedAndWordsStillRoute(t *testing.T) {
ctx := withDialogueID(context.Background(), dialogueIDFor(sourceText, ""))
ctx := context.Background()
h, _, now := newClarifyHandler(t)
emb := router.NewHashEmbedder(1024)
h.recall.embedder = emb
h.router = buildRouter(emb, h.matcher, 0.55, nil, nil)
h.embedder = emb
h.router = buildRouter(emb, h.matcher, 0.55, nil)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
if _, asked := h.askClarify(clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
t.Fatal("expected a question")
}
*now = now.Add(clarifyTTL + time.Second)
reply := h.handleText(ctx, "", "как дела")
if !isClarifyExpired(reply) {
reply := h.handleText(ctx, "как дела")
if !strings.HasPrefix(reply, clarifyExpired) {
t.Fatalf("expired question must be announced first, got %q", reply)
}
if trimClarifyExpired(reply) == "" {
if strings.TrimSpace(strings.TrimPrefix(reply, clarifyExpired)) == "" {
t.Fatalf("the new words must still be answered, got only the notice: %q", reply)
}
if h.clarifyStore.Get(textDialogueID, h.now()) != nil {
if h.clarifyStore.Get(voiceDialogueID, h.now()) != nil {
t.Fatal("the expired question must be gone")
}
// The notice is said once, not on every later utterance.
if reply := h.handleText(ctx, "", "как дела"); isClarifyExpired(reply) {
if reply := h.handleText(ctx, "как дела"); strings.Contains(reply, clarifyExpired) {
t.Fatalf("notice repeated on a later turn: %q", reply)
}
}
@@ -348,445 +327,3 @@ func TestNoPendingQuestionFallsThrough(t *testing.T) {
t.Fatalf("no open question ⇒ must not be treated as an answer, got %q", reply)
}
}
// TestClarifyAsksAboutTheSecondGapToo — "напомни" with neither a subject nor a
// time. She asks about the subject, he gives it, and the request is still not
// complete. The old code handed applyAction a reminder with no time, which
// answered with a parse error for a question she never asked.
func TestClarifyAsksAboutTheSecondGapToo(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
question, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{}, "напомни"))
if !asked || question != "О чём напомнить?" {
t.Fatalf("expected the subject question, got %q asked=%v", question, asked)
}
reply, handled := h.resolveClarifyAnswer(ctx, "позвонить маме")
if !handled {
t.Fatal("the answer must be consumed as an answer")
}
// Second gap, second attempt, so it is the second wording of the time
// question — the attempt budget is shared between the two paths.
want, _ := whenQuestion(whenNoHour, 2, h.now(), "")
if reply != want {
t.Fatalf("a filled subject with no time must ask about the time as %q, got %q", want, reply)
}
q := h.clarifyStore.Get(voiceDialogueID, h.now())
if q == nil {
t.Fatal("the second gap must leave a question armed")
}
if q.Slots.Text == "" {
t.Fatalf("the re-parked question lost the answered subject: %+v", q.Slots)
}
if reply, handled := h.resolveClarifyAnswer(ctx, "сегодня в 11:00"); !handled || reply == clarifyGaveUp {
t.Fatalf("the time answer must complete the reminder, handled=%v reply=%q", handled, reply)
}
reminders, err := st.DueReminders(ctx, h.now().Add(48*time.Hour))
if err != nil || len(reminders) != 1 {
t.Fatalf("expected one reminder: %v err=%v", reminders, err)
}
if !strings.Contains(reminders[0].Payload, "маме") {
t.Fatalf("the reminder lost the subject: %q", reminders[0].Payload)
}
}
// TestClarifySecondGapRespectsTheAttemptCap — the second gap spends a question
// out of the same budget, so it cannot turn a capped exchange into an endless
// one. With one attempt allowed she acts on what she has instead of asking.
func TestClarifySecondGapRespectsTheAttemptCap(t *testing.T) {
ctx := context.Background()
h, _, _ := newClarifyHandler(t)
h.clarifyMaxAttempts = 1
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{}, "напомни")); !asked {
t.Fatal("expected the subject question")
}
reply, handled := h.resolveClarifyAnswer(ctx, "позвонить маме")
if !handled {
t.Fatal("the answer must be consumed")
}
if reply == "Когда?" {
t.Fatal("out of attempts she must not ask a second question")
}
if h.clarifyStore.Get(voiceDialogueID, h.now()) != nil {
t.Fatal("no question may stay armed past the cap")
}
}
// TestClarifyProseHoldsThePersona — these lines are hand-written Russian that
// the phrasing eval never sees, because they never go through the phraser. They
// carry feminine self-reference ("ждала", "отпустила") and address him with a
// plain imperative, and they are exactly the kind of string someone later edits
// reaching for a synonym. Run the eval's own persona checks over them here.
func TestClarifyProseHoldsThePersona(t *testing.T) {
// Only the persona checks. Length and on-topic do not apply: these are not
// nudges, they have no rule to be on topic about, and the expiry lines are
// deliberately longer than a nudge ceiling.
want := map[string]bool{
eval.CheckFeminine: true,
eval.CheckHisGender: true,
eval.CheckAddress: true,
eval.CheckCringe: true,
}
lines := append([]string{clarifyGaveUp, clarifyCancelled, clarifyDropped}, clarifyExpiredVariants...)
lines = append(lines, clarifyMissedVariants...)
for _, variants := range clarifyQuestionVariants {
lines = append(lines, variants...)
}
for _, line := range lines {
for _, r := range eval.RunChecks(eval.Case{}, line, "neutral") {
// The apology clause of the cringe check is scoped to nudges: it
// exists because apologising for a greenlit nudge undermines it.
// These lines are the opposite case. She did not understand him, or
// she let his request go, and "прости" there is ordinary speech
// rather than grovelling. Every other cringe rule still applies:
// pet names, emoji, exclamations, fake concern, praise.
// checkCringe returns the first break it finds, so this skip also
// hides a later one in the same line. Kept narrow on purpose: it
// only fires on a leading "apology (…)" detail.
if r.Name == eval.CheckCringe && strings.HasPrefix(r.Detail, "apology") {
continue
}
if want[r.Name] && !r.Pass {
t.Errorf("%q fails %s: %s", line, r.Name, r.Detail)
}
}
}
}
// TestExpiryNoticeSurvivesAConfirmTurn — she asks a question, he walks off, the
// question expires, he comes back and answers a confirm that is still parked.
// The confirm turn used to return before the notice was even computed, so he
// answered the confirm and never heard that the older request was let go.
func TestExpiryNoticeSurvivesAConfirmTurn(t *testing.T) {
ctx := withDialogueID(context.Background(), dialogueIDFor(sourceText, ""))
h, _, now := newClarifyHandler(t)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
t.Fatal("expected a question")
}
// A confirm parked with a longer life than the question, so only the
// question is stale when he speaks.
h.pending = &pendingAct{fn: "delete_backups", phrase: "удалить бэкапы", expiry: now.Add(time.Hour)}
*now = now.Add(clarifyTTL + time.Second)
reply := h.handleText(ctx, "", "нет")
if !isClarifyExpired(reply) {
t.Fatalf("the expired question must be announced on a confirm turn too, got %q", reply)
}
if trimClarifyExpired(reply) == "" {
t.Fatalf("the confirm answer must survive the notice, got only the notice: %q", reply)
}
if h.pending != nil {
t.Fatal("the confirm must still have been consumed")
}
if h.clarifyStore.Get(textDialogueID, h.now()) != nil {
t.Fatal("the expired question must be gone")
}
}
// The other half of the subject question: his answer must fill the empty slot,
// not replace the request. Slots.Text used to be the whole raw utterance for
// every intent, so the branch that fills a text slot could only ever overwrite
// (Vikunja #383). Here the parked request holds the hour and the answer holds
// what to say at it, and the reminder that lands has both.
func TestClarifySubjectAnswerFillsRatherThanClobbers(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
at := h.now().Add(2 * time.Hour)
question, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder,
router.Slots{Time: at, HasTime: true}, "напомни сегодня в 11 утра"))
if !asked || question != "О чём напомнить?" {
t.Fatalf("expected the subject question, got %q asked=%v", question, asked)
}
reply, handled := h.resolveClarifyAnswer(ctx, "позвонить маме")
if !handled {
t.Fatal("the answer to an open question must be consumed as an answer")
}
if reply == clarifyGaveUp {
t.Fatalf("a good answer must not drop the request: %q", reply)
}
reminders, err := st.DueReminders(ctx, h.now().Add(48*time.Hour))
if err != nil || len(reminders) != 1 {
t.Fatalf("clarified reminder was not created: reminders=%v err=%v", reminders, err)
}
if !strings.Contains(reminders[0].Payload, "маме") {
t.Fatalf("the answer never reached the reminder: %q", reminders[0].Payload)
}
// The hour is the fire time, not a word in the body: the body is what she
// says at the hour, and the time expression is stripped out of it
// (Vikunja #469). Clobbering the parked request would show up here as a
// reminder that fires at some other time than the one he asked for.
if got := reminders[0].FireTs.UTC(); !got.Equal(at.UTC()) {
t.Fatalf("the answer clobbered the original request: fires at %v, want %v", got, at.UTC())
}
}
// TestClarifyIsPerConversation — the parked question belongs to the reach that
// was asked. Before this the clarify store had one global key, so a question
// asked in the web chat and never answered captured the next utterance from
// telegram, or from the mic, and answered it against a request the speaker had
// never made (Vikunja #466).
func TestClarifyIsPerConversation(t *testing.T) {
h, _, _ := newClarifyHandler(t)
web := withDialogueID(context.Background(), dialogueIDFor(sourceText, "web"))
telegram := withDialogueID(context.Background(), dialogueIDFor(sourceText, "telegram:42"))
if _, asked := h.askClarify(web, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
t.Fatal("expected a question on the web conversation")
}
if _, handled := h.resolveClarifyAnswer(telegram, "в 11:00"); handled {
t.Fatal("a question asked on the web must not eat a telegram utterance")
}
if _, handled := h.resolveClarifyAnswer(voiceCtx(), "в 11:00"); handled {
t.Fatal("a question asked on the web must not eat what he says at the mic")
}
if reply, handled := h.resolveClarifyAnswer(web, "в 11:00"); !handled || reply == clarifyGaveUp {
t.Fatalf("the asker's own answer must land, handled=%v reply=%q", handled, reply)
}
}
// voiceCtx — the mic's conversation, which carries no id of its own.
func voiceCtx() context.Context {
return withDialogueID(context.Background(), dialogueIDFor(sourceVoice, ""))
}
// TestARestartExpiresTheParkedQuestion pins the Vikunja #385 decision: the
// question dies with the process, and she does not claim to have let it go —
// the words that follow are routed as a fresh request. Restarting is modelled
// the way the daemon does it, by building a second handler over the same store.
func TestARestartExpiresTheParkedQuestion(t *testing.T) {
h, _, _ := newClarifyHandler(t)
ctx := voiceCtx()
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни"}, "напомни")); !asked {
t.Fatal("expected a question before the restart")
}
restarted, _, _ := newClarifyHandler(t)
if _, handled := restarted.resolveClarifyAnswer(ctx, "в 11:00"); handled {
t.Fatal("a question parked before the restart must not eat the next utterance")
}
if notice := restarted.clarifyExpiredNotice(ctx); notice != "" {
t.Fatalf("notice = %q, want silence: nothing survived to expire", notice)
}
}
// TestClarifyStepsAsideForItsOwnRequest — Vikunja #554. An act she could not
// fulfil parked "Что сделать?", and the three turns after it were scored as
// answers to that question: a world question, then "как дела", then the give-up
// line. None of them was ever an answer.
func TestClarifyStepsAsideForItsOwnRequest(t *testing.T) {
ctx := context.Background()
h, _, _ := newClarifyHandler(t)
// A reminder, not the act this bug was found on: since Vikunja #556 an act
// no longer parks anything, so it can no longer eat the turn after it.
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме")); !asked {
t.Fatal("a reminder with no time should be asked about")
}
if reply, handled := h.resolveClarifyAnswer(ctx, "кто изобрёл телефон"); handled {
t.Fatalf("a world question must route as itself, got %q", reply)
}
// Not eating the turn is `handled == false` above, and that is the whole of
// #554. Since V-561 the question also SURVIVES it: a side query suspends the
// flow rather than ending it, so the reminder is still there and still on the
// attempt it was parked with.
q := h.clarifyStore.Get(voiceDialogueID, h.now())
if q == nil {
t.Fatal("a side query must suspend the parked question, not drop it")
}
if q.Attempts != 1 {
t.Errorf("a turn that was never an answer spent an attempt: %d, want 1", q.Attempts)
}
}
// TestClarifyStillRetriesOnAnAnswerThatMissed — the other half of #554, and the
// reason the test above is narrow. A bare noun answers nothing either, but it
// carries no request of its own, so she asks again as before.
func TestClarifyStillRetriesOnAnAnswerThatMissed(t *testing.T) {
ctx := context.Background()
h, _, _ := newClarifyHandler(t)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме")); !asked {
t.Fatal("expected the time question")
}
reply, handled := h.resolveClarifyAnswer(ctx, "ага")
if !handled || reply == "" {
t.Fatalf("a missed answer must still be re-asked, handled=%v reply=%q", handled, reply)
}
if h.clarifyStore.Get(voiceDialogueID, h.now()) == nil {
t.Error("the question must survive a missed answer")
}
}
// TestClarifyQuestionShapedAnswerThatFillsTheGapStillLands — the guard runs only
// where nothing was filled. "во сколько?" is question-shaped and is also how a
// time gets said back, so an answer that closes the gap wins whatever its shape.
func TestClarifyQuestionShapedAnswerThatFillsTheGapStillLands(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
if _, asked := h.askClarify(ctx, clarifyDec(router.IntentReminder, router.Slots{Text: "напомни позвонить маме"}, "напомни позвонить маме")); !asked {
t.Fatal("expected the time question")
}
if reply, handled := h.resolveClarifyAnswer(ctx, "а что если сегодня в 11:00"); !handled || reply == clarifyGaveUp {
t.Fatalf("an answer that fills the gap must land, handled=%v reply=%q", handled, reply)
}
if reminders, err := st.DueReminders(ctx, h.now().Add(48*time.Hour)); err != nil || len(reminders) != 1 {
t.Fatalf("reminder was not created: reminders=%v err=%v", reminders, err)
}
}
// TestUnresolvedActSaysItDoesNotKnowTheCommand — Vikunja #556. "Что сделать?"
// has no answer he can give, so an act that matched no capability is refused in
// one line and nothing is parked. It does not recite what she can do instead.
func TestUnresolvedActSaysItDoesNotKnowTheCommand(t *testing.T) {
ctx := context.Background()
h, st, _ := newClarifyHandler(t)
// Enabled tools change nothing here: this act matched none of them.
if err := st.EnableTool(ctx, "uptime", []string{"true"}, false, "test", h.now()); err != nil {
t.Fatal(err)
}
reply, spoken := h.askClarify(ctx, clarifyDec(router.IntentAct, router.Slots{Text: "выключи свет"}, "выключи свет"))
if !spoken || reply != actNotRecognized {
t.Fatalf("reply = %q spoken=%v, want %q", reply, spoken, actNotRecognized)
}
if strings.Contains(reply, "uptime") {
t.Errorf("reply = %q, want no list of capabilities he did not ask about", reply)
}
if h.clarifyStore.Get(voiceDialogueID, h.now()) != nil {
t.Error("nothing to ask about, so nothing may be parked")
}
}
// newRoutingClarifyHandler wires the real cascade (hash embedder, no model) onto
// the clarify handler, so a test can drive handleText end to end and see which
// gate claimed the turn.
func newRoutingClarifyHandler(t *testing.T) (*reactiveHandler, *store.Store) {
t.Helper()
h, st, _ := newClarifyHandler(t)
h.router = buildRouter(router.NewHashEmbedder(1024), h.matcher, 0.55, nil, nil)
h.recall = recallWiring{embedder: router.NewHashEmbedder(1024), memStore: memory.NewInMemoryStore()}
return h, st
}
// TestIncompleteReminderAsksInsteadOfFailing — Vikunja #557. "напомни позвонить"
// is routed confidently and is still half a request. It used to reach applyAction,
// fail on the missing time and park nothing, so the "в семь вечера" that followed
// was routed as a world question and web-searched.
func TestIncompleteReminderAsksInsteadOfFailing(t *testing.T) {
ctx := context.Background()
h, st := newRoutingClarifyHandler(t)
reply := h.handleText(ctx, "web", "напомни позвонить маме")
want, _ := whenQuestion(whenNoHour, 1, h.now(), "")
if reply != want {
t.Fatalf("reply = %q, want the time question %q", reply, want)
}
if h.clarifyStore.Get(dialogueIDFor(sourceText, "web"), h.now()) == nil {
t.Fatal("the request must be parked, or the answer has nowhere to land")
}
if reply := h.handleText(ctx, "web", "сегодня в семь вечера"); strings.Contains(reply, "нашла") {
t.Fatalf("the answer to her own question must not be looked up: %q", reply)
}
if reminders, err := st.DueReminders(ctx, h.now().Add(48*time.Hour)); err != nil || len(reminders) != 1 {
t.Fatalf("the answer did not complete the reminder: reminders=%v err=%v", reminders, err)
}
}
// TestBareCaptureVerbAsksWhatToRecord — the other half of #557. A bare "запиши"
// went to the resident model as chat, which agreed to a wording change nobody
// asked for. It is a fact with no key, and that gap has a question.
func TestBareCaptureVerbAsksWhatToRecord(t *testing.T) {
ctx := context.Background()
h, _ := newRoutingClarifyHandler(t)
reply := h.handleText(ctx, "web", "запиши")
want, _ := clarifyQuestionFor(dialogue.SlotKey, 1)
if reply != want {
t.Fatalf("reply = %q, want %q", reply, want)
}
if h.clarifyStore.Get(dialogueIDFor(sourceText, "web"), h.now()) == nil {
t.Fatal("the request must be parked so the next utterance completes it")
}
}
// TestACompleteTurnStillDoesNotAsk — the gate reads a missing slot, not any
// slot, so a request she can act on must never turn into a question. Checked on
// the decision rather than through the cascade: what is at stake is the gate's
// condition, and driving it through the hash embedder would measure routing.
func TestACompleteTurnStillDoesNotAsk(t *testing.T) {
ctx := context.Background()
h, _, _ := newClarifyHandler(t)
complete := []router.Decision{
{Intent: router.IntentReminder, Slots: router.Slots{Text: "позвонить маме", HasTime: true}, Utterance: "напомни завтра в 11 утра позвонить маме"},
{Intent: router.IntentFact, Slots: router.Slots{Key: "water", Value: "выпил", HasKey: true}, Utterance: "я выпил воды"},
{Intent: router.IntentNote, Slots: router.Slots{Text: "купить хлеб"}, Utterance: "запиши купить хлеб"},
{Intent: router.IntentQuery, Slots: router.Slots{Text: "что у меня сегодня"}, Utterance: "что у меня сегодня"},
}
for _, dec := range complete {
if gaps := missingFor(dec); len(gaps) > 0 {
t.Errorf("%q reads as incomplete: %v", dec.Utterance, gaps)
}
if reply, asked := h.askClarify(ctx, dec); asked {
t.Errorf("%q was answered with a question: %q", dec.Utterance, reply)
}
}
}
// TestTheResumedQuestionIsItsOwnSentence — V-654. The re-ask used to be spliced
// onto the answer with a comma, so a real answer and an unrelated open question
// read as one run-on thought and the question vanished into its tail.
func TestTheResumedQuestionIsItsOwnSentence(t *testing.T) {
const resumed = "На какое время поставить напоминание?"
cases := []struct {
name string
reply string
want string
}{
{
// The measured line, shortened. Two sentences, and the question keeps
// its capital.
name: "a statement keeps its full stop",
reply: "Вайфай пароль лежит в ящике стола.",
want: "Вайфай пароль лежит в ящике стола. " + resumed,
},
{
name: "a reply with no terminator is given one",
reply: "Вайфай пароль лежит в ящике стола",
want: "Вайфай пароль лежит в ящике стола. " + resumed,
},
{
// She sometimes answers a side query by asking him to say it again.
// Two questions, and neither may swallow the other.
name: "a question keeps its mark",
reply: "Можешь переформулировать?",
want: "Можешь переформулировать? " + resumed,
},
{
name: "an ellipsis is already an ending",
reply: "Не уверена…",
want: "Не уверена… " + resumed,
},
{
name: "a resume with no answer in front of it is just the question",
reply: "",
want: resumed,
},
}
for _, tc := range cases {
if got := withResumed(tc.reply, resumed); got != tc.want {
t.Errorf("%s: withResumed(%q) = %q, want %q", tc.name, tc.reply, got, tc.want)
}
}
if got := withResumed("Готово.", ""); got != "Готово." {
t.Errorf("nothing to resume must leave the reply alone, got %q", got)
}
}
-155
View File
@@ -1,155 +0,0 @@
package main
import (
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/router"
)
// The clarify copy deck (Vikunja #457).
//
// Every clarify turn used to say one sentence per gap, and a re-ask repeated
// that sentence word for word. A question he already failed to answer is the
// worst one to ask again unchanged: the second wording is the one that tells
// him which part she missed.
//
// Fixed templates, not model output, for the reason clarifyQuestions has always
// given: the resident model would wander, and a question whose wording changes
// at random is harder to answer than a blunt one. What changes here is that the
// wording varies with the attempt rather than with a die roll — the first ask is
// short, the second names the gap, the third spells it out.
//
// No schema_version, unlike internal/phraser/nudge_templates.go. These are Go
// constants compiled into the daemon, so there is no file that can drift out of
// step with the code that reads it.
//
// Persona holds: infinitive and imperative questions, so there is no gender
// agreement to get wrong, "ты" throughout, and no pet names.
var clarifyQuestionVariants = map[dialogue.Slot][]string{
dialogue.SlotTime: {
"Когда?",
"Во сколько напомнить?",
"Скажи время — например, «в семь вечера» или «через час».",
},
dialogue.SlotText: {
"О чём напомнить?",
"Что сказать тебе в это время?",
"Скажи одной фразой, о чём напомнить.",
},
dialogue.SlotKey: {
"Что записать?",
"Что именно отметить?",
"Назови, что записать — например, «выпил воды».",
},
// Not spoken since Vikunja #556: askClarify answers actNotRecognized for a
// missing capability rather than asking. Kept because clarifyQuestion still
// reports the gap, and a re-ask deck with a hole in it is harder to read.
dialogue.SlotFn: {
"Что сделать?",
"Какое действие выполнить?",
"Назови действие — я умею только то, что ты мне разрешил.",
},
}
// clarifyResumedVariants — the wording for a question coming BACK after a side
// query took the turn away from it (Vikunja #561).
//
// It is not the first question again. "Когда?" works in the same breath as
// "напомни позвонить маме", because the thing it is about was just said. After
// a turn about the weather in Rome it does not: he has been thinking about
// something else, and a bare "Когда?" asks him to remember what she is holding.
// So the resumed form names the request — "напоминание", "заметка" — and the
// first form stays short.
//
// One wording per slot, not a rotation and not an attempt ladder. A resume does
// not spend an attempt (that is the point of suspending rather than re-asking),
// so there is no attempt number to vary on, and this line is heard once per
// interruption rather than repeatedly.
//
// Persona holds: infinitive, so no gender agreement, "ты" nowhere needed, no pet
// names.
var clarifyResumedVariants = map[dialogue.Slot]string{
dialogue.SlotTime: "На какое время поставить напоминание?",
dialogue.SlotText: "Так о чём напомнить?",
dialogue.SlotKey: "Так что записать?",
dialogue.SlotFn: "Так какое действие выполнить?",
}
// clarifyResumedFor gives the resumed wording for a slot. ("", false) when the
// slot has none, and the caller then resumes nothing rather than inventing a
// question — a flow it cannot re-ask is one it must not claim to be holding.
func clarifyResumedFor(slot dialogue.Slot) (string, bool) {
q, ok := clarifyResumedVariants[slot]
return q, ok
}
// actNotRecognized is what an act she cannot run gets (Vikunja #556).
//
// The deck used to ask "Что сделать?" instead. That question has no answer he
// can give: he already said what he wanted, and nothing he repeats will match a
// capability that is not there. So she asked, failed, asked again and gave up —
// three turns spent on one refusal. She says it once now, and parks nothing.
//
// It does not recite the allowlist. A list of names he did not ask about is not
// an answer to the thing he did ask about.
const actNotRecognized = "Такую команду я не знаю."
// clarifyQuestionFor picks the wording for this attempt. attempt is 1-based, as
// PendingQuestion.Attempts counts it; anything past the list uses the last and
// most explicit phrasing rather than wrapping round to the short one, because
// wrapping would ask the same short question he has already not answered.
//
// Deterministic on purpose, unlike clarifyExpiredLine: an expiry notice is the
// same statement however it is worded, and a re-ask is not.
func clarifyQuestionFor(slot dialogue.Slot, attempt int) (string, bool) {
variants, ok := clarifyQuestionVariants[slot]
if !ok || len(variants) == 0 {
return "", false
}
i := attempt - 1
if i < 0 {
i = 0
}
if i >= len(variants) {
i = len(variants) - 1
}
return variants[i], true
}
// clarifyMissedVariants — she is asking for the whole utterance again, because
// the gate fired on an intent with nothing identifiable to ask about (note,
// query, chat, system are not in wantedSlots).
//
// Rotated like the expiry lines and for the same reason: this is the line he
// hears whenever she misses him completely, so it is a line that repeats, and
// the same sentence every time is what makes a house assistant sound like a
// kiosk. All of them say the same two things — she did not catch it, and he
// should say it again — because the wording may vary and the meaning may not.
var clarifyMissedVariants = []string{
"Не совсем поняла — скажи, пожалуйста, ещё раз.",
"Я тебя не разобрала. Повтори, пожалуйста.",
"Не уловила. Скажи это по-другому?",
"Прости, не поняла — попробуй сказать иначе.",
}
// clarifyMissedFor picks a wording by the utterance itself, so the same words
// asked twice get the same answer and two different misses sound different.
//
// A hash, not rand: a test that drives an utterance twice must not depend on a
// die roll, and the point of rotating is only that consecutive misses differ.
func clarifyMissedFor(utterance string) string {
var sum int
for _, r := range utterance {
sum += int(r)
}
return clarifyMissedVariants[sum%len(clarifyMissedVariants)]
}
// clarifyMissedLine is the canned reply for a clarify decision she cannot turn
// into a question. Returns "" for a decision that is not a clarify, so the
// caller keeps its own reply.
func clarifyMissedLine(dec router.Decision) string {
if !dec.Clarify {
return ""
}
return clarifyMissedFor(dec.Utterance)
}
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package main
import (
"testing"
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/router"
)
// Every slot she can ask about has a wording for every attempt she is allowed,
// and no two attempts on one slot read the same. A deck with a repeated line is
// the defect this deck exists to fix (Vikunja #457).
func TestClarifyQuestionsVaryByAttempt(t *testing.T) {
for slot, variants := range clarifyQuestionVariants {
seen := map[string]bool{}
for _, v := range variants {
if v == "" {
t.Errorf("%s: empty wording in the deck", slot)
}
if seen[v] {
t.Errorf("%s: repeated wording %q", slot, v)
}
seen[v] = true
}
for attempt := 1; attempt <= len(variants); attempt++ {
got, ok := clarifyQuestionFor(slot, attempt)
if !ok || got != variants[attempt-1] {
t.Errorf("%s attempt %d = %q ok=%v, want %q", slot, attempt, got, ok, variants[attempt-1])
}
}
}
}
// Past the end she keeps the most explicit wording. Wrapping round would ask
// the short question he has already not answered twice.
func TestClarifyQuestionPastTheEndKeepsTheLastWording(t *testing.T) {
last := clarifyQuestionVariants[dialogue.SlotTime][len(clarifyQuestionVariants[dialogue.SlotTime])-1]
for _, attempt := range []int{0, 4, 9} {
if got, _ := clarifyQuestionFor(dialogue.SlotTime, attempt); attempt > 1 && got != last {
t.Errorf("attempt %d = %q, want the last wording %q", attempt, got, last)
}
}
if _, ok := clarifyQuestionFor("nonesuch", 1); ok {
t.Error("an unknown slot must have no question")
}
}
// The missed line is stable for one utterance and absent for a decision that is
// not a clarify.
func TestClarifyMissedLine(t *testing.T) {
d := router.Decision{Clarify: true, Utterance: "мгм"}
first := clarifyMissedLine(d)
if first == "" || first != clarifyMissedLine(d) {
t.Fatalf("the missed line must be stable for one utterance, got %q", first)
}
if got := clarifyMissedLine(router.Decision{Intent: router.IntentNote}); got != "" {
t.Errorf("a decision that is not a clarify got %q", got)
}
// The empty utterance still gets a line: she has to say something.
if got := clarifyMissedLine(router.Decision{Clarify: true}); got == "" {
t.Error("an empty utterance must still be answered out loud")
}
}
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@@ -1,190 +0,0 @@
package main
import (
"bytes"
"context"
"crypto/rand"
"io"
"os"
"path/filepath"
"testing"
"time"
"github.com/kami/maven/internal/store"
"github.com/kami/maven/internal/webauthn"
)
func randBytes(t *testing.T, n int) []byte {
t.Helper()
b := make([]byte, n)
if _, err := io.ReadFull(rand.Reader, b); err != nil {
t.Fatalf("rand: %v", err)
}
b[0] |= 1
return b
}
func TestDaemonLockStartsLockedAndFlips(t *testing.T) {
dl := newDaemonLock(true)
if !dl.isLocked() {
t.Fatal("newDaemonLock(true) is not locked")
}
dl.unlock(nil)
if dl.isLocked() {
t.Fatal("still locked after unlock")
}
if newDaemonLock(false).isLocked() {
t.Fatal("newDaemonLock(false) reports locked")
}
}
// closeStore must be safe on a daemon that never unlocked and safe twice —
// shutdown runs it unconditionally.
func TestDaemonLockCloseStoreIsSafeWhenNeverUnlocked(t *testing.T) {
dl := newDaemonLock(true)
if err := dl.closeStore(); err != nil {
t.Fatalf("closeStore with no store: %v", err)
}
if err := dl.closeStore(); err != nil {
t.Fatalf("second closeStore: %v", err)
}
}
// The data-loss bug: in locked mode the store is opened on an IPC goroutine
// inside UnlockFn, and shutdown runs on main. Without the handoff nothing
// calls Close, and Close is what re-encrypts the tmpfs working copy back over
// the ciphertext file — so every write of a cold-started session vanished.
func TestDaemonLockSealsTheStoreOpenedAfterUnlock(t *testing.T) {
dir := t.TempDir()
dbPath := filepath.Join(dir, "maven.db")
tmpfs := filepath.Join(dir, "work")
key := randBytes(t, 32)
// Store.Close zeroes the key slice it was handed (encState.key is the
// caller's backing array), so the next boot needs its own copy — exactly
// as mavend keeps envKeyBytes separate from the config's key.
nextBoot := bytes.Clone(key)
ctx := context.Background()
// Cold start: locked, no store.
dl := newDaemonLock(true)
// ... unlock arrives, opens the store and hands it over.
st, err := store.OpenEncrypted(ctx, dbPath, tmpfs, key)
if err != nil {
t.Fatalf("OpenEncrypted: %v", err)
}
dl.unlock(st)
if _, err := st.WriteNote(ctx, time.Now(), "заметка после холодного старта", nil, "test"); err != nil {
t.Fatalf("WriteNote: %v", err)
}
// Shutdown.
if err := dl.closeStore(); err != nil {
t.Fatalf("closeStore: %v", err)
}
if err := dl.closeStore(); err != nil {
t.Fatalf("second closeStore after a real store: %v", err)
}
// Next boot with the same key must see the write.
st2, err := store.OpenEncrypted(ctx, dbPath, tmpfs, nextBoot)
if err != nil {
t.Fatalf("reopen: %v", err)
}
defer st2.Close()
notes, err := st2.RecentNotes(ctx, 10)
if err != nil {
t.Fatalf("RecentNotes: %v", err)
}
if len(notes) != 1 {
t.Fatalf("got %d notes after a cold-started session, want 1 — the session was lost", len(notes))
}
}
// The whole point of the wrapped blob: what sits in the state dir must not let
// anyone open the database. Nothing written there may contain the key, and the
// ciphertext must not be readable with a wrong one.
func TestColdStartLeavesNoPlaintextKeyOnDisk(t *testing.T) {
dir := t.TempDir()
dbPath := filepath.Join(dir, "maven.db")
tmpfs := filepath.Join(dir, "work")
wrappedPath := filepath.Join(dir, "db_key.wrapped")
key := randBytes(t, 32)
secret := randBytes(t, 32)
ctx := context.Background()
blob, err := webauthn.WrapKey(key, secret)
if err != nil {
t.Fatalf("WrapKey: %v", err)
}
if err := os.WriteFile(wrappedPath, blob, 0o600); err != nil {
t.Fatalf("write wrapped key: %v", err)
}
st, err := store.OpenEncrypted(ctx, dbPath, tmpfs, key)
if err != nil {
t.Fatalf("OpenEncrypted: %v", err)
}
if _, err := st.WriteNote(ctx, time.Now(), "секрет", nil, "test"); err != nil {
t.Fatalf("WriteNote: %v", err)
}
if err := st.Close(); err != nil {
t.Fatalf("Close: %v", err)
}
// Walk everything in the state dir; none of it may contain the key.
err = filepath.Walk(dir, func(p string, info os.FileInfo, err error) error {
if err != nil || info.IsDir() {
return err
}
b, rerr := os.ReadFile(p)
if rerr != nil {
return nil // unreadable is not a leak
}
if bytes.Contains(b, key) {
t.Errorf("%s contains the plaintext encryption key", p)
}
return nil
})
if err != nil {
t.Fatalf("walk: %v", err)
}
// The wrapped file must have owner-only permissions.
fi, err := os.Stat(wrappedPath)
if err != nil {
t.Fatalf("stat: %v", err)
}
if perm := fi.Mode().Perm(); perm != 0o600 {
t.Errorf("wrapped key file mode = %o, want 600", perm)
}
// A wrong passkey must not open the store.
if _, _, err := webauthn.UnwrapKey(blob, randBytes(t, 32)); err == nil {
t.Fatal("a wrong PRF secret unwrapped the key")
}
if _, err := store.OpenEncrypted(ctx, dbPath, filepath.Join(dir, "work2"), randBytes(t, 32)); err == nil {
t.Fatal("the encrypted store opened under a wrong key")
}
// And the right one round-trips back to a readable database.
got, version, err := webauthn.UnwrapKey(blob, secret)
if err != nil {
t.Fatalf("UnwrapKey: %v", err)
}
if version != webauthn.BlobV2 {
t.Errorf("blob version = %v, want v2", version)
}
st2, err := store.OpenEncrypted(ctx, dbPath, tmpfs, got)
if err != nil {
t.Fatalf("reopen with the unwrapped key: %v", err)
}
defer st2.Close()
notes, err := st2.RecentNotes(ctx, 10)
if err != nil {
t.Fatalf("RecentNotes: %v", err)
}
if len(notes) != 1 {
t.Fatalf("got %d notes, want 1", len(notes))
}
}
-311
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@@ -1,311 +0,0 @@
package main
import (
"context"
"log"
"slices"
"sort"
"strings"
"time"
"unicode"
"github.com/kami/maven/internal/lexicon"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
)
// pendingHexisExec — a mutating Hexis capability parked awaiting a spoken
// confirm. The confirmation is bound to the resolved capability + canonical
// target entity so a later "да" can only execute exactly what was proposed
// (ecosystem invariant: protected actions require bound confirmation).
type pendingHexisExec struct {
capabilityID string
capName string
entityID string
displayName string
expiry time.Time
// correlationID — the id the proposing turn minted for this action. A
// confirm arrives on a later turn with a context of its own, so without
// carrying it here the execution recorded a fresh id and no causation at
// all, and the resolve, the discovery and the thing they authorised sat in
// the trace as unrelated calls. The contract mints one id per action, and
// the action began when she asked.
correlationID string
}
// pendingRoutineConfirm — a proposed routine awaiting a spoken y/n to become
// a recurring reminder. Set by detectPattern after creating a proposal.
type pendingRoutineConfirm struct {
routineID int64
action string
object string
interval float64
phrase string
expiry time.Time
}
// pendingAct — a destructive act awaiting a spoken confirm.
type pendingAct struct {
fn string
args []string
phrase string
expiry time.Time
}
// confirmTTL — how long a parked destructive confirm stays answerable. Short:
// a confirm is a same-breath gesture; a stale prompt shouldn't fire on an
// unrelated later "да".
const confirmTTL = 90 * time.Second
// park stores a destructive act awaiting confirmation. Overwrites any prior
// pending (last-asked wins — single-user box).
func (h *reactiveHandler) park(fn string, args []string, phrase string) {
h.mu.Lock()
h.pending = &pendingAct{fn: fn, args: args, phrase: phrase, expiry: h.now().Add(confirmTTL)}
h.mu.Unlock()
}
// resolveConfirm interprets an utterance as the answer to a parked destructive
// act OR a parked routine proposal. Returns (reply, true) when it consumed the
// utterance as a y/n answer; ("", false) when there's nothing pending (or the
// parked act expired), so the caller routes the utterance normally.
//
// An utterance that is not clearly yes or no is not an answer at all, so it is
// handed straight back and the pending stays parked until it expires (V-567).
// This resolver runs before routing and holds the most dangerous trigger on the
// box; it may only claim a turn it is certain about.
func (h *reactiveHandler) resolveConfirm(ctx context.Context, text string) (string, bool) {
verdict := classifyConfirm(text)
if verdict == confirmUnknown {
return "", false
}
h.mu.Lock()
defer h.mu.Unlock()
for _, r := range h.confirmResolvers(ctx) {
if !r.claim() {
continue
}
// The slot is already cleared by claim().
switch verdict {
case confirmYes:
return r.yes(), true
default:
return r.no(), true
}
}
return "", false
}
// confirmResolver — one parked-confirm slot in the chain. claim() reports
// whether this slot holds a live pending, taking it (and dropping an expired
// one) as it goes; yes/no then run the answer. Only ever called with h.mu held.
type confirmResolver struct {
claim func() bool
yes func() string
no func() string
}
// confirmResolvers builds the ordered chain resolveConfirm walks. Order is
// deliberate: the routine proposal is checked before the tool confirm so a
// routine confirm doesn't get eaten by a stale tool pending.
func (h *reactiveHandler) confirmResolvers(ctx context.Context) []confirmResolver {
var pr *pendingRoutineConfirm
var hx *pendingHexisExec
var p *pendingAct
return []confirmResolver{
// Routine proposal.
{
claim: func() bool {
pr, h.pendingRoutine = h.pendingRoutine, nil
return pr != nil && !h.now().After(pr.expiry)
},
yes: func() string {
// Voice does NOT accept (Vikunja #367). Accepting hands the
// tick loop a standing new reason to speak, which is the same
// tier as enabling a tool — and DESIGN.md § "surface caps
// authority" says a room mic, reachable by anyone present, is
// structurally incapable of layer 3. So a spoken "да" leaves
// the row 'proposed' and points at the authed page, where the
// accept button is gated at step-up. The convenience of
// answering out loud stays; the authority does not move.
//
// Acceptance itself is recorded by /routines, and the tick
// loop nudges on the interval from there (Vikunja #366).
return phraser.C(phraser.ConfirmRoutineAuthed, nil)
},
no: func() string {
if err := h.dataStore.DismissProposedRoutine(ctx, pr.routineID); err != nil {
log.Printf("voice: dismiss proposed routine: %v", err)
}
return phraser.C(phraser.ConfirmRoutineNo, nil)
},
},
// Hexis execution confirm. Bound to the exact capability + target that
// was proposed; a stray "да" can only run that, nothing else.
{
claim: func() bool {
hx, h.pendingHexis = h.pendingHexis, nil
return hx != nil && !h.now().After(hx.expiry)
},
yes: func() string {
execCtx := ctx
if hx.correlationID != "" {
execCtx = withCorrelationID(execCtx, hx.correlationID)
}
return h.execHexis(execCtx, hx.capabilityID, hx.capName, hx.entityID, hx.displayName)
},
no: func() string { return phraser.C(phraser.ConfirmCancelled, nil) },
},
// Tool confirm.
{
claim: func() bool {
p, h.pending = h.pending, nil
return p != nil && !h.now().After(p.expiry)
},
yes: func() string {
out, err := h.tools.Exec(ctx, p.fn, p.args, true) // confirmed
if err != nil {
log.Printf("voice: tool %s (confirmed): %v", p.fn, err)
if out != "" {
return phraser.A(phraser.ActFailOut, map[string]string{"out": firstLine(out)})
}
return phraser.A(phraser.ActFail, nil)
}
if out != "" {
return phraser.A(phraser.ActDoneOut, map[string]string{"out": firstLine(out)})
}
return phraser.A(phraser.ActDone, nil)
},
no: func() string { return phraser.C(phraser.ConfirmCancelled, nil) },
},
}
}
// proposeGap scaffolds a 'proposed' tool for an act whose verb isn't enabled.
// maven drafts the registration (name = the verb, provenance = the utterance);
// a human enables it on the authed surface. She suggests, never enables.
func (h *reactiveHandler) proposeGap(ctx context.Context, dec router.Decision) string {
name := firstWord(stripWake(dec.Utterance))
if name == "" {
return phraser.C(phraser.ProposeNoVerb, nil)
}
vars := map[string]string{"name": name}
newly, err := h.api.ProposeTool(ctx, name, dec.Utterance, "", h.now())
if err != nil {
log.Printf("voice: propose tool %q: %v", name, err)
return phraser.C(phraser.ProposeFailed, vars)
}
if newly {
return phraser.C(phraser.ProposeNew, vars)
}
return phraser.C(phraser.ProposeAlready, vars)
}
// confirmVerdict — the parse of a y/n confirm answer.
type confirmVerdict int
const (
confirmUnknown confirmVerdict = iota
confirmYes
confirmNo
)
// confirmWords are the two closed sets, tokenized once and ordered
// longest-first so "не надо" is read before "нет" could claim any of it.
var (
confirmYesPhrases = confirmPhrases(lexicon.ConfirmYes())
confirmNoPhrases = confirmPhrases(lexicon.ConfirmNo())
)
// confirmPhrases splits each lexicon member into tokens and sorts the result
// longest-first, so a walk that tries them in order matches the longest member
// that fits.
func confirmPhrases(words []string) [][]string {
out := make([][]string, 0, len(words))
for _, w := range words {
if toks := confirmTokens(w); len(toks) > 0 {
out = append(out, toks)
}
}
sort.SliceStable(out, func(i, j int) bool { return len(out[i]) > len(out[j]) })
return out
}
// confirmTokens splits an utterance into lowercase word tokens. Punctuation and
// spacing are separators; an apostrophe is not, because "don't" is one word.
func confirmTokens(text string) []string {
return strings.FieldsFunc(strings.ToLower(text), func(r rune) bool {
if r == '\'' || r == '' {
return false
}
return !unicode.IsLetter(r) && !unicode.IsDigit(r)
})
}
// classifyConfirm reads a short ru/en yes-or-no answer to a parked confirm.
//
// The whole utterance must consist of confirmation words and filler, matched as
// whole tokens against the closed lexicon sets. Anything else is
// confirmUnknown, which leaves the confirm parked and routes the turn — see
// resolveConfirm. Both halves of that are the fix for V-567: this used to be a
// substring test over bare stems, so "погода", "дальше", "надо" and "давление"
// all read as "да", and "покажи" and "около" read as "ок". A parked destructive
// act fired on a question about the weather.
//
// Requiring the WHOLE utterance is the second half. A leading confirm word does
// not make a sentence an answer: "давай посмотрим погоду" opens a request, and
// the only safe reading of a sentence that carries its own subject is that he
// moved on. Guessing wrong here executes something; guessing wrong the other way
// asks again.
func classifyConfirm(text string) confirmVerdict {
tokens := confirmTokens(text)
if len(tokens) == 0 {
return confirmUnknown
}
verdict := confirmUnknown
for i := 0; i < len(tokens); {
// Negatives first: "не надо" and "не хочу" open with a token that is
// not itself an answer, and a yes hit must never shadow them.
if n := matchConfirm(confirmNoPhrases, tokens[i:]); n > 0 {
return confirmNo
}
if n := matchConfirm(confirmYesPhrases, tokens[i:]); n > 0 {
verdict, i = confirmYes, i+n
continue
}
if lexicon.IsFillerParticle(tokens[i]) {
i++
continue
}
// A word that is neither an answer nor filler carries a subject of its
// own, so this utterance is not an answer to her question.
return confirmUnknown
}
return verdict
}
// matchConfirm reports the length of the longest phrase matching at the head of
// tokens, or 0.
func matchConfirm(phrases [][]string, tokens []string) int {
for _, p := range phrases {
if len(p) > len(tokens) {
continue
}
if slices.Equal(p, tokens[:len(p)]) {
return len(p)
}
}
return 0
}
// actPhrase renders "fn arg1 arg2" for the confirm prompt.
func actPhrase(fn string, args []string) string {
if len(args) == 0 {
return fn
}
return fn + " " + strings.Join(args, " ")
}
-103
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@@ -1,103 +0,0 @@
package main
import (
"context"
"os"
"path/filepath"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/tool"
)
// TestClassifyConfirmRejectsSubstrings — V-567. The old matcher tested bare
// stems with strings.Contains, so every word below answered a question she had
// asked about something else: "погода", "дальше", "надо" and "давление" carry
// "да"; "покажи", "около" and "окно" carry "ок". A parked destructive act fired
// on a question about the weather.
func TestClassifyConfirmRejectsSubstrings(t *testing.T) {
for _, text := range []string{
"погода",
"какая погода",
"что дальше",
"надо ещё",
"покажи заметки",
"около окна",
"давление",
"давай посмотрим погоду",
"не забудь купить хлеб",
"окно открыто",
"стоит ли брать зонт",
"",
} {
if got := classifyConfirm(text); got != confirmUnknown {
t.Errorf("classifyConfirm(%q) = %v, want confirmUnknown", text, got)
}
}
}
// TestClassifyConfirmAcceptsAnswers keeps every genuine answer the substring
// matcher accepted, and pins the pair the fix could most easily get wrong:
// "надо" is not an answer and "не надо" is the opposite of one.
func TestClassifyConfirmAcceptsAnswers(t *testing.T) {
yes := []string{"да", "Да!", "ага", "давай", "да, давай", "конечно", "подтверждаю", "ну да", "yes", "yeah", "ok", "okay", "confirm"}
no := []string{"нет", "Нет.", "не надо", "не нужно", "не сейчас", "отмена", "отмени", "стоп", "нет, отмени", "no", "nope", "cancel", "stop", "don't"}
for _, text := range yes {
if got := classifyConfirm(text); got != confirmYes {
t.Errorf("classifyConfirm(%q) = %v, want confirmYes", text, got)
}
}
for _, text := range no {
if got := classifyConfirm(text); got != confirmNo {
t.Errorf("classifyConfirm(%q) = %v, want confirmNo", text, got)
}
}
}
// TestUnrelatedTurnLeavesConfirmParked — the whole point of V-567. An utterance
// that is not an answer must not execute the parked act, must not consume the
// turn, and must not disarm the confirm either: the answer he has not given yet
// is still answerable until it expires.
func TestUnrelatedTurnLeavesConfirmParked(t *testing.T) {
ctx := context.Background()
st := newTestStore(t)
api := ipc.NewStoreAPI(st)
now := time.Date(2026, 8, 6, 9, 0, 0, 0, time.UTC)
h := &reactiveHandler{
api: api,
dataStore: st,
now: func() time.Time { return now },
tools: tool.NewExecutor(api, time.Second),
}
marker := filepath.Join(t.TempDir(), "destructive-tool-ran")
if err := st.EnableTool(ctx, "delete_backups", []string{"touch", marker}, true, "test", h.now()); err != nil {
t.Fatal(err)
}
h.park("delete_backups", nil, "delete_backups")
if reply, handled := h.resolveConfirm(ctx, "какая погода"); handled {
t.Fatalf("the weather question was consumed as a confirm: %q", reply)
}
if _, err := os.Stat(marker); !os.IsNotExist(err) {
t.Fatalf("the parked destructive command ran on an unrelated turn: %v", err)
}
if h.pending == nil {
t.Fatal("the confirm was disarmed by a turn that did not answer it")
}
// It is still answerable, and answering it still runs the act.
reply, handled := h.resolveConfirm(ctx, "да")
if !handled || !strings.Contains(reply, "готово") {
t.Fatalf("the still-parked confirm did not resolve: handled=%v reply=%q", handled, reply)
}
if _, err := os.Stat(marker); err != nil {
t.Fatalf("confirmed destructive command did not run: %v", err)
}
if h.pending != nil {
t.Fatal("the confirm stayed parked after being answered")
}
}
-125
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// Elliptical follow-ups — "а завтра?" after "какие напоминания на сегодня".
//
// These carry no intent of their own. Two words, one of them a particle, and
// everything that makes the utterance meaningful lives in the turn before it.
// Sent to the router they get whatever the model guesses, which on a 1.7B is
// close to a coin flip, and the guess costs ~2.7s to obtain.
//
// followUpMerge (followup.go) cannot help: it inherits SLOTS once the intent is
// known, and here the intent is the missing part. So this runs before the
// router and answers from the previous turn directly, which is both correct by
// construction and free.
package main
import (
"time"
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/router"
)
// continuationMaxTokens — an ellipsis is short by definition. Past four tokens
// the utterance carries enough of its own content to be routed on its merits,
// and inheriting an intent for it would be overreach.
const continuationMaxTokens = 4
// continuationParticles — the words that open a follow-up. A leading particle
// is one of the two ways in; the other is an utterance that is nothing but a
// date ("завтра?").
var continuationParticles = map[string]bool{
"а": true, "и": true, "ну": true,
"what": true, "and": true, "how": true,
}
// continuableIntents — which intents an ellipsis may inherit.
//
// query and system are questions: asking the same question about a different
// day is exactly what "а завтра?" means, and re-aiming the Time slot answers it
// completely.
//
// The rest are excluded on purpose. fact and note would write something he did
// not say — "поужинал" then "а вчера?" is a question about yesterday, not a
// claim about it. chat has no slot to re-aim. act is the dangerous one: an
// allowlisted fn inherited by a two-word utterance is a way to run a
// destructive command nobody typed, and no follow-up is worth that.
//
// reminder was in this list and came out after a live check on 01-08-2026. A
// reminder's payload is its Text, and the Text embeds the day word it was
// created with: continuing "напомни сегодня о событиях" with "а завтра?" fires
// tomorrow with the text still reading "сегодня". Re-aiming Time is not enough
// when the day is also written into the payload, and rewriting the payload
// needs the date's span in the string, which ParseCalendarDate does not report.
var continuableIntents = map[dialogue.Intent]bool{
dialogue.IntentQuery: true,
dialogue.IntentSystem: true,
}
// continuationDecision reads an utterance as "the previous question, but for
// this other day". Returns ok=false whenever anything is uncertain, which
// hands the turn back to the ordinary router path.
//
// The date is what makes this safe. An ellipsis with no parseable day is just
// a short utterance, and short utterances are the router's job.
func continuationDecision(prev *dialogue.Session, text string, now time.Time) (router.Decision, bool) {
if prev == nil || prev.IsExpired(now) || !continuableIntents[prev.Intent] {
return router.Decision{}, false
}
tokens := quietTokens(text)
if len(tokens) == 0 || len(tokens) > continuationMaxTokens {
return router.Decision{}, false
}
day, ok := router.ParseCalendarDate(text, now)
if !ok {
return router.Decision{}, false
}
// Either it opens with a particle, or the whole utterance is the date.
if !continuationParticles[tokens[0]] && !isBareDate(tokens, day, now) {
return router.Decision{}, false
}
dec := router.Decision{
Utterance: text,
Intent: router.Intent(prev.Intent),
Confidence: 1.0,
Stage: 0,
Continued: true,
Slots: router.Slots{
Key: prev.Slots.Key,
HasKey: prev.Slots.HasKey,
Value: prev.Slots.Value,
Text: prev.Slots.Text,
// Fn/Args are deliberately not carried: continuableIntents
// excludes act, so there is never one to carry.
Time: day,
HasTime: true,
},
}
return dec, true
}
// isBareDate reports whether the utterance is nothing but its date expression.
// "завтра" and "на выходных" qualify; "напомни завтра" does not, because the
// verb is content of its own and belongs to the router.
//
// Implemented by re-parsing each token: if every token that is not part of a
// date expression is a preposition or a question mark's leftovers, the
// utterance is bare. Cheap enough at four tokens.
func isBareDate(tokens []string, day time.Time, now time.Time) bool {
for _, t := range tokens {
if continuationFillers[t] {
continue
}
if d, ok := router.ParseCalendarDate(t, now); ok && d.Equal(day) {
continue
}
return false
}
return true
}
// continuationFillers — tokens that carry no content of their own inside a
// date expression ("на выходных", "в среду").
var continuationFillers = map[string]bool{
"на": true, "в": true, "во": true, "за": true, "про": true,
"about": true, "on": true, "for": true,
}
-171
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@@ -1,171 +0,0 @@
package main
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/router"
)
var contNow = time.Date(2026, 8, 1, 12, 0, 0, 0, time.UTC)
func contSession(intent dialogue.Intent, key string) *dialogue.Session {
return &dialogue.Session{
Intent: intent,
Slots: dialogue.Slots{Key: key, HasKey: key != "", Text: "какие напоминания на сегодня"},
Timestamp: contNow.Add(-30 * time.Second),
TTL: 2 * time.Minute,
}
}
func TestContinuationInheritsTheQuestion(t *testing.T) {
prev := contSession(dialogue.IntentQuery, "water")
dec, ok := continuationDecision(prev, "а завтра?", contNow)
if !ok {
t.Fatal("continuationDecision returned false, want a decision")
}
if dec.Intent != router.IntentQuery {
t.Errorf("intent = %q, want query", dec.Intent)
}
if dec.Slots.Key != "water" || !dec.Slots.HasKey {
t.Errorf("key = %q, want water carried over", dec.Slots.Key)
}
if !dec.Slots.HasTime {
t.Fatal("no time slot; the whole point is re-aiming the day")
}
if got, want := dec.Slots.Time.Format("2006-01-02"), "2026-08-02"; got != want {
t.Errorf("time = %s, want %s", got, want)
}
}
func TestContinuationAcceptsABareDate(t *testing.T) {
prev := contSession(dialogue.IntentQuery, "water")
for _, s := range []string{"завтра?", "вчера", "а вчера?", "и завтра"} {
if _, ok := continuationDecision(prev, s, contNow); !ok {
t.Errorf("continuationDecision(%q) = false, want true", s)
}
}
}
func TestContinuationDeclinesWhatIsNotAnEllipsis(t *testing.T) {
prev := contSession(dialogue.IntentQuery, "water")
for _, s := range []string{
// No date to re-aim at — an ordinary short utterance, the router's job.
"а что там", "а бэкап?", "привет", "",
// Content of its own: the verb is not an ellipsis.
"напомни завтра позвонить маме",
// Too long to be an ellipsis even with a date in it.
"а что у меня стоит в календаре на завтра",
} {
if _, ok := continuationDecision(prev, s, contNow); ok {
t.Errorf("continuationDecision(%q) = true, want false", s)
}
}
}
func TestContinuationDeclinesUncontinuableIntents(t *testing.T) {
// act is the one that matters: inheriting an allowlisted fn from a
// two-word utterance would be a way to run a destructive command.
// reminder is here because its payload is its Text, and the Text embeds
// the day word it was created with — see continuableIntents.
for _, in := range []dialogue.Intent{
dialogue.IntentAct, dialogue.IntentFact, dialogue.IntentNote,
dialogue.IntentChat, dialogue.IntentReminder,
} {
if _, ok := continuationDecision(contSession(in, "water"), "а завтра?", contNow); ok {
t.Errorf("continuationDecision inherited intent %q, want refusal", in)
}
}
}
func TestContinuationDeclinesWithoutALiveSession(t *testing.T) {
if _, ok := continuationDecision(nil, "а завтра?", contNow); ok {
t.Error("continued with no previous turn")
}
stale := contSession(dialogue.IntentQuery, "water")
stale.Timestamp = contNow.Add(-10 * time.Minute)
if _, ok := continuationDecision(stale, "а завтра?", contNow); ok {
t.Error("continued an expired session")
}
}
func TestContinuationNeverCarriesAnFn(t *testing.T) {
prev := contSession(dialogue.IntentQuery, "water")
prev.Slots.Fn, prev.Slots.HasFn = "restart", true
dec, ok := continuationDecision(prev, "а завтра?", contNow)
if !ok {
t.Fatal("want a decision")
}
if dec.Slots.HasFn || dec.Slots.Fn != "" {
t.Fatalf("carried fn %q into a continuation", dec.Slots.Fn)
}
}
// TestContinuationCarriesTheTopic — the ellipsis names the day; what he is
// asking ABOUT has to come from the previous turn, or replySystem keyword-
// matches "а завтра?" and finds nothing. Caught on the deployed daemon.
func TestContinuationCarriesTheTopic(t *testing.T) {
prev := contSession(dialogue.IntentSystem, "")
prev.Slots.Text = "какой сегодня день"
dec, ok := continuationDecision(prev, "а завтра?", contNow)
if !ok {
t.Fatal("want a decision")
}
if dec.Slots.Text != "какой сегодня день" {
t.Fatalf("Slots.Text = %q, want the previous turn's topic", dec.Slots.Text)
}
}
// TestReplySystemIgnoresAnInheritedTopic — the regression the deployed daemon
// showed on 01-08-2026: followUpMerge fills an empty Text from the previous
// same-intent turn, so a plain "привет" after "какой сегодня день" arrived at
// replySystem carrying the old topic and was answered with the date. Only a
// continuation may widen the keyword match.
func TestReplySystemIgnoresAnInheritedTopic(t *testing.T) {
h := &reactiveHandler{now: func() time.Time { return contNow }}
inherited := router.Decision{
Utterance: "привет",
Intent: router.IntentSystem,
Slots: router.Slots{Text: "какой сегодня день"},
}
if got := h.replySystem(nil, inherited); got != "пока не умею отвечать на этот вопрос." {
t.Fatalf("replySystem answered %q on an inherited topic", got)
}
cont := inherited
cont.Utterance, cont.Continued = "а завтра?", true
if got := h.replySystem(nil, cont); got == "пока не умею отвечать на этот вопрос." {
t.Fatalf("replySystem refused a real continuation")
}
}
// TestRememberTurnRefreshesTheTopic — rememberTurn runs after followUpMerge,
// which has already inherited a Text from the previous same-intent turn. A
// fill-if-empty rule therefore pins the FIRST topic of a run of query turns
// and never lets go, so a later "а завтра?" continues a question two turns
// old. Seen on the deployed daemon, 01-08-2026.
func TestRememberTurnRefreshesTheTopic(t *testing.T) {
h := &reactiveHandler{
now: func() time.Time { return contNow },
dialogueSessions: dialogue.NewSessionStore(2 * time.Minute),
}
ctx := context.Background()
h.rememberTurn(ctx, nil, router.Decision{
Intent: router.IntentQuery, Utterance: "во сколько у меня встреча",
}, contNow)
// The second turn arrives with the first turn's Text already merged in.
prev := h.dialogueSessions.Get(voiceDialogueID, contNow)
h.rememberTurn(ctx, prev, router.Decision{
Intent: router.IntentQuery,
Utterance: "какие у меня планы",
Slots: router.Slots{Text: "во сколько у меня встреча"},
}, contNow)
got := h.dialogueSessions.Get(voiceDialogueID, contNow)
if got == nil {
t.Fatal("no session")
}
if got.Slots.Text != "какие у меня планы" {
t.Fatalf("topic = %q, want the latest turn's", got.Slots.Text)
}
}
-226
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@@ -1,226 +0,0 @@
// mavend/crawls.go — the driver for reading web pages (Vikunja #259,
// docs/plans/14-web-crawler.md). The crawler is pure and lives in
// internal/crawl; this is the impure half: the guarded fetcher, a ticker for the
// scheduled watches, and the fact-backed dedup hashes.
//
// Two paths, one config block, both off unless configured:
//
// - ON DEMAND — he names a URL out loud and she reads it. That is the
// `queryWeb` source in actions_query.go, LAST in the chain: after his
// memory, after the notes, and (once Kiwix is wired into the chain) after
// the local ZIMs. A local read costs nothing and leaks nothing; a fetch puts
// a URL in someone's log, so it goes last.
// - SCHEDULED — a watched page is re-read on its interval, and a page whose
// text changed is written as a note. It does NOT announce itself. Same rule
// as the feed poller: notes, never nudges.
//
// Only the URL goes out. Nothing here reads a note, a fact, the persona block or
// the history, and internal/crawl has no access to the store at all.
package main
import (
"context"
"errors"
"fmt"
"log"
"net/url"
"time"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/crawl"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/webfetch"
)
// newCrawler builds the crawler from the `crawl` block, or returns nil when
// there is none. Every caller checks for nil, and nil means no page is ever
// fetched.
func newCrawler(cfg *config.Config) *crawl.Crawler {
if cfg.Crawl == nil {
return nil
}
cc := cfg.Crawl
// The WATCH crawler, and only it, reaches the watched hosts. webfetch reads
// a non-empty allow list as "these and nothing else", so folding the watch
// hosts in turned a single watch into an allowlist for everything: a config
// with one watch and on_demand true silently refused every other page he
// pasted, with "не получилось прочитать страницу." and no clue why.
return crawlerWithHosts(cc, crawlHosts(cc, true))
}
// crawlHosts — the allowlist for one of the two crawlers. forWatches adds the
// watched pages' own hosts, so a watch does not have to be allowlisted by hand.
//
// The on-demand crawler gets his allow_hosts and nothing else. webfetch reads a
// non-empty list as "these and nothing else", so adding the watch hosts there
// would silently narrow on-demand reading to the watched sites.
func crawlHosts(cc *config.CrawlConfig, forWatches bool) []string {
hosts := append([]string(nil), cc.AllowHosts...)
if !forWatches {
return hosts
}
for _, w := range cc.Watches {
if u, err := url.Parse(w.URL); err == nil && u.Hostname() != "" {
hosts = append(hosts, u.Hostname())
}
}
return hosts
}
// crawlerWithHosts builds a crawler over one allowlist. Two callers, two lists:
// see newCrawler and onDemandCrawler.
func crawlerWithHosts(cc *config.CrawlConfig, hosts []string) *crawl.Crawler {
ua := cc.UserAgent
if ua == "" {
ua = webfetch.DefaultUserAgent
}
fetcher := webfetch.New(webfetch.Config{
AllowHosts: hosts,
DenyHosts: cc.DenyHosts,
Timeout: time.Duration(cc.Timeout),
MaxBytes: cc.MaxBytes,
UserAgent: ua,
})
// The user-agent handed to the crawler is the one the fetcher sends: obeying
// robots rules written for a different name would be a lie.
return crawl.New(&crawlFetcher{f: fetcher}, crawl.Config{
UserAgent: ua,
MaxRunes: cc.MaxRunes,
})
}
// onDemandCrawler returns a crawler for the answer path, or nil when on-demand
// reading is off. The scheduled watches can be on while this is off: reading a
// fixed list of pages on a timer and reading whatever URL is in an utterance are
// different permissions, and the config keeps them separate.
func onDemandCrawler(cfg *config.Config) *crawl.Crawler {
if cfg.Crawl == nil || !cfg.Crawl.OnDemand {
return nil
}
cc := cfg.Crawl
// His own allow_hosts, and nothing added behind his back. Empty means "any
// host that is not denied and not private", which is what on-demand reading
// of a URL he just said out loud has to mean.
if len(cc.AllowHosts) > 0 {
log.Printf("crawl: allow_hosts is set, so on-demand reading is limited to those %d host(s)", len(cc.AllowHosts))
}
return crawlerWithHosts(cc, crawlHosts(cc, false))
}
// crawlWorker — ticker + watcher for the scheduled half.
type crawlWorker struct {
watcher *crawl.Watcher
interval time.Duration
}
// crawlTickInterval — how often the worker asks what is due. Per-watch cadence
// is the watcher's business.
const crawlTickInterval = 15 * time.Minute
// newCrawlWorker wires the scheduled crawls, or nil when nothing is watched.
func newCrawlWorker(c *crawl.Crawler, api ipc.CoreAPI, emb router.Embedder, cfg *config.Config) *crawlWorker {
if c == nil || cfg.Crawl == nil || len(cfg.Crawl.Watches) == 0 {
return nil
}
watches := make([]crawl.WatchConfig, 0, len(cfg.Crawl.Watches))
for _, w := range cfg.Crawl.Watches {
watches = append(watches, crawl.WatchConfig{
Name: w.Name,
URL: w.URL,
Interval: time.Duration(w.Interval),
})
}
watcher := crawl.NewWatcher(c, watches, api, &factHashes{api: api},
crawlEmbedder(emb), time.Duration(cfg.Crawl.Interval))
if watcher == nil {
log.Printf("crawl: configured but nothing watchable — scheduled crawls disabled")
return nil
}
log.Printf("crawl: watching %d page(s), checking what is due every %s", len(watches), crawlTickInterval)
return &crawlWorker{watcher: watcher, interval: crawlTickInterval}
}
// run checks what is due until ctx is canceled. The first round runs
// immediately; it writes notes only, so an early round startles nobody.
func (w *crawlWorker) run(ctx context.Context) {
w.watcher.CheckDue(ctx, time.Now())
t := time.NewTicker(w.interval)
defer t.Stop()
for {
select {
case <-ctx.Done():
return
case now := <-t.C:
w.watcher.CheckDue(ctx, now)
}
}
}
// crawlFetcher adapts webfetch to crawl.Fetcher, which is the seam that keeps
// net/http out of the crawler package.
type crawlFetcher struct{ f *webfetch.Fetcher }
// Get maps webfetch's sentinels onto crawl's. This adapter is the one place
// that imports both packages, so the mapping belongs here; the crawler used to
// match on three substrings of a message it could not see the definition of,
// and a reworded error would have quietly turned a blocked host into "there is
// no robots.txt here".
func (a *crawlFetcher) Get(ctx context.Context, u string) (*crawl.Response, error) {
resp, err := a.f.Get(ctx, u)
if err != nil {
switch {
case errors.Is(err, webfetch.ErrBlocked), errors.Is(err, webfetch.ErrPrivate), errors.Is(err, webfetch.ErrScheme):
return nil, fmt.Errorf("%w: %v", crawl.ErrFetchRefused, err)
case errors.Is(err, webfetch.ErrStatus):
// Carry the code across the seam. The crawler needs to tell a 5xx
// from a 404 to decide what a failed robots.txt means, and it must
// not learn that by reading this sentence.
var se *webfetch.StatusError
if errors.As(err, &se) {
return nil, &crawl.StatusError{Code: se.Code}
}
return nil, fmt.Errorf("%w: %v", crawl.ErrFetchStatus, err)
}
return nil, err
}
return &crawl.Response{URL: resp.URL, ContentType: resp.ContentType, Body: resp.Body}, nil
}
// factHashes stores each watch's last content hash as a config fact, so a
// restart does not re-note an unchanged page. Same mechanism the feed reader
// uses for its marks, and inspectable on /dash.
type factHashes struct{ api ipc.CoreAPI }
func hashKey(name string) string { return "crawl:hash:" + name }
func (h *factHashes) LastHash(ctx context.Context, name string) (string, error) {
f, err := h.api.LatestFact(ctx, hashKey(name))
if err != nil {
// No hash yet is not an error: the watcher treats "" as "never read".
return "", nil
}
return f.Value, nil
}
func (h *factHashes) SetHash(ctx context.Context, name, hash string) error {
_, err := h.api.WriteFact(ctx, ipc.WriteFactReq{
Ts: time.Now(),
Kind: "config",
Key: hashKey(name),
Value: hash,
Source: "poll:crawl",
Confidence: 1.0,
})
return err
}
// crawlEmbedder adapts router.Embedder for the watcher, embedding with
// EmbedPassage (a page is text being searched FOR, and the e5 embedder is
// asymmetric).
func crawlEmbedder(emb router.Embedder) crawl.Embedder {
if emb == nil {
return nil
}
return passageEmbedder{emb}
}
-245
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@@ -1,245 +0,0 @@
package main
import (
"context"
"errors"
"net/http"
"net/http/httptest"
"strings"
"testing"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/crawl"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/voice"
"github.com/kami/maven/internal/webfetch"
)
// The default config reads nothing. This is the whole "off unless configured"
// contract for the crawler, asserted at the wiring level rather than trusted.
func TestCrawlOffByDefault(t *testing.T) {
cfg := &config.Config{}
if c := newCrawler(cfg); c != nil {
t.Error("newCrawler with no crawl block returned a crawler")
}
if c := onDemandCrawler(cfg); c != nil {
t.Error("onDemandCrawler with no crawl block returned a crawler")
}
if w := newCrawlWorker(nil, nil, nil, cfg); w != nil {
t.Error("newCrawlWorker with no crawl block returned a worker")
}
// Watches configured but on_demand off ⇒ the answer path still reads
// nothing: a timer over a fixed list is not permission for arbitrary URLs.
withWatch := &config.Config{Crawl: &config.CrawlConfig{
Watches: []config.CrawlWatchConfig{{Name: "p", URL: "https://example.org/p"}},
}}
if c := onDemandCrawler(withWatch); c != nil {
t.Error("onDemandCrawler honoured a watch list as on-demand permission")
}
if c := newCrawler(withWatch); c == nil {
t.Error("newCrawler returned nil for a configured watch")
}
}
// The wired fetcher must refuse a private address, because the crawler on this
// box sits one hop from the whole homelab. Same guard the webfetch tests cover;
// this asserts the daemon actually wires it.
func TestCrawlerRefusesPrivateAddress(t *testing.T) {
srv := httptest.NewServer(http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
w.Header().Set("Content-Type", "text/html")
w.Write([]byte("<html><body>secret</body></html>"))
}))
defer srv.Close()
c := newCrawler(&config.Config{Crawl: &config.CrawlConfig{OnDemand: true}})
if c == nil {
t.Fatal("newCrawler returned nil for an on-demand config")
}
if _, err := c.Page(context.Background(), srv.URL); err == nil {
t.Fatalf("reading %s succeeded; a loopback address must be refused", srv.URL)
}
}
func TestFactHashesRoundTrip(t *testing.T) {
ctx := context.Background()
st := newTestStore(t)
h := &factHashes{api: ipc.NewStoreAPI(st)}
got, err := h.LastHash(ctx, "page")
if err != nil {
t.Fatalf("LastHash on a fresh store: %v", err)
}
if got != "" {
t.Errorf("LastHash = %q, want empty for a never-read page", got)
}
if err := h.SetHash(ctx, "page", "deadbeef"); err != nil {
t.Fatalf("SetHash: %v", err)
}
got, err = h.LastHash(ctx, "page")
if err != nil {
t.Fatalf("LastHash: %v", err)
}
if got != "deadbeef" {
t.Errorf("LastHash = %q, want deadbeef", got)
}
if key := hashKey("page"); key != "crawl:hash:page" {
t.Errorf("hashKey = %q", key)
}
}
// stubCrawlFetcher serves one fixed page to every URL, so queryWeb can be
// exercised without a network or an allowlist.
type stubCrawlFetcher struct{ body, ctype string }
func (s *stubCrawlFetcher) Get(_ context.Context, u string) (*crawl.Response, error) {
ct := s.ctype
if ct == "" {
ct = "text/html"
}
if strings.HasSuffix(u, "/robots.txt") {
return &crawl.Response{URL: u, ContentType: "text/plain", Body: []byte("")}, nil
}
return &crawl.Response{URL: u, ContentType: ct, Body: []byte(s.body)}, nil
}
func buildWebHandler(c *crawl.Crawler) *reactiveHandler {
return &reactiveHandler{
replier: voice.NewStubReplier(),
phraser: phraser.NewStub(),
crawler: c,
}
}
func askWeb(h *reactiveHandler, q string) (string, bool) {
return h.queryWeb(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: q},
})
}
func TestQueryWebPassesWithoutAURL(t *testing.T) {
h := buildWebHandler(crawl.New(&stubCrawlFetcher{body: "<html><body>x</body></html>"}, crawl.Config{}))
if reply, ok := askWeb(h, "почему небо синее?"); ok {
t.Errorf("the web source claimed a question with no URL: %q", reply)
}
}
// A daemon where page reading was never turned on names the gap. He asked
// about one page, nothing else on the box can read it, and the old behaviour
// here was to answer as though the URL had not been said (Vikunja #479).
func TestQueryWebNamesTheGapWhenNotConfigured(t *testing.T) {
h := buildWebHandler(nil)
reply, ok := askWeb(h, "посмотри https://example.org/page")
if !ok {
t.Fatal("an unconfigured crawler let the page question fall through")
}
if !phraser.IsQ(phraser.QueryPageOff, nil, reply) {
t.Errorf("got %q, want the gap named", reply)
}
}
func TestQueryWebReadsThePage(t *testing.T) {
h := buildWebHandler(crawl.New(&stubCrawlFetcher{
body: "<html><head><title>Заголовок</title></head><body><p>текст страницы</p></body></html>",
}, crawl.Config{}))
reply, ok := askWeb(h, "посмотри https://example.org/page — что там?")
if !ok {
t.Fatal("the web source did not claim a question with a URL")
}
if !strings.Contains(reply, "текст страницы") {
t.Errorf("reply = %q, want the page text read back", reply)
}
}
func TestQueryWebRefusesNonHTML(t *testing.T) {
h := buildWebHandler(crawl.New(&stubCrawlFetcher{
body: "\x00\x01binary", ctype: "application/octet-stream",
}, crawl.Config{}))
reply, ok := askWeb(h, "почитай https://example.org/blob.bin")
if !ok {
t.Fatal("the web source did not claim a question with a URL")
}
if !phraser.IsQ(phraser.QueryFailPage, nil, reply) {
t.Errorf("reply = %q, want the read-failed answer", reply)
}
}
// robots.txt is honoured on the answer path too, and she says the page is
// closed instead of reporting a generic failure.
func TestQueryWebObeysRobots(t *testing.T) {
h := buildWebHandler(crawl.New(&robotsDenyFetcher{}, crawl.Config{}))
reply, ok := askWeb(h, "посмотри https://example.org/private")
if !ok {
t.Fatal("the web source did not claim a question with a URL")
}
// She names the cause without reading a filename out loud.
if !strings.Contains(reply, "закрыта для чтения") || strings.Contains(reply, "robots") {
t.Errorf("reply = %q, want the closed-page answer with no filename", reply)
}
}
type robotsDenyFetcher struct{}
func (robotsDenyFetcher) Get(_ context.Context, u string) (*crawl.Response, error) {
if strings.HasSuffix(u, "/robots.txt") {
return &crawl.Response{URL: u, ContentType: "text/plain",
Body: []byte("User-agent: *\nDisallow: /private\n")}, nil
}
return &crawl.Response{URL: u, ContentType: "text/html", Body: []byte("<html>nope</html>")}, nil
}
// TestCrawlHostsKeepsAWatchOutOfTheOnDemandAllowlist — the on-demand crawler
// used to be built over allow_hosts PLUS every watched host. webfetch reads a
// non-empty allow list as "these and nothing else", so one watch on a config
// with no allow_hosts at all turned unrestricted on-demand reading into
// "the watched site only", and every other URL he pasted came back as
// "не получилось прочитать страницу." with nothing in the log to explain it.
func TestCrawlHostsKeepsAWatchOutOfTheOnDemandAllowlist(t *testing.T) {
cc := &config.CrawlConfig{
OnDemand: true,
Watches: []config.CrawlWatchConfig{{Name: "p", URL: "https://watched.example/p"}},
}
if got := crawlHosts(cc, false); len(got) != 0 {
t.Errorf("on-demand allowlist = %v; a watch is not an allowlist entry, and an empty list is what means \"anything public\"", got)
}
if got := crawlHosts(cc, true); len(got) != 1 || got[0] != "watched.example" {
t.Errorf("watch allowlist = %v; want the watched host so a watch needs no hand-written entry", got)
}
// With allow_hosts set, his list is what on-demand gets, unchanged.
cc.AllowHosts = []string{"wiki.example"}
on := crawlHosts(cc, false)
if len(on) != 1 || on[0] != "wiki.example" {
t.Errorf("on-demand allowlist = %v; want exactly his allow_hosts", on)
}
if got := crawlHosts(cc, true); len(got) != 2 {
t.Errorf("watch allowlist = %v; want his hosts plus the watched one", got)
}
}
// TestCrawlFetcherReportsARefusalAsARefusal — internal/crawl cannot import
// webfetch, so it used to recognise a guard refusal by matching substrings of
// webfetch's message text. This adapter owns both packages and is where the
// translation belongs.
func TestCrawlFetcherReportsARefusalAsARefusal(t *testing.T) {
srv := httptest.NewServer(http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
http.Error(w, "boom", http.StatusBadGateway)
}))
defer srv.Close()
blocked := &crawlFetcher{f: webfetch.New(webfetch.Config{AllowHosts: []string{"wiki.example"}})}
if _, err := blocked.Get(context.Background(), "https://other.example/a"); !errors.Is(err, crawl.ErrFetchRefused) {
t.Errorf("a host outside allow_hosts = %v; want crawl.ErrFetchRefused", err)
}
if _, err := blocked.Get(context.Background(), "file:///etc/passwd"); !errors.Is(err, crawl.ErrFetchRefused) {
t.Errorf("a non-http scheme = %v; want crawl.ErrFetchRefused", err)
}
// A 5xx is a different thing: the server answered, badly. robots.txt over
// this must refuse the crawl rather than read it as "no rules".
open := &crawlFetcher{f: webfetch.New(webfetch.Config{AllowHosts: []string{"127.0.0.1"}, AllowPrivate: true})}
if _, err := open.Get(context.Background(), srv.URL+"/robots.txt"); !errors.Is(err, crawl.ErrFetchStatus) {
t.Errorf("a 502 = %v; want crawl.ErrFetchStatus", err)
}
}
-466
View File
@@ -1,466 +0,0 @@
package main
import (
"context"
"database/sql"
"errors"
"fmt"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/calendar"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/morning"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
// planAPI answers only DayPlan; every other call is unimplemented, which is
// exactly the assertion that the plan source needs nothing else.
type planAPI struct {
ipc.UnimplementedCoreAPI
plan ipc.DayPlan
err error
calls int
}
func (a *planAPI) DayPlan(context.Context) (ipc.DayPlan, error) {
a.calls++
if a.err != nil {
return ipc.DayPlan{}, a.err
}
return a.plan, nil
}
func planDay() time.Time { return time.Date(2026, 8, 3, 12, 0, 0, 0, time.UTC) }
func samplePlan() ipc.DayPlan {
day := planDay()
mid := time.Date(2026, 8, 3, 0, 0, 0, 0, time.UTC)
return ipc.DayPlan{
Date: mid,
Items: []ipc.DayPlanItem{
{At: day.Add(-2 * time.Hour), Text: "Standup @ 10:00-10:30", Kind: "event"},
{At: day.Add(2 * time.Hour), Text: "Планёрка @ 14:00-14:30", Kind: "event", Uncertain: true},
{At: day.Add(6 * time.Hour), Text: "позвонить маме", Kind: "reminder"},
},
Spoken: "план на 03.08.2026: 10:00 — Standup @ 10:00-10:30; " +
"похоже, 14:00 — Планёрка @ 14:00-14:30; 18:00 — позвонить маме.",
}
}
func planHandler(api ipc.CoreAPI) *reactiveHandler {
return &reactiveHandler{api: api, now: planDay}
}
func TestQueryDayPlanRecitesTheDay(t *testing.T) {
api := &planAPI{plan: samplePlan()}
h := planHandler(api)
reply, ok := h.queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "какие планы на сегодня?"},
})
if !ok {
t.Fatal("the plan source must claim a plan question")
}
if reply != api.plan.Spoken {
t.Errorf("reply = %q, want the core's spoken plan %q", reply, api.plan.Spoken)
}
}
// "что дальше?" is the rest of the day, not the whole day: what has already
// happened is not a plan.
func TestQueryDayPlanTrimsToRestOfDay(t *testing.T) {
h := planHandler(&planAPI{plan: samplePlan()})
reply, ok := h.queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что дальше?"},
})
if !ok {
t.Fatal("expected the plan source to claim it")
}
if strings.Contains(reply, "Standup") {
t.Errorf("a passed item must not be read back: %q", reply)
}
if !strings.Contains(reply, "Планёрка") || !strings.Contains(reply, "позвонить маме") {
t.Errorf("the rest of the day is missing: %q", reply)
}
// Provenance survives the trim.
if !strings.Contains(reply, "похоже,") {
t.Errorf("a relayed event must stay hedged: %q", reply)
}
}
// "что дальше?" after the last item of the day. The day was not empty, it is
// over, and the whole-day empty line says something false about a day he just
// lived through.
func TestQueryDayPlanRestOfDayWhenNothingIsLeft(t *testing.T) {
plan := samplePlan()
h := &reactiveHandler{api: &planAPI{plan: plan}, now: func() time.Time {
return time.Date(2026, 8, 3, 23, 0, 0, 0, time.UTC)
}}
reply, ok := h.queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что дальше?"},
})
if !ok {
t.Fatal("expected the plan source to claim it")
}
if strings.Contains(reply, plan.Date.Format("02.01.2006")) {
t.Errorf("the day had things on it and they are done, not empty: %q", reply)
}
if reply != "на сегодня больше ничего не запланировано." {
t.Errorf("reply = %q", reply)
}
}
// "что дальше?" rebuilds the plan off the wire and renders it here, and the
// instants on it carry the zone the core read them in — a calendar fact's Ts
// and a reminder's FireTs are UTC out of the store. Read raw, the recital named
// the store's clock instead of his (V-614). The asking clock is three hours off
// whatever this machine runs in, so the assertion holds under TZ=UTC too.
func TestQueryDayPlanRestOfDayReadsHisClock(t *testing.T) {
_, off := time.Now().Zone()
away := time.FixedZone("away", off+3*60*60)
stored := time.Date(2026, 8, 3, 8, 0, 0, 0, time.UTC)
h := &reactiveHandler{
api: &planAPI{plan: ipc.DayPlan{
Date: time.Date(2026, 8, 3, 0, 0, 0, 0, time.UTC),
Items: []ipc.DayPlanItem{{At: stored, Text: "позвонить маме", Kind: "reminder"}},
}},
now: func() time.Time { return time.Date(2026, 8, 3, 9, 0, 0, 0, away) },
}
reply, ok := h.queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что дальше?"},
})
if !ok {
t.Fatal("expected the plan source to claim it")
}
if want := stored.In(away).Format("15:04"); !strings.Contains(reply, want) {
t.Errorf("the reminder is not read in his clock (%s): %q", want, reply)
}
if bad := stored.Format("15:04"); strings.Contains(reply, bad) {
t.Errorf("the reminder is read in the store's zone (%s): %q", bad, reply)
}
}
// The defect V-618 fixes, at the handler: asked at 04:45 the trim removes
// nothing, because the whole day is still ahead. She read 43 entries aloud as
// one sentence. The zone is three hours off UTC so the test also fails under
// TZ=UTC if the rendering ever slips zones.
func TestQueryDayPlanCapsWhatItReadsAloud(t *testing.T) {
zone := time.FixedZone("MSK", 3*60*60)
mid := time.Date(2026, 8, 3, 0, 0, 0, 0, zone)
plan := ipc.DayPlan{Date: mid, Spoken: "план на 03.08.2026: …"}
for i := 0; i < 43; i++ {
plan.Items = append(plan.Items, ipc.DayPlanItem{
At: mid.Add(time.Duration(345+i*20) * time.Minute), // 05:45 onward
Text: fmt.Sprintf("пункт %d", i),
Kind: "event",
})
}
h := &reactiveHandler{api: &planAPI{plan: plan}, now: func() time.Time {
return time.Date(2026, 8, 3, 4, 45, 0, 0, zone)
}}
reply, ok := h.queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что дальше?"},
})
if !ok {
t.Fatal("expected the plan source to claim it")
}
if n := strings.Count(reply, "пункт "); n != morning.NextSpoken {
t.Errorf("read %d entries aloud, want %d: %q", n, morning.NextSpoken, reply)
}
if !strings.HasPrefix(reply, "дальше: 05:45 — пункт 0;") {
t.Errorf("the next thing is not first: %q", reply)
}
// The rest is counted, not silently dropped.
if !strings.Contains(reply, "и ещё 40 дел до конца дня.") {
t.Errorf("the sentence hides that the day goes on: %q", reply)
}
}
// "что у меня сегодня?" is the whole day and is not narrowed. It carries no
// plan word, so the plan source declines it and the calendar listing answers —
// asserted here beside the cap so the two questions cannot drift together.
func TestWholeDayQuestionIsNotTheRestOfTheDay(t *testing.T) {
if router.IsDayPlanQuery("что у меня сегодня?") {
t.Error("the plan source claims the whole-day question")
}
if !router.IsDayPlanQuery("что дальше?") {
t.Error("the plan source stopped claiming the rest-of-day question")
}
if router.IsRestOfDayQuery("какие планы на сегодня?") {
t.Error("the whole-day plan question got narrowed to the rest of the day")
}
}
// A question that is not about the plan must fall through, or the plan buries
// the calendar listing and the weather behind it.
func TestQueryDayPlanPassesOnEverythingElse(t *testing.T) {
for _, q := range []string{
"что у меня сегодня?",
"какие планы на завтра?",
// The plan can only be built for the clock's own day. Naming another
// one has to fall through, not get answered with today.
"какие планы на понедельник?",
"какие планы на неделю?",
"какие планы на выходные?",
"what are my plans for friday?",
"когда планёрка?",
"какая погода?",
"",
} {
api := &planAPI{plan: samplePlan()}
reply, ok := planHandler(api).queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: q},
})
if ok {
t.Errorf("%q was claimed by the plan source (reply %q)", q, reply)
}
if api.calls != 0 {
t.Errorf("%q hit the core for a plan it does not want", q)
}
}
}
func TestQueryDayPlanCoreFailure(t *testing.T) {
h := planHandler(&planAPI{err: errors.New("socket closed")})
reply, ok := h.queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "план на сегодня"},
})
if !ok {
t.Fatal("a failed plan read must still answer, not fall through to RAG")
}
if !phraser.IsQ(phraser.QueryFailPlan, nil, reply) {
t.Errorf("reply = %q, want the honest failure", reply)
}
}
// The day plan must sit before the calendar listing: both match "…на сегодня",
// and the more specific matcher has to get first refusal (see #373 for what
// happens when the order is wrong).
func TestDayPlanSourcePrecedesCalendar(t *testing.T) {
plan, cal := -1, -1
for i, s := range querySources {
switch s.name {
case "day-plan":
plan = i
case "calendar":
cal = i
}
}
if plan < 0 || cal < 0 {
t.Fatalf("sources missing: day-plan=%d calendar=%d", plan, cal)
}
if plan > cal {
t.Errorf("day-plan at %d must come before calendar at %d", plan, cal)
}
}
// habitAPI answers only the kind-filtered fact read — the whole input the
// behaviour profile needs (Vikunja #254). Nothing is asked of the LLM, so
// nothing else is wired. RecentFacts is left unimplemented on purpose: the
// profile must not read the mixed window, and a caller that does fails here.
type habitAPI struct {
ipc.UnimplementedCoreAPI
facts []ipc.Fact
err error
calls int
kind string
}
func (a *habitAPI) RecentActiveFactsByKind(_ context.Context, kind string, _ int) ([]ipc.Fact, error) {
a.calls++
a.kind = kind
return a.facts, a.err
}
// tuesdayFacts — n weekly Tuesday rows for key, ending before now.
func tuesdayFacts(key string, hh, weeks int, now time.Time) []ipc.Fact {
d := now
for d.Weekday() != time.Tuesday {
d = d.AddDate(0, 0, -1)
}
var out []ipc.Fact
for i := 0; i < weeks; i++ {
day := d.AddDate(0, 0, -7*i)
out = append(out, ipc.Fact{
Ts: time.Date(day.Year(), day.Month(), day.Day(), hh, 0, 0, 0, now.Location()),
Kind: "self",
Key: key,
})
}
return out
}
func TestQueryHabitsAnswersFromCountedFacts(t *testing.T) {
now := planDay() // a Monday
api := &habitAPI{facts: tuesdayFacts("workout", 19, 4, now)}
h := &reactiveHandler{api: api, now: func() time.Time { return now }}
reply, ok := h.queryHabits(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что я обычно делаю по вторникам?"},
})
if !ok {
t.Fatal("the habit source must claim a habit question")
}
if want := "по вторникам ты обычно тренируешься около 19:00."; reply != want {
t.Errorf("reply = %q, want %q", reply, want)
}
}
func TestQueryHabitsPassesOnEverythingElse(t *testing.T) {
now := planDay()
for _, q := range []string{"что я делаю в среду?", "что у меня сегодня?", "какие планы на сегодня?", ""} {
api := &habitAPI{}
h := &reactiveHandler{api: api, now: func() time.Time { return now }}
if reply, ok := h.queryHabits(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: q},
}); ok {
t.Errorf("%q was claimed by the habit source (reply %q)", q, reply)
}
if api.calls != 0 {
t.Errorf("%q scanned the fact log for a profile it does not want", q)
}
}
}
// Both specific sources must precede the calendar listing, which matches any
// utterance naming a day.
func TestHabitSourcePrecedesCalendar(t *testing.T) {
habits, cal := -1, -1
for i, s := range querySources {
switch s.name {
case "habits":
habits = i
case "calendar":
cal = i
}
}
if habits < 0 || cal < 0 {
t.Fatalf("sources missing: habits=%d calendar=%d", habits, cal)
}
if habits > cal {
t.Errorf("habits at %d must come before calendar at %d", habits, cal)
}
}
// TestQueryHabitsReadsSelfFactsOnly — the profile window is a budget over rows,
// so it must be spent on the rows the profile can use. Reading the mixed table
// let one chatty poller (wg_handshake, roughly every two minutes per peer) push
// every tap out of the window, and she then reported no habits on a store that
// held them.
func TestQueryHabitsReadsSelfFactsOnly(t *testing.T) {
now := planDay()
api := &habitAPI{facts: tuesdayFacts("workout", 19, 4, now)}
h := &reactiveHandler{api: api, now: func() time.Time { return now }}
if _, ok := h.queryHabits(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "что я обычно делаю по вторникам?"},
}); !ok {
t.Fatal("the habit source must claim a habit question")
}
if api.kind != string(store.KindSelf) {
t.Errorf("profile read kind %q, want %q", api.kind, store.KindSelf)
}
}
// TestHabitQueryWithPlanWordReachesHabits — the whole chain, not just the
// matchers: a habit question carrying "планы" used to be answered by the day
// plan with today's calendar, because day-plan sits above habits.
func TestHabitQueryWithPlanWordReachesHabits(t *testing.T) {
now := planDay()
api := &habitAPI{facts: tuesdayFacts("workout", 19, 4, now)}
h := &reactiveHandler{api: api, now: func() time.Time { return now }}
reply := h.actionQuery(context.Background(), router.Decision{
Intent: router.IntentQuery,
Utterance: "какие у меня обычно планы по вторникам?",
})
if want := "по вторникам ты обычно тренируешься около 19:00."; reply != want {
t.Errorf("reply = %q, want %q", reply, want)
}
}
// The plan reads the store on the owner's clock: one line per event, the hour
// printed once, and reminders selected by fire time rather than by how
// recently they were stated.
func TestTickDayPlanReadsTheStore(t *testing.T) {
st := newTestStore(t)
ctx := context.Background()
tl := newTestTickLoop(t, st, &fakeSink{}, nil)
now := time.Date(2026, 8, 3, 12, 0, 0, 0, time.Local)
day := time.Date(2026, 8, 3, 0, 0, 0, 0, time.Local)
ev := calendar.Event{
Summary: "Standup",
Start: day.Add(14 * time.Hour),
End: day.Add(14*time.Hour + 30*time.Minute),
}
// Rescheduled: same key, a second row.
if _, err := st.WriteFact(ctx, ev.Start, store.KindEnv, calendar.FactKey(ev),
calendar.FactValue(ev), calendar.SourcePersonal, 1.0, sql.NullInt64{}); err != nil {
t.Fatalf("WriteFact: %v", err)
}
moved := ev
moved.Start, moved.End = day.Add(16*time.Hour), day.Add(16*time.Hour+30*time.Minute)
if _, err := st.WriteFact(ctx, moved.Start, store.KindEnv, calendar.FactKey(moved),
calendar.FactValue(moved), calendar.SourcePersonal, 1.0, sql.NullInt64{}); err != nil {
t.Fatalf("WriteFact: %v", err)
}
// One reminder today, one next year. Both are pending; only today's is a
// plan for today.
if _, err := st.CreateReminder(ctx, day.Add(18*time.Hour), "позвонить маме", ""); err != nil {
t.Fatalf("CreateReminder: %v", err)
}
if _, err := st.CreateReminder(ctx, day.AddDate(1, 0, 0), "продлить страховку", ""); err != nil {
t.Fatalf("CreateReminder: %v", err)
}
plan := tl.dayPlan(ctx, now)
if len(plan.Items) != 2 {
t.Fatalf("got %d items, want the moved standup and today's reminder: %+v", len(plan.Items), plan.Items)
}
ev0 := plan.Items[0]
if ev0.Kind != "event" || ev0.At.In(time.Local).Format("15:04") != "16:00" {
t.Errorf("event = %+v, want the 16:00 one", ev0)
}
if ev0.Text != "Standup" {
t.Errorf("text = %q — the plan prints the hour itself", ev0.Text)
}
if plan.Items[1].Text != "позвонить маме" {
t.Errorf("second item = %+v", plan.Items[1])
}
if strings.Contains(plan.Spoken, "страховку") {
t.Errorf("a reminder for next year is not today's plan: %q", plan.Spoken)
}
}
// TestHandlerUpgradesToTheDaemonAPI — wireVoice runs before the tick loop
// exists, so the handler starts with the bare store adapter, and that adapter
// refuses DayPlan ("not available via direct store API"). main back-patches
// the real one in. Without the patch every "какие у меня планы на сегодня"
// answered "не получилось собрать план" on the deployed daemon, 01-08-2026.
func TestHandlerUpgradesToTheDaemonAPI(t *testing.T) {
h := &reactiveHandler{api: ipc.NewStoreAPI(nil), now: planDay}
if _, err := h.api.DayPlan(context.Background()); err == nil {
t.Fatal("the bare store adapter served a day plan; this test is measuring nothing")
}
want := samplePlan()
h.upgradeAPI(&daemonAPI{
CoreAPI: ipc.UnimplementedCoreAPI{},
getDayPlan: func(context.Context) ipc.DayPlan { return want },
})
reply, ok := h.queryDayPlan(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: "какие у меня планы на сегодня?"},
})
if !ok {
t.Fatal("queryDayPlan passed on a plan question")
}
if reply != want.Spoken {
t.Fatalf("reply = %q, want the assembled plan", reply)
}
}
-133
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@@ -1,133 +0,0 @@
// mavend/decisiontrace.go — the daemon's half of the per-turn decision record.
//
// V-564. The router says what the cascade did (internal/router/decisiontrace.go);
// this file covers the two claimant sets that live in the daemon: the stateful
// resolvers that run BEFORE routing and pre-empt it unconditionally, and the
// query source chain that runs after. Those two are where the arbitration is
// least visible, because both are a hardcoded order of functions that each
// answer "is this mine?" alone and none of which answers "is this more mine
// than yours?" (V-558).
//
// Recording changes no route. Every helper here is a no-op on a context with no
// record, which is what every test that does not ask for one gets.
package main
import (
"context"
"github.com/kami/maven/internal/decision"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
)
// preRouteLadder — the resolvers runTurn offers the utterance to before the
// router sees it, in the order they get their say. Kept here as a roster rather
// than derived from the code, so a resolver that returns early and skips the
// rest still leaves the rest NAMED in the record: a claimant that never looked
// and one that looked and passed are the distinction the ordering hides, and
// they are the difference between a bug in the ladder and a bug in a resolver.
//
// Adding a step to runTurn means adding its name here. Nothing enforces that,
// and nothing should: a missing name costs one line of the record, while a
// check that walks the ladder would have to run the ladder.
var preRouteLadder = []string{
"confirm", "clarify-answer", "quiet-toggle", "snooze", "ack", "repair",
"repair-negative", "ordinal",
}
// notePreRoute records one rung of that ladder and passes its verdict through
// unchanged, so the call site stays the single `if handled` it already was.
func notePreRoute(ctx context.Context, name string, handled bool) bool {
rec := decision.From(ctx)
if rec == nil {
return handled
}
if handled {
rec.Note(decision.Claim{
Stage: decision.StagePreRoute, Claimant: name, Outcome: decision.Won,
Reason: "it pre-empted routing, so the router never saw this turn",
})
return handled
}
rec.Note(decision.Claim{
Stage: decision.StagePreRoute, Claimant: name, Outcome: decision.Declined,
Reason: "nothing of its own was pending",
})
return handled
}
// noteTerminal records whoever actually produced the reply, but only if the
// turn is still unclaimed. A route decides the intent; it does not answer, and
// on a thinned route or a plain act nothing downstream keeps a scoreboard. So
// the record would otherwise close with an empty winner, which reads as a lost
// turn instead of an asked question.
func noteTerminal(ctx context.Context, claimant string, intent router.Intent, reason string) {
decision.From(ctx).NoteIfUnclaimed(decision.Claim{
Stage: decision.StageAction, Claimant: claimant,
Intent: string(intent), Reason: reason,
})
}
// noteMerge records the follow-up merge, which is the one claimant that edits
// the winning decision instead of taking the turn from it. It is compared on
// the four slots the merge can fill, because a Decision holds a slice and is
// not comparable.
func noteMerge(ctx context.Context, before, after router.Decision) {
rec := decision.From(ctx)
if rec == nil {
return
}
changed := before.Slots.HasTime != after.Slots.HasTime ||
before.Slots.HasKey != after.Slots.HasKey ||
before.Slots.HasFn != after.Slots.HasFn ||
before.Slots.Text != after.Slots.Text ||
before.Intent != after.Intent
if !changed {
rec.Note(decision.Claim{
Stage: decision.StageMerge, Claimant: "follow-up-merge", Outcome: decision.Declined,
Reason: "no slot of this turn was left for a previous one to fill",
})
return
}
rec.Note(decision.Claim{
Stage: decision.StageMerge, Claimant: "follow-up-merge", Intent: string(after.Intent),
Outcome: decision.Merged, Reason: "filled this turn's gaps from the previous turn",
})
}
// turnDecisionsFn — the reader mavweb gets, or nil when voice was never wired.
// Same shape as intakeEventsFn: the daemon holds the ring, the IPC layer only
// converts it.
func turnDecisionsFn(w *voiceWiring) func(int) []ipc.TurnDecision {
if w == nil || w.handler == nil || w.handler.decisions == nil {
return nil
}
ring := w.handler.decisions
return func(n int) []ipc.TurnDecision {
recs := ring.Recent(n)
out := make([]ipc.TurnDecision, 0, len(recs))
for _, rec := range recs {
claims := make([]ipc.TurnClaim, 0, len(rec.Claims))
for _, c := range rec.Claims {
claims = append(claims, ipc.TurnClaim{
Stage: c.Stage, Claimant: c.Claimant, Intent: c.Intent,
Score: c.Score, HasScore: c.HasScore,
Outcome: c.Outcome, Reason: c.Reason,
})
}
out = append(out, ipc.TurnDecision{
Ts: rec.Ts, Utterance: rec.Utterance, Winner: rec.Winner, Claims: claims,
})
}
return out
}
}
// querySourceNames — the query chain's roster, in chain order.
func querySourceNames() []string {
names := make([]string, len(querySources))
for i, src := range querySources {
names[i] = src.name
}
return names
}
-163
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@@ -1,163 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/decision"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/memory"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/tool"
"github.com/kami/maven/internal/voice"
)
// traceHandler — a handler with the decision ring wired, the same shape the
// daemon builds in wireVoice.
func traceHandler(t *testing.T, ring *decision.Ring) *reactiveHandler {
t.Helper()
st := newTestStore(t)
api := ipc.NewStoreAPI(st)
now := time.Now()
emb := router.NewHashEmbedder(1024)
return &reactiveHandler{
api: api,
recall: recallWiring{embedder: emb, memStore: memory.NewInMemoryStore()},
router: buildRouter(emb, tool.NewMatcher(api), 0.55, nil, nil),
replier: voice.NewStubReplier(),
now: func() time.Time { return now },
dataStore: st,
decisions: ring,
}
}
// findClaim — the first claim for a claimant, or nil.
func findClaim(rec *decision.Record, claimant string) *decision.Claim {
for i := range rec.Claims {
if rec.Claims[i].Claimant == claimant {
return &rec.Claims[i]
}
}
return nil
}
// TestTurnRecordNamesWinnerAndLosers — the point of V-564. A turn a stage-0
// grammar claims must leave a record naming that grammar as the winner, naming
// a pre-route resolver that declined, and naming the routing engines that were
// never reached at all. The last of those is the fact the hardcoded ordering
// hides: "classifier" absent from the record and "classifier" never asked read
// the same to a human, and only one of them is the truth.
func TestTurnRecordNamesWinnerAndLosers(t *testing.T) {
ring := decision.NewRing()
h := traceHandler(t, ring)
reply := h.handleText(context.Background(), "web", "сколько сейчас времени")
if reply == "" {
t.Fatal("turn produced no reply")
}
recs := ring.Recent(5)
if len(recs) != 1 {
t.Fatalf("want 1 record, got %d", len(recs))
}
rec := recs[0]
if rec.Utterance != "сколько сейчас времени" {
t.Errorf("utterance = %q", rec.Utterance)
}
if !strings.HasPrefix(rec.Winner, "stage0:") {
t.Errorf("want a stage-0 grammar as the winner, got %q", rec.Winner)
}
// A loser that examined the turn: the confirm resolver ran first and had
// nothing pending.
confirm := findClaim(rec, "confirm")
if confirm == nil || confirm.Outcome != decision.Declined {
t.Errorf("confirm claim = %+v, want a decline", confirm)
}
// A loser that never looked: stage 0 answered, so neither routing engine
// was reached.
for _, name := range []string{"llm-router", "classifier"} {
c := findClaim(rec, name)
if c != nil && c.Outcome == decision.Won {
t.Errorf("%s cannot have won a stage-0 turn: %+v", name, c)
}
}
// And every rung of the ladder below the winner is named, not omitted.
for _, name := range preRouteLadder {
if findClaim(rec, name) == nil {
t.Errorf("ladder rung %q is missing from the record", name)
}
}
}
// TestRecordingDoesNotChangeTheReply — instrumentation, so a turn with the ring
// wired and the same turn without it must answer identically. If this ever
// fails, a claim site is doing more than noting.
func TestRecordingDoesNotChangeTheReply(t *testing.T) {
for _, utt := range []string{
"сколько сейчас времени",
"запиши что я пил воду",
"что у меня сегодня",
} {
withRing := traceHandler(t, decision.NewRing()).handleText(context.Background(), "web", utt)
without := traceHandler(t, nil).handleText(context.Background(), "web", utt)
if withRing != without {
t.Errorf("%q: recorded reply %q != unrecorded %q", utt, withRing, without)
}
}
}
// TestQueryChainRecordsWhoWasNeverAsked — a query source below the claimant is
// never consulted, and the record must say so rather than leave it out. This is
// the arm that would have explained the Rome misroute in one read.
func TestQueryChainRecordsWhoWasNeverAsked(t *testing.T) {
ring := decision.NewRing()
h := traceHandler(t, ring)
h.handleText(context.Background(), "web", "что у меня сегодня")
rec := ring.Recent(1)[0]
var asked, never int
for _, c := range rec.Claims {
if c.Stage != decision.StageQuery {
continue
}
if c.Outcome == decision.NeverAsked {
never++
} else {
asked++
}
}
if asked == 0 {
t.Fatal("no query source reported at all")
}
if never == 0 {
t.Fatal("no query source was recorded as never asked; the chain cannot have run to the end")
}
if got := len(querySourceNames()); asked+never != got {
t.Errorf("record covers %d of %d query sources", asked+never, got)
}
}
// TestTurnDecisionsFnConvertsTheRing — the IPC read path. Nil when voice was
// never wired, because a box with no turns is an empty page and not an error.
func TestTurnDecisionsFnConvertsTheRing(t *testing.T) {
if fn := turnDecisionsFn(nil); fn != nil {
t.Error("no wiring should mean no reader")
}
ring := decision.NewRing()
h := traceHandler(t, ring)
h.handleText(context.Background(), "web", "сколько сейчас времени")
fn := turnDecisionsFn(&voiceWiring{handler: h})
if fn == nil {
t.Fatal("wired handler produced no reader")
}
out := fn(10)
if len(out) != 1 || out[0].Winner == "" || len(out[0].Claims) == 0 {
t.Fatalf("conversion lost the record: %+v", out)
}
}
-807
View File
@@ -1,807 +0,0 @@
package main
import (
"bytes"
"context"
"log"
"os"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/memory"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
// Dialogue contract tests (V-563, child of V-558).
//
// Every other clarify test is single-shot: one ask, one answer, one assertion.
// Three bugs of the same family shipped in two days that way — V-554 (a parked
// question ate the three turns after it), V-557 (a confidently routed but
// incomplete reminder parked nothing, so the answer was web-searched) and the
// Rome case in V-558 (a side question was eaten as the time answer). None of
// them is visible in one turn. The dialogue path is a state machine, so it can
// be enumerated instead: whole traces, each with a per-turn expectation and an
// expected END state — what was written to the store, and what is still parked.
//
// Two rules for the rows below.
//
// Where today's behaviour is correct, it is asserted. Where it is WRONG, the row
// carries the CORRECT expectation and is skipped with the Vikunja id that will
// unskip it. A weakened expectation would be worse than no row: it would pin the
// bug as the contract.
//
// Everything runs on the offline floor — hash embedder, no llama-server, no
// ONNX, StubDateTimeParser. That has one consequence worth knowing before
// reading a fire time here: the stub reads "в 11:00" and "через час" and does
// not read "на 9" or "на завтра", so a trace that needs those is noted where it
// sits.
// claim — which claimant consumed an utterance. Not asserted: it is derived from
// the log lines the daemon already emits and printed on every failure, because
// "the reply differed" does not distinguish a wrong claimant from wrong copy,
// and that distinction is the whole point of V-558.
type claim struct {
utterance string
steps []string
}
func (c claim) String() string { return c.utterance + " ⇒ " + strings.Join(c.steps, " → ") }
// claimMarkers — log fragment to claimant name, in the order runTurn checks
// them. The fragments are the daemon's own words (clarify.go, repair.go,
// voice.go); a rename there shows up here as an "unclaimed" step rather than a
// silent mislabel.
var claimMarkers = []struct{ fragment, name string }{
{"parked question expired", "clarify:expired"},
{"is its own request", "clarify:stepped-aside"},
{"gave up on", "clarify:gave-up"},
{"did not fill", "clarify:re-ask"},
{"one gap filled", "clarify:ask-second-gap"},
{"asked about", "clarify:ask"},
{"repair —", "repair"},
{"route result: intent=", "route"},
}
// claimsOf reads the turn's log output and names the claimants that touched it.
func claimsOf(utterance, logged string) claim {
c := claim{utterance: utterance}
for _, line := range strings.Split(logged, "\n") {
for _, m := range claimMarkers {
if strings.Contains(line, m.fragment) {
name := m.name
if m.name == "route" {
name = "route:" + intentInLine(line)
}
c.steps = append(c.steps, name)
break
}
}
}
if len(c.steps) == 0 {
c.steps = []string{"unclaimed"}
}
return c
}
func intentInLine(line string) string {
_, rest, ok := strings.Cut(line, "intent=")
if !ok {
return "?"
}
intent, _, _ := strings.Cut(rest, " ")
return intent
}
// parkedWant — the question that must be armed after a turn. Attempt matters:
// a claimant that spends a retry on an utterance that was never an answer is
// exactly the V-554 shape, and the count is the only place it shows.
type parkedWant struct {
slot dialogue.Slot
attempt int
// carries — a substring the parked utterance must still hold, so a re-park
// that lost the answered subject fails here rather than three turns later.
carries string
}
// turn — one utterance and everything that must be true right after it.
type turn struct {
say string
// wait — the clock moves this far BEFORE the utterance. The only way to
// reach the TTL without sleeping.
wait time.Duration
// question — the reply must be exactly this clarify question, worded for
// this attempt. Zero slot ⇒ not checked.
question dialogue.Slot
attempt int
// gap — which part of the time she is asking about, for a SlotTime question
// (V-579). Zero value is the missing hour, which is what she asks first.
gap whenGap
// took — the words of the PREVIOUS turn that this ask must acknowledge
// before asking again (V-593). Empty ⇒ the ask carries no acknowledgement,
// which is right for a first ask and for an answer that moved nothing.
took string
// differs — this reply must not be byte-identical to the one before it. Set
// on a re-ask whose turn moved the request forward (V-593).
differs bool
contains []string
notContain []string
// noQuestion — the reply must not be any clarify question. Used where the
// correct behaviour is known but her wording for it is not written yet: a
// cancel must not be answered with another question, whatever it does say.
noQuestion bool
expired bool // the reply must open with the TTL notice
// parked — what is armed after the turn. nil ⇒ nothing may be armed.
parked *parkedWant
}
// endState — what the store holds once the trace is over. Counts and
// substrings, not rows: a trace is about who claimed what, and a payload
// substring is enough to catch a request landing under the wrong words.
type endState struct {
reminders []reminderWant
factKeys []string
notes int
tasks []string
}
type reminderWant struct {
payload string // substring of the stored payload
fireAt string // "2006-01-02 15:04" in UTC, "" ⇒ not checked
}
// trace — a named conversation, its turns, and the end state.
type trace struct {
name string
skip string // non-empty ⇒ t.Skip: today's behaviour is wrong, this names the fix
turns []turn
end endState
}
// newDialogueHandler — the offline floor with the real cascade and a movable
// clock: newClarifyHandler's wiring (stub date parser, real fact parser, tool
// matcher) plus the router newRoutingClarifyHandler builds, and the `now`
// pointer so a turn can carry a wait.
func newDialogueHandler(t *testing.T) (*reactiveHandler, *store.Store, *time.Time) {
t.Helper()
h, st, now := newClarifyHandler(t)
// A minute no trace ever says, so "fires at the current clock" is a defect
// and never a coincidence (V-577, V-579). checkEnd refuses any reminder
// landing on it, and at 09:00 the row that answers "на 9" would trip that.
*now = time.Date(2026, 7, 31, 9, 17, 0, 0, time.UTC)
h.router = buildRouter(router.NewHashEmbedder(1024), h.matcher, 0.55, nil, nil)
h.recall = recallWiring{embedder: router.NewHashEmbedder(1024), memStore: memory.NewInMemoryStore()}
return h, st, now
}
// wantedQuestion builds the question a turn must be answered with, from the
// same code the daemon asks through. A time question is built from the gap,
// because she names the clock and asks about the part he left out (V-579).
func wantedQuestion(tn turn, now time.Time) (string, bool) {
if tn.question == dialogue.SlotTime {
gap := tn.gap
if gap == whenComplete {
gap = whenNoHour
}
return whenQuestion(gap, tn.attempt, now, whenTakenLine(tn.took))
}
return clarifyQuestionFor(tn.question, tn.attempt)
}
// runTrace drives one trace through handleText and checks every turn, then the
// end state. Every failure carries the decision trace so far, so a wrong
// claimant reads differently from wrong copy.
func runTrace(t *testing.T, tr trace) {
t.Helper()
// MAVEN_DIALOGUE_NO_SKIP=1 runs the rows that fail today. That is how
// whoever lands V-560, V-561 or V-562 sees their row go green before
// deleting its skip, and it is also the check that a skip is still earned:
// a row that passes with the skip in place is a fix nobody noticed.
if tr.skip != "" && os.Getenv("MAVEN_DIALOGUE_NO_SKIP") == "" {
t.Skip(tr.skip)
}
ctx := context.Background()
h, st, now := newDialogueHandler(t)
const conversation = "web"
id := dialogueIDFor(sourceText, conversation)
var claims []claim
var previous string
fail := func(turnIdx int, format string, args ...any) {
t.Helper()
lines := make([]string, 0, len(claims))
for _, c := range claims {
lines = append(lines, " "+c.String())
}
t.Fatalf("turn %d: "+format+"\n who claimed what:\n%s",
append([]any{turnIdx}, append(args, strings.Join(lines, "\n"))...)...)
}
for i, tn := range tr.turns {
if tn.wait > 0 {
*now = now.Add(tn.wait)
}
var logged bytes.Buffer
prev := log.Writer()
log.SetOutput(&logged)
reply := h.handleText(ctx, conversation, tn.say)
log.SetOutput(prev)
claims = append(claims, claimsOf(tn.say, logged.String()))
body := reply
if tn.expired {
if !isClarifyExpired(reply) {
fail(i, "reply %q must open with the expiry notice", reply)
}
body = trimClarifyExpired(reply)
// The notice is glued in front of this turn's reply, and both halves
// have to survive: the words he just said are routed fresh, and
// answering only "I let the old one go" drops them.
if body == "" {
fail(i, "the notice was the whole reply; the fresh words were never answered")
}
} else if isClarifyExpired(reply) {
fail(i, "reply %q announced an expiry nothing asked for", reply)
}
if tn.question != "" {
want, ok := wantedQuestion(tn, h.now())
if !ok {
fail(i, "no question exists for slot %s attempt %d", tn.question, tn.attempt)
}
if body != want {
fail(i, "reply %q, want the %s question worded for attempt %d, %q", body, tn.question, tn.attempt, want)
}
}
if tn.noQuestion && isAnyClarifyQuestion(body) {
fail(i, "reply %q is another question; this turn is not something to ask about", body)
}
for _, want := range tn.contains {
if !strings.Contains(body, want) {
fail(i, "reply %q does not carry %q", body, want)
}
}
for _, unwanted := range tn.notContain {
if strings.Contains(body, unwanted) {
fail(i, "reply %q carries %q and must not", body, unwanted)
}
}
if tn.differs && reply == previous {
fail(i, "reply %q is byte-identical to the one before it, and his turn between them answered part of the gap", reply)
}
previous = reply
checkParked(t, fail, i, h.clarifyStore.Get(id, h.now()), tn.parked)
}
checkEnd(t, ctx, st, h, tr.end, claims)
}
// isAnyClarifyQuestion — is this reply one of her clarify questions, at any
// attempt wording? Reads the templates rather than a list of its own.
func isAnyClarifyQuestion(reply string) bool {
for _, variants := range clarifyQuestionVariants {
for _, v := range variants {
// HasSuffix, not equality: a question about the time opens with the
// clock she is reasoning from (V-579).
if strings.HasSuffix(reply, v) {
return true
}
}
}
// The two questions with no deck behind them, asked when the hour is said
// and its half of the day or its day is not.
return strings.HasSuffix(reply, "утра или вечера?") || strings.HasSuffix(reply, "В какой день?")
}
func checkParked(t *testing.T, fail func(int, string, ...any), i int, got *dialogue.PendingQuestion, want *parkedWant) {
t.Helper()
if want == nil {
if got != nil {
fail(i, "a question about %v is still armed and nothing should be: %+v", got.Missing, got.Slots)
}
return
}
if got == nil {
fail(i, "nothing is armed, want a question about %s (attempt %d)", want.slot, want.attempt)
return
}
if len(got.Missing) != 1 || got.Missing[0] != want.slot {
fail(i, "armed question is about %v, want %s", got.Missing, want.slot)
}
if got.Attempts != want.attempt {
fail(i, "armed question is on attempt %d, want %d — a retry spent on something that was never an answer is the V-554 shape", got.Attempts, want.attempt)
}
if want.carries != "" && !strings.Contains(got.Utterance, want.carries) {
fail(i, "the parked request no longer carries %q: %q", want.carries, got.Utterance)
}
}
func checkEnd(t *testing.T, ctx context.Context, st *store.Store, h *reactiveHandler, want endState, claims []claim) {
t.Helper()
lines := make([]string, 0, len(claims))
for _, c := range claims {
lines = append(lines, " "+c.String())
}
trace := "\n who claimed what:\n" + strings.Join(lines, "\n")
reminders, err := st.DueReminders(ctx, h.now().Add(14*24*time.Hour))
if err != nil {
t.Fatalf("DueReminders: %v", err)
}
if len(reminders) != len(want.reminders) {
t.Fatalf("end state: %d reminder(s), want %d: %+v%s", len(reminders), len(want.reminders), reminders, trace)
}
// No trace may leave a reminder at the current clock, whatever else it
// asserts (V-577, V-579). Twice on the box a sentence naming a day and no
// hour was completed from time.Now(): "что у меня сегодня?" became 01:28 and
// "на завтра" became 01:38. Neither minute was ever spoken, and a row that
// only checked the payload would have passed both.
for _, r := range reminders {
if r.FireTs.In(h.now().Location()).Format("15:04") == h.now().Format("15:04") {
t.Fatalf("end state: reminder %q fires at %s, which is the clock — a time slot naming no hour is asked about, never filled from now()%s",
r.Payload, r.FireTs.Format("15:04"), trace)
}
}
for i, w := range want.reminders {
if !strings.Contains(reminders[i].Payload, w.payload) {
t.Fatalf("end state: reminder %d payload %q does not carry %q%s", i, reminders[i].Payload, w.payload, trace)
}
if w.fireAt != "" {
if got := reminders[i].FireTs.UTC().Format("2006-01-02 15:04"); got != w.fireAt {
t.Fatalf("end state: reminder %d fires at %s, want %s%s", i, got, w.fireAt, trace)
}
}
}
facts, err := st.RecentFacts(ctx, 20)
if err != nil {
t.Fatalf("RecentFacts: %v", err)
}
if len(facts) != len(want.factKeys) {
t.Fatalf("end state: %d fact(s), want %d: %+v%s", len(facts), len(want.factKeys), facts, trace)
}
for i, key := range want.factKeys {
if facts[i].Key != key {
t.Fatalf("end state: fact %d is %q, want %q%s", i, facts[i].Key, key, trace)
}
}
notes, err := st.RecentNotes(ctx, 20)
if err != nil {
t.Fatalf("RecentNotes: %v", err)
}
if len(notes) != want.notes {
t.Fatalf("end state: %d note(s), want %d%s", len(notes), want.notes, trace)
}
tasks, err := st.ListTasks(ctx, store.TaskOpen)
if err != nil {
t.Fatalf("ListTasks: %v", err)
}
if len(tasks) != len(want.tasks) {
t.Fatalf("end state: %d open task(s), want %d: %+v%s", len(tasks), len(want.tasks), tasks, trace)
}
for i, text := range want.tasks {
if !strings.Contains(tasks[i].Text, text) {
t.Fatalf("end state: task %d is %q, want it to carry %q%s", i, tasks[i].Text, text, trace)
}
}
}
func TestDialogueTraces(t *testing.T) {
for _, tr := range dialogueTraces() {
tr := tr
t.Run(tr.name, func(t *testing.T) { runTrace(t, tr) })
}
}
// dialogueTraces — the fixture. Order is the order the shapes were found, not a
// dependency: each trace builds its own handler and store.
func dialogueTraces() []trace {
return []trace{
// The plain two-turn shape, and the one every other row is a deviation
// from: she asks for the time, he gives it, the reminder lands with the
// subject he said in the FIRST turn.
{
// Three turns since V-579, not two. An hour with no day named is
// not an answer she can act on: 11:00 today has passed as often as
// not, and picking one for him is the invention the whole rule is
// against. So she says the clock she is reasoning from and asks
// which day.
name: "reminder completed over three turns",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "маме"}},
{say: "в 11:00", question: dialogue.SlotTime, attempt: 2, gap: whenNoDay, took: "в 11:00",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 2, carries: "маме"}},
{say: "сегодня", contains: []string{"11:00"}, notContain: []string{"?"}},
},
end: endState{reminders: []reminderWant{{payload: "позвонить маме", fireAt: "2026-07-31 11:00"}}},
},
// The same shape on the fact path, where the answer carries both halves
// of what was missing — the key and the value — in one breath.
{
name: "fact completed over two turns",
turns: []turn{
{say: "запиши", question: dialogue.SlotKey, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotKey, attempt: 1}},
// His words back, not the key the parser filed them under
// (V-592). "water" is machine vocabulary and he never said it.
{say: "пил воду", contains: []string{"пил воду"}},
},
end: endState{factKeys: []string{"water"}},
},
// An answer past the TTL is a new request, not an answer (V-385). She
// says the old one is gone and routes the words fresh. A bare time on
// its own carries no request, so the fresh routing lands on the canned
// reply — the point of the row is that NOTHING is created: a reminder
// here would fire with the subject of a request she had already let go.
{
name: "answer arrives after the TTL",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "в 11:00", wait: clarifyTTL + time.Second, expired: true},
},
end: endState{},
},
// Three questions is the budget, and running out is SPOKEN: a mute
// give-up reads as "done" and he would wait for a reminder that was
// never set. The wording changes with the attempt (V-457).
{
name: "three unclear answers then the give-up line",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "ну не знаю", question: dialogue.SlotTime, attempt: 2,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 2}},
{say: "ну не знаю", question: dialogue.SlotTime, attempt: 3,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 3}},
{say: "ну не знаю", contains: []string{clarifyGaveUp}, noQuestion: true},
},
end: endState{},
},
// A correction points at the previous ACTED turn (repair.go): she redoes
// it under the intent he names and says so out loud, because a
// correction he cannot see is indistinguishable from one that was
// dropped. The task she filed first stays filed — repair redoes, it does
// not retract, and V-455 decided that deliberately.
//
// The corrected-to intent has to differ from the one she used, or repair
// declines: teaching the classifier the label it already produced is
// worse than doing nothing.
{
name: "correction of the previous turn",
turns: []turn{
{say: "добавь в задачи купить молоко", contains: []string{"купить молоко"}},
{say: "нет, это был вопрос", contains: []string{"поняла, это вопрос"}},
},
end: endState{tasks: []string{"купить молоко"}},
},
// He walks away from his own request: a question is parked, the next
// utterance is an unrelated request of its own, and nothing follows.
// V-554's fix is what makes this row pass — the question steps aside
// rather than scoring "добавь в задачи" as the time. The reminder is
// dropped in silence and that is the decision: if he meant it he says it
// again, and a question left armed eats the turn after next.
{
name: "abandoned flow: parked, then an unrelated request",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "добавь в задачи купить молоко", contains: []string{"купить молоко"}},
{say: "спасибо"},
},
end: endState{tasks: []string{"купить молоко"}},
},
// V-577 shape 1, the worst of the nine claimants measured on 2026-08-06.
// Every token of "что у меня сегодня?" is frame — an interrogative, a
// preposition, a particle and a day word — so the role classifier never
// looked at the route, the parked reminder read "сегодня" as its time,
// and the hour came from the clock. He got a reminder he never asked for
// at a minute he never said, and his question was answered nowhere.
//
// Two claims: the calendar answers, and nothing is written. The flow
// survives underneath, because a question of his own is not a request to
// abandon the one he was making.
{
name: "an agenda question mid-flow is answered, not eaten",
turns: []turn{
{say: "напомни забрать посылку", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "посылку"}},
{say: "что у меня сегодня?", contains: []string{"31.07.2026"},
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "посылку"}},
},
end: endState{},
},
// V-577 shape 2. He states something in the middle of the flow. It is
// neither a slot value nor a cancel, and it was scored as a failed
// answer and dropped in silence: alone the same sentence is stored.
// Silence is the one option that is wrong, so it is stored, no retry is
// spent, and the question comes back on the end of the same reply.
//
// The words are a fact and not the owner's note, because the fact parser
// is deterministic and the offline floor marks every classifier route
// Clarify. The row below carries his own sentence and needs the model.
//
// What this floor can prove is the arbitration: no retry is spent, the
// flow survives on the same attempt, and the words are answered as
// themselves with the question coming back after them. Whether the fact
// is then WRITTEN is the routing engine's business — the hash embedder
// is unsure of every sentence it sees, and an unsure fact has never been
// stored.
{
name: "a fact stated mid-flow steps aside without spending a retry",
turns: []turn{
{say: "напомни позвонить врачу", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "врачу"}},
// Nothing she says about it may be a word he did not say
// (V-592). On the box this sentence came back as "Проверила, что
// ты выпел стакан воды": a non-word for the verb, a glass copied
// out of the example in ReplySystemPrompt, and a claim to have
// checked something. The store held key=water value="drank"
// throughout, so all of it was generated from two tokens.
//
// The positive half of the contract — the confirmation IS his
// sentence — is asserted by "fact completed over two turns"
// above. It cannot be asserted here: the hash embedder marks
// this route Clarify, and an unsure fact is answered with the
// canned line rather than a confirmation of anything.
{say: "я выпил воды", contains: []string{"напоминание?"},
notContain: []string{"стакан", "выпел", "Проверила", "water"},
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "врачу"}},
},
end: endState{},
},
// V-593: two asks about the same half of the day, with a turn between
// them that answered the DAY. Asking again is right and asking in the
// same bytes is not — from his side it is indistinguishable from not
// having been heard, which is what the whole V-558 family is about.
//
// The clock still opens every ask (the owner's rule, V-579); the
// acknowledgement goes after it and before the question.
{
name: "a re-ask names what the answer before it gave her",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "на 9", question: dialogue.SlotTime, attempt: 2, gap: whenAmbiguousHour, took: "на 9",
contains: []string{"Сейчас "},
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 2}},
{say: "на завтра", question: dialogue.SlotTime, attempt: 3, gap: whenAmbiguousHour, took: "на завтра",
contains: []string{"Сейчас ", "завтра"}, differs: true,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 3}},
},
end: endState{},
},
// V-579 turn 3: the preposition decided whether the hour was read. "в 9"
// set the reminder and "на 9" was not read at all, on the same build and
// with the same cardinal.
{
// It is read, and being read is not the same as being enough: nine is
// either half of the day, so she asks which and then which day
// (V-579). Both answers are frame words and neither carries an hour
// of its own, so this row is also the proof that an answer is read
// against the whole request rather than alone.
name: "на 9 answers the time question like в 9",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "на 9", question: dialogue.SlotTime, attempt: 2, gap: whenAmbiguousHour, took: "на 9",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 2}},
{say: "утра", question: dialogue.SlotTime, attempt: 3, gap: whenNoDay, took: "утра",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 3}},
{say: "завтра", contains: []string{"09:00"}},
},
end: endState{reminders: []reminderWant{{payload: "позвонить маме", fireAt: "2026-08-01 09:00"}}},
},
// The owner's own four, ruled 2026-08-06 (V-579). A reminder commits
// when what, what time and what day are all answered, and every ask
// states the clock she is reasoning from.
{
name: "his first example: a bare 3 is asked about",
turns: []turn{
{say: "напомни завтра в 3 заказать цветы",
question: dialogue.SlotTime, attempt: 1, gap: whenAmbiguousHour,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "цветы"}},
},
end: endState{},
},
{
// The hour is unambiguous and the day is still missing, so she asks.
// Today being a valid reading is not the same as him saying it.
name: "his second example: nine in the evening of which day",
turns: []turn{
{say: "напомни в 9 вечера разгрузить стиралку",
question: dialogue.SlotTime, attempt: 1, gap: whenNoDay,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "стиралку"}},
{say: "завтра", contains: []string{"21:00"}},
},
end: endState{reminders: []reminderWant{{payload: "стиралку", fireAt: "2026-08-01 21:00"}}},
},
{
// All three answered in one breath, so she does not ask at all.
name: "his third example: a full time commits",
turns: []turn{
{say: "напомни завтра в 15:00 заказать цветы", notContain: []string{"?"}},
},
end: endState{reminders: []reminderWant{{payload: "цветы", fireAt: "2026-08-01 15:00"}}},
},
{
// An interval is one instant, so it answers the hour and the day
// together. Confirmed by the owner: "через час is fine as is".
name: "an interval commits without a question",
turns: []turn{
{say: "напомни через час позвонить маме", notContain: []string{"?"}},
},
end: endState{reminders: []reminderWant{{payload: "маме", fireAt: "2026-07-31 10:17"}}},
},
// V-579 turn 4: he named a day and no hour, and got the day at the
// current minute. She has to ask instead, and the global check in
// checkEnd refuses the invented minute for every row at once.
{
name: "a day with no hour is asked about, not taken from the clock",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "на завтра", question: dialogue.SlotTime, attempt: 2,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 2}},
},
end: endState{},
},
// ---- rows below carry the CORRECT expectation and fail today ----
// The owner's own sentence from V-577 shape 2, in his words. It needs
// an engine that can route it: the hash embedder marks it note with
// Clarify set, and a route she is not sure of is not evidence that he
// stated anything. The row above is the same contract in words the
// floor's deterministic fact parser reads.
{
name: "a note stated mid-flow is stored, not dropped",
skip: "the offline floor cannot route «у меня новый ноутбук» confidently; needs the resident model",
turns: []turn{
{say: "напомни позвонить врачу", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "врачу"}},
{say: "у меня новый ноутбук",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "врачу"}},
},
end: endState{notes: 1},
},
// The owner's target transcript, V-561. He asks for a reminder, she asks
// when, he asks something else entirely, and then comes back to her
// question. On the box this created a reminder at 00:12 and never
// answered Rome; on the offline floor the side question is recognised as
// its own request and the flow is dropped instead, so the wrong reminder
// is not made and the right one is not either.
//
// Both are the same defect: there is no suspend and resume. The correct
// shape is the middle turn answered on its own and the parked question
// still standing, on the same attempt — a side query is not a failed
// answer and must not spend a retry.
//
// The skip came off with V-579. What held it was the parser, not the
// arbitration: neither the stub nor the production one read "на 9",
// because only "в" framed a spoken hour, and "на завтра" was completed
// from the clock.
//
// Turn 3 now closes the flow, where the transcript has one more exchange
// in it. That is the 12-hour question — the owner's turn 4 answers "на
// 9" with "сейчас 15:23, на 9 сегодня вечером?" — and it is a decision of
// its own, not one to invent here. Nine o'clock is read as nine and, at
// 09:17, as tomorrow's, which is where the transcript ends up anyway.
// Turn 4 then has nothing to answer and must not write anything.
{
name: "the owner's transcript from V-561",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "какая сейчас погода в Риме?",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "маме"}},
// His words, unchanged. What changed under V-579 is that "на 9"
// is a question and not a commit: nine could be either half of
// the day, so she says the clock she is reading from and asks.
// "на завтра." then answers the day and leaves the half open, so
// she asks that one again.
// Each ask names what the turn before it gave her (V-593). The
// two asks about the half of the day are the same question and
// must not be the same sentence: he answered between them, and a
// reply with no trace of that reads as not having been heard.
{say: "а, да, прости - на 9.", question: dialogue.SlotTime, attempt: 2, gap: whenAmbiguousHour, took: "а, да, прости - на 9.",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 2}},
{say: "на завтра.", question: dialogue.SlotTime, attempt: 3, gap: whenAmbiguousHour, took: "на завтра.",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 3}},
},
end: endState{},
},
// The same shape said in words StubDateTimeParser reads. GREEN since
// V-561. Same three claims: Rome is answered, the question survives the
// side query on the same attempt, and the answer after it completes the
// reminder he actually asked for.
//
// It sits under the "fail today" header because the row above it still
// does. Do not re-skip it to tidy that up: this is the owner's
// acceptance test in the only words the offline floor can read.
{
name: "nested question: a parked question, then one of his own",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "какая сейчас погода в Риме?",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "маме"}},
{say: "в 11:00", question: dialogue.SlotTime, attempt: 2, gap: whenNoDay, took: "в 11:00",
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 2, carries: "маме"}},
{say: "сегодня", contains: []string{"11:00"}},
},
end: endState{reminders: []reminderWant{{payload: "позвонить маме", fireAt: "2026-07-31 11:00"}}},
},
// A cancel is one of the five turn roles V-560 names, and today it is
// none of them: "неважно" fills no slot and carries no request of its
// own, so it reads as a failed answer and spends a retry. Two turns
// later she is still asking about a reminder he called off.
//
// The row asserts what is knowable — nothing armed, nothing written, and
// not another question — rather than her wording for it, which is not
// written yet and is not this task's to invent.
{
name: "cancel: a parked question, then never mind",
skip: "V-560: a cancel is scored as a failed answer, not as a cancel",
turns: []turn{
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "неважно", noQuestion: true},
},
end: endState{},
},
// Order in runTurn is the whole arbitration (V-558), and this is what it
// costs: the clarify answer is checked at step 3 and the repair marker at
// step 4d, so while a question is parked no correction can be made. She
// scores "нет, это была заметка" as a bad time answer and asks again.
{
name: "correction while a question is parked",
skip: "V-560: clarify pre-empts the repair marker, so a correction cannot be spoken mid-flow",
turns: []turn{
{say: "добавь в задачи купить молоко", contains: []string{"купить молоко"}},
{say: "напомни позвонить маме", question: dialogue.SlotTime, attempt: 1,
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
{say: "нет, это был вопрос", contains: []string{"поняла, это вопрос"},
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1, carries: "маме"}},
},
end: endState{tasks: []string{"купить молоко"}},
},
// A reminder said whole, in one breath, with the hour in it — and she
// asks when. ReminderGrammar (stage0.go) builds its slots by hand and
// never runs the extractor, so a stage-0 reminder carries no time
// whatever the sentence says, and the clarify gate reads the gap as
// real. It costs a turn on the commonest reminder shape there is.
//
// Hermetic despite the date parser: stage 0 calls no parser at all, so
// this fails the same way with or without python dateparser installed.
{
name: "a reminder said whole is not asked about",
skip: "V-562: a stage-0 decision never meets the extractor, so its slots are never validated",
turns: []turn{
{say: "напомни в 11:00 позвонить маме", contains: []string{"11:00"}, noQuestion: true},
},
end: endState{reminders: []reminderWant{{payload: "позвонить маме", fireAt: "2026-07-31 11:00"}}},
},
// The same gap on the repair path. A correction redoes the request
// through finishClarified, which goes straight to applyAction — it never
// passes the clarify gate — so a redo that lands short answers with the
// parse error V-557 removed from the routing path: "не поняла, на когда
// напомнить." She should ask, exactly as she does for a fresh reminder
// with no time.
{
name: "a correction that lands short asks rather than failing",
skip: "V-562: finishClarified skips the clarify gate, so a repaired decision is never checked for gaps",
turns: []turn{
{say: "добавь в задачи купить молоко", contains: []string{"купить молоко"}},
{say: "нет, это было напоминание", contains: []string{"поняла, это напоминание"},
parked: &parkedWant{slot: dialogue.SlotTime, attempt: 1}},
},
end: endState{tasks: []string{"купить молоко"}},
},
}
}
-82
View File
@@ -1,82 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"github.com/kami/maven/internal/router"
)
// The list she read at the mic is not the list a browser is looking at
// (Vikunja #45 step 3). The clarify store was keyed per reach in #466; the
// dialogue session was still one slot for the box, so "второй" typed on the web
// closed the second task she had recited out loud.
func TestCandidatesDoNotCrossReaches(t *testing.T) {
h, st, _ := newClarifyHandler(t)
voiceCtx := withDialogueID(context.Background(), dialogueIDFor(sourceVoice, ""))
webCtx := withDialogueID(context.Background(), dialogueIDFor(sourceText, "web"))
ids := seedTasks(t, st, "купить хлеб", "позвонить маме")
putCandidates(h, voiceCtx, ids, "купить хлеб", "позвонить маме")
if reply, handled := h.resolveCandidate(webCtx, "первую сделал", sourceText); handled {
t.Fatalf("a web turn picked from the list she read aloud: %q", reply)
}
live, err := st.ListTasks(context.Background(), "live")
if err != nil {
t.Fatalf("list tasks: %v", err)
}
if len(live) != 2 {
t.Fatalf("%d tasks live, want 2 — the web turn moved one", len(live))
}
// The reach that was offered the list still owns it.
if _, handled := h.resolveCandidate(voiceCtx, "первую сделал", sourceVoice); !handled {
t.Fatal("the mic lost its own list")
}
}
// A selection writes a fact, so the fact must name the reach the words arrived
// on. It said "tap:voice" for a typed turn.
func TestCandidateProvenanceFollowsTheReach(t *testing.T) {
h, st, _ := newClarifyHandler(t)
ctx := withDialogueID(context.Background(), dialogueIDFor(sourceText, "web"))
ids := seedTasks(t, st, "купить хлеб")
putCandidates(h, ctx, ids, "купить хлеб")
if _, handled := h.resolveCandidate(ctx, "первую сделал", sourceText); !handled {
t.Fatal("the pick was not acted on")
}
done, err := st.ListTasks(context.Background(), "done")
if err != nil {
t.Fatalf("list tasks: %v", err)
}
if len(done) != 1 {
t.Fatalf("%d tasks done, want 1", len(done))
}
if by := done[0].ResolvedBy; by != string(sourceText) {
t.Errorf("resolved_by = %q, want %q", by, sourceText)
}
}
// Anaphora is per reach too: an ellipsis typed on the web must not continue the
// question he asked at the mic. Both surfaces stay usable at once, which is the
// case a single-owner box actually hits — a phone open while he talks.
func TestAnaphoraDoesNotCrossReaches(t *testing.T) {
h, _, _ := newClarifyHandler(t)
voiceCtx := withDialogueID(context.Background(), dialogueIDFor(sourceVoice, ""))
webCtx := withDialogueID(context.Background(), dialogueIDFor(sourceText, "web"))
now := h.now()
h.rememberTurn(voiceCtx, nil, router.Decision{
Intent: router.IntentQuery, Utterance: "во сколько у меня встреча",
}, now)
if sess := h.dialogueSessions.Get(dialogueIDOf(webCtx), now); sess != nil {
t.Fatalf("the web reach inherited the mic's turn: %+v", sess)
}
sess := h.dialogueSessions.Get(dialogueIDOf(voiceCtx), now)
if sess == nil || !strings.Contains(sess.Slots.Text, "встреча") {
t.Fatalf("the mic lost its own turn: %+v", sess)
}
}
-158
View File
@@ -1,158 +0,0 @@
package main
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/loop"
"github.com/kami/maven/internal/store"
)
// Vikunja #281 — the fourth delivery outcome: a care candidate the restraint
// gate suppresses (quiet hours / away / calendar-busy) is not necessarily
// lost. If it's worth resurfacing (loop.DigestEligible), it's durably held
// (internal/store's digest_entries) and spoken as one bundle once speaking
// is appropriate again — never while the suppression reason still holds.
func breakTrace(blockedBy string) *loop.TickTrace {
return &loop.TickTrace{
RuleTraces: []loop.RuleTrace{{
RuleName: "break",
Severity: loop.Sev2,
PredicateResult: true,
GateResult: false,
GateBlockedBy: blockedBy,
}},
}
}
// TestSuppressedCareDigestsAcrossQuietHours — a Sev2 care candidate blocked
// by quiet hours is enqueued into the durable digest, and is spoken as a
// "digest" nudge only once quiet hours actually end — never while still
// suppressed (that would just be a second way to nag through quiet hours).
func TestSuppressedCareDigestsAcrossQuietHours(t *testing.T) {
st := newTestStore(t)
sink := &fakeSink{}
tl := newTestTickLoop(t, st, sink, nil)
ctx := context.Background()
now := refNow()
quiet := loop.State{Now: now, QuietHours: true, Presence: store.Present}
tl.enqueueSuppressedDigest(ctx, breakTrace("quiet_hours"), quiet, now)
entries, err := st.PendingDigestEntries(ctx, now)
if err != nil {
t.Fatalf("pending: %v", err)
}
if len(entries) != 1 || entries[0].Rule != "break" {
t.Fatalf("want 1 pending digest entry for break, got %+v", entries)
}
// still quiet hours: draining now must not speak — the same restraint
// that suppressed the live nudge must suppress the bundle too.
tl.maybeDrainDigest(ctx, quiet, now)
if len(sink.sends) != 0 {
t.Fatalf("digest must not drain while quiet hours holds, got %+v", sink.sends)
}
// quiet hours end: this is the moment speaking is appropriate again.
after := now.Add(time.Hour)
clear := loop.State{Now: after, QuietHours: false, Presence: store.Present}
tl.maybeDrainDigest(ctx, clear, after)
if len(sink.sends) != 1 {
t.Fatalf("want exactly 1 dispatched digest bundle, got %d: %+v", len(sink.sends), sink.sends)
}
if sink.sends[0].RuleName != "digest" {
t.Fatalf("want RuleName digest, got %q", sink.sends[0].RuleName)
}
remaining, err := st.PendingDigestEntries(ctx, after)
if err != nil {
t.Fatalf("pending after drain: %v", err)
}
if len(remaining) != 0 {
t.Fatalf("drained entry must no longer be pending, got %+v", remaining)
}
}
// TestSuppressedCareDigestDedupesAcrossTicks — quiet hours holding for
// several ticks must not enqueue several copies of the same suppressed
// nudge; he hears it once when the bundle finally drains.
func TestSuppressedCareDigestDedupesAcrossTicks(t *testing.T) {
st := newTestStore(t)
sink := &fakeSink{}
tl := newTestTickLoop(t, st, sink, nil)
ctx := context.Background()
now := refNow()
quiet := loop.State{Now: now, QuietHours: true, Presence: store.Present}
for i := 0; i < 3; i++ {
tl.enqueueSuppressedDigest(ctx, breakTrace("quiet_hours"), quiet, now.Add(time.Duration(i)*time.Minute))
}
entries, err := st.PendingDigestEntries(ctx, now)
if err != nil {
t.Fatalf("pending: %v", err)
}
if len(entries) != 1 {
t.Fatalf("3 suppressions of the same nudge must collapse to 1 pending entry, got %d", len(entries))
}
}
// TestSuppressedCareDigestExpiresRatherThanDeliveringLate — an entry that
// aged out before the suppression cleared is dropped, not spoken late: a
// two-day-old "you skipped a break" is noise, not news.
func TestSuppressedCareDigestExpiresRatherThanDeliveringLate(t *testing.T) {
st := newTestStore(t)
sink := &fakeSink{}
tl := newTestTickLoop(t, st, sink, nil)
ctx := context.Background()
now := refNow()
quiet := loop.State{Now: now, QuietHours: true, Presence: store.Present}
tl.enqueueSuppressedDigest(ctx, breakTrace("quiet_hours"), quiet, now)
// well past digestExpiry (24h) before the suppression ever clears.
stale := now.Add(48 * time.Hour)
tl.expireStaleDigest(ctx, stale)
clear := loop.State{Now: stale, QuietHours: false, Presence: store.Present}
tl.maybeDrainDigest(ctx, clear, stale)
if len(sink.sends) != 0 {
t.Fatalf("a stale digest entry must be dropped, not delivered late; got %+v", sink.sends)
}
}
// TestSuppressedCareDigestIgnoresHighSeverity — defense in depth at the
// wiring layer: even if a RuleTrace somehow showed a high-severity rule
// blocked by a care-only gate reason, the tick driver must not durably
// digest it. Alarms bypass the gate and deliver now, unchanged; they must
// never be silently delayed into a bundle.
func TestSuppressedCareDigestIgnoresHighSeverity(t *testing.T) {
st := newTestStore(t)
sink := &fakeSink{}
tl := newTestTickLoop(t, st, sink, nil)
ctx := context.Background()
now := refNow()
trace := &loop.TickTrace{RuleTraces: []loop.RuleTrace{{
RuleName: "service_down",
Severity: loop.Sev4,
PredicateResult: true,
GateResult: false,
GateBlockedBy: "quiet_hours",
}}}
quiet := loop.State{Now: now, QuietHours: true, Presence: store.Present}
tl.enqueueSuppressedDigest(ctx, trace, quiet, now)
entries, err := st.PendingDigestEntries(ctx, now)
if err != nil {
t.Fatalf("pending: %v", err)
}
if len(entries) != 0 {
t.Fatalf("high severity must never be digested, got %+v", entries)
}
}
+120 -325
View File
@@ -6,13 +6,11 @@ import (
"crypto/rand"
"encoding/hex"
"encoding/json"
"errors"
"fmt"
"io"
"log"
"net/http"
"net/url"
"strings"
"time"
hexisclient "github.com/kami/hexis/pkg/client"
@@ -33,214 +31,26 @@ func correlationIDFromCtx(ctx context.Context) string {
return id
}
// ecosystemAPIVersion is the contract version Maven speaks to Nexus and
// Praxis. It is sent on every request so a service that has moved on can
// refuse or adapt explicitly instead of misreading an older payload.
const ecosystemAPIVersion = "v1"
// mavenRequester identifies the calling system on every ecosystem request, so
// a trace on the far side can attribute a call to Maven rather than to an
// anonymous HTTP client.
const mavenRequester = "maven"
// ecosystemHTTP is the JSON transport every ecosystem client shares: one base
// URL, one bearer token, and the header set the contract requires on each
// request. Nexus and Praxis differ only in the service name and the version
// header, so both embed this rather than repeating build, send and classify.
type ecosystemHTTP struct {
service string // "nexus", "praxis" — the name errors and traces carry
versionHeader string
baseURL string
token string
httpClient *http.Client
}
func newEcosystemHTTP(service, versionHeader, baseURL string) ecosystemHTTP {
return ecosystemHTTP{
service: service,
versionHeader: versionHeader,
baseURL: baseURL,
httpClient: &http.Client{Timeout: 10 * time.Second},
}
}
// setHeaders stamps the version, requester, auth and correlation headers common
// to every outgoing ecosystem request. The token may be empty, which means the
// transport itself is trusted (loopback or unix socket).
//
// The correlation ID is read from the request's own context and never minted
// here. Minting one per request sent the far side an ID that existed nowhere on
// this side, and gave a single multi-hop action as many unrelated IDs as it
// made calls. Callers that start an action assign the ID once (handleHexisAct,
// handlePraxisAct, resolveEntityReference) and every hop inherits it.
func (t *ecosystemHTTP) setHeaders(req *http.Request) {
// setEcosystemHeaders stamps the version and correlation headers common to
// every outgoing ecosystem request.
func setEcosystemHeaders(req *http.Request, ctx context.Context, versionHeader string) {
req.Header.Set("Content-Type", "application/json")
req.Header.Set(t.versionHeader, ecosystemAPIVersion)
req.Header.Set("Accept", "application/json")
req.Header.Set("X-Requested-By", mavenRequester)
if t.token != "" {
req.Header.Set("Authorization", "Bearer "+t.token)
}
if id := correlationIDFromCtx(req.Context()); id != "" {
req.Header.Set(versionHeader, "v1")
if id := correlationIDFromCtx(ctx); id != "" {
req.Header.Set("X-Correlation-ID", id)
}
}
// call sends one request and decodes the JSON answer into out, which may be nil
// when the body carries nothing worth reading. op is the logical operation name
// for errors and traces: the path carries the query string, and after entity
// scoping that means an entity id in every log line built from the error, next
// to a trace that redacts far less than that.
//
// Every failure is an *ecosystemError, including the transport and decode ones.
// Some of these paths mutate remote state, and the question worth answering
// afterwards is whether the call never left or was refused.
func (t *ecosystemHTTP) call(ctx context.Context, method, op, path string, payload, out any) error {
var body io.Reader
if payload != nil {
data, err := json.Marshal(payload)
if err != nil {
return &ecosystemError{Service: t.service, Op: op, Err: err}
}
body = bytes.NewReader(data)
}
req, err := http.NewRequestWithContext(ctx, method, t.baseURL+path, body)
if err != nil {
return &ecosystemError{Service: t.service, Op: op, Err: err}
}
t.setHeaders(req)
resp, err := t.httpClient.Do(req)
if err != nil {
return &ecosystemError{Service: t.service, Op: op, Err: err}
}
defer resp.Body.Close()
if resp.StatusCode != 200 {
return httpError(t.service, op, resp.StatusCode)
}
if out == nil {
return nil
}
if err := json.NewDecoder(resp.Body).Decode(out); err != nil {
return &ecosystemError{Service: t.service, Op: op, Status: resp.StatusCode, Err: err}
}
return nil
}
// getJSON performs a GET and decodes the JSON body into out.
func (t *ecosystemHTTP) getJSON(ctx context.Context, op, path string, out any) error {
return t.call(ctx, http.MethodGet, op, path, nil, out)
}
// postJSON posts a JSON payload and decodes the JSON answer into out.
func (t *ecosystemHTTP) postJSON(ctx context.Context, op, path string, payload, out any) error {
return t.call(ctx, http.MethodPost, op, path, payload, out)
}
// ecosystemError is the typed failure every ecosystem client returns, so
// callers can tell a transport failure from a refusal from a contract
// mismatch without matching on message text. The distinction matters:
// "the service is down" and "the service rejected my version" degrade the
// same way to the user but not to whoever reads the trace.
type ecosystemError struct {
Service string // "nexus", "praxis", "hexis"
Op string // logical operation, e.g. "resolve"
Status int // HTTP status, 0 when the call never got an answer
Err error
}
func (e *ecosystemError) Error() string {
if e.Status != 0 {
return fmt.Sprintf("%s %s: http %d: %v", e.Service, e.Op, e.Status, e.Err)
}
return fmt.Sprintf("%s %s: %v", e.Service, e.Op, e.Err)
}
func (e *ecosystemError) Unwrap() error { return e.Err }
// Unauthorized reports a rejected or missing credential.
func (e *ecosystemError) Unauthorized() bool {
return e.Status == http.StatusUnauthorized || e.Status == http.StatusForbidden
}
// ContractMismatch reports that the far side refused the version Maven speaks.
func (e *ecosystemError) ContractMismatch() bool {
return e.Status == http.StatusNotAcceptable || e.Status == http.StatusUpgradeRequired
}
// Unreachable reports a call that never produced an HTTP answer at all
// (connection refused, timeout, cancelled).
func (e *ecosystemError) Unreachable() bool { return e.Status == 0 }
// httpError builds an ecosystemError from a response status.
func httpError(service, op string, status int) *ecosystemError {
return &ecosystemError{
Service: service, Op: op, Status: status,
Err: errors.New(http.StatusText(status)),
}
}
// hexisStatusTexts maps the http.StatusText spelling back to its code, for the
// failure statuses a Hexis call can plausibly answer with. It is the inverse of
// what the vendored client threw away.
var hexisStatusTexts = func() map[string]int {
codes := []int{
http.StatusBadRequest, http.StatusUnauthorized, http.StatusForbidden,
http.StatusNotFound, http.StatusMethodNotAllowed, http.StatusNotAcceptable,
http.StatusRequestTimeout, http.StatusConflict, http.StatusGone,
http.StatusUnprocessableEntity, http.StatusUpgradeRequired,
http.StatusTooManyRequests, http.StatusInternalServerError,
http.StatusNotImplemented, http.StatusBadGateway,
http.StatusServiceUnavailable, http.StatusGatewayTimeout,
}
m := make(map[string]int, len(codes))
for _, c := range codes {
m[http.StatusText(c)] = c
}
return m
}()
// hexisError re-wraps an error from the vendored Hexis client as an
// *ecosystemError, so a Hexis failure classifies the same way a Nexus or Praxis
// one does and ecosystemGap can tell a refused credential from an outage.
//
// This is a boundary adapter and it is not the fix anyone would choose. The
// Hexis client lives in another repository and returns
// fmt.Errorf("%s: %s", http.StatusText(status), body) for every status at or
// above 400, so the status text is the only signal that survives — the correct
// fix is a typed error carrying the code, and Maven cannot land it unilaterally
// (Vikunja #587, docs/plans/20-two-artifacts-and-neither-is-spring.md). Parsing
// here is bounded: the message's first colon-delimited segment is the status
// text verbatim, no status text contains a colon, and anything unrecognised —
// "do request: ...", "create request: ..." — is a transport failure and is left
// at status 0, which is exactly what Unreachable() means.
func hexisError(op string, err error) error {
if err == nil {
return nil
}
var ee *ecosystemError
if errors.As(err, &ee) {
return err
}
head, _, _ := strings.Cut(err.Error(), ": ")
return &ecosystemError{
Service: "hexis", Op: op, Status: hexisStatusTexts[head], Err: err,
}
}
type nexusClient struct {
ecosystemHTTP
baseURL string
httpClient *http.Client
}
func newNexusClient(url string) *nexusClient {
return &nexusClient{newEcosystemHTTP("nexus", "X-Nexus-Version", url)}
}
// withToken sets the bearer token sent on every request. Returns the client so
// wiring reads as one expression.
func (c *nexusClient) withToken(token string) *nexusClient {
c.token = token
return c
return &nexusClient{
baseURL: url,
httpClient: &http.Client{Timeout: 10 * time.Second},
}
}
type nexusEntity struct {
@@ -292,120 +102,100 @@ func (c *nexusClient) Resolve(ctx context.Context, query string, types []string)
body["types"] = types
}
data, _ := json.Marshal(body)
req, err := http.NewRequestWithContext(ctx, http.MethodPost, c.baseURL+"/api/v1/resolve", bytes.NewReader(data))
if err != nil {
return nil, fmt.Errorf("create request: %w", err)
}
setEcosystemHeaders(req, ctx, "X-Nexus-Version")
resp, err := c.httpClient.Do(req)
if err != nil {
return nil, fmt.Errorf("do request: %w", err)
}
defer resp.Body.Close()
bodyBytes, _ := io.ReadAll(resp.Body)
if resp.StatusCode != 200 {
return nil, fmt.Errorf("nexus: %s", http.StatusText(resp.StatusCode))
}
var result nexusResolveResult
if err := c.postJSON(ctx, "resolve", "/api/v1/resolve", body, &result); err != nil {
return nil, err
if err := json.Unmarshal(bodyBytes, &result); err != nil {
return nil, fmt.Errorf("decode: %w", err)
}
return &result, nil
}
func (c *nexusClient) Health(ctx context.Context) error {
return c.getJSON(ctx, "health", "/health", nil)
req, err := http.NewRequestWithContext(ctx, http.MethodGet, c.baseURL+"/health", nil)
if err != nil {
return err
}
setEcosystemHeaders(req, ctx, "X-Nexus-Version")
resp, err := c.httpClient.Do(req)
if err != nil {
return err
}
resp.Body.Close()
if resp.StatusCode != 200 {
return fmt.Errorf("nexus health: %s", http.StatusText(resp.StatusCode))
}
return nil
}
// praxisClient talks to the Praxis HTTP tools API. Maven must not open Praxis's
// SQLite store directly (ecosystem invariant: no component reads another's DB),
// so attention/changes/lifecycle all go over this HTTP contract against praxisd.
type praxisClient struct {
ecosystemHTTP
baseURL string
httpClient *http.Client
}
func newPraxisClient(url string) *praxisClient {
return &praxisClient{newEcosystemHTTP("praxis", "X-Praxis-Version", url)}
}
func (c *praxisClient) withToken(token string) *praxisClient {
c.token = token
return c
}
// praxisAttention — an attention response in either of the two shapes Praxis
// may send (Vikunja #540).
//
// ECOSYSTEM-SPEC §2.6 says the response carries `degraded: [source_ids]` when a
// source is failed or stale, and that Maven is required to say so rather than
// report all-clear. The deployed Praxis answers with a bare JSON array and no
// envelope at all, so both are decoded here: an array is the items, an object is
// the spec envelope. This lands the Maven half without waiting on the server,
// and the sources read below is what makes the hedge work meanwhile.
type praxisAttention struct {
Items []map[string]any
Degraded []string
}
func (a *praxisAttention) UnmarshalJSON(data []byte) error {
trimmed := bytes.TrimSpace(data)
if len(trimmed) > 0 && trimmed[0] == '[' {
return json.Unmarshal(trimmed, &a.Items)
return &praxisClient{
baseURL: url,
httpClient: &http.Client{Timeout: 10 * time.Second},
}
var env struct {
Items []map[string]any `json:"items"`
Degraded []string `json:"degraded"`
}
if err := json.Unmarshal(trimmed, &env); err != nil {
}
// getJSON performs a GET and decodes the JSON body into out.
func (c *praxisClient) getJSON(ctx context.Context, path string, out any) error {
req, err := http.NewRequestWithContext(ctx, http.MethodGet, c.baseURL+path, nil)
if err != nil {
return err
}
a.Items, a.Degraded = env.Items, env.Degraded
return nil
setEcosystemHeaders(req, ctx, "X-Praxis-Version")
resp, err := c.httpClient.Do(req)
if err != nil {
return err
}
defer resp.Body.Close()
if resp.StatusCode != 200 {
return fmt.Errorf("praxis: %s", http.StatusText(resp.StatusCode))
}
return json.NewDecoder(resp.Body).Decode(out)
}
func (c *praxisClient) ListAttention(ctx context.Context, limit int) (praxisAttention, error) {
var out praxisAttention
err := c.getJSON(ctx, "attention", fmt.Sprintf("/api/v1/tools/attention?limit=%d", limit), &out)
func (c *praxisClient) ListAttention(ctx context.Context, limit int) ([]map[string]any, error) {
var out []map[string]any
err := c.getJSON(ctx, fmt.Sprintf("/api/v1/tools/attention?limit=%d", limit), &out)
return out, err
}
// praxisSource — one polled source, as much of it as the hedge needs. The tools
// API does not expose sources, so this decodes the plain `/api/v1/sources` rows.
type praxisSource struct {
ID string `json:"id"`
SourceID string `json:"source_id"`
Health string `json:"health"`
}
func (s praxisSource) name() string {
if s.SourceID != "" {
return s.SourceID
}
return s.ID
}
// UnhealthySources reports which sources cannot be trusted to have reported,
// and how many sources Praxis has at all (Vikunja #540).
//
// Only read when the attention list came back empty, which is the one turn where
// an all-clear is at stake. A source whose health field is absent counts as
// healthy: a Praxis that never reports health would otherwise make every quiet
// turn a hedge, and an unreported field is not evidence of a fault. Everything it
// does report other than "ok" — failed, stale, degraded, unknown — counts as
// cannot-tell, because none of them mean the source has spoken.
func (c *praxisClient) UnhealthySources(ctx context.Context) (bad []string, total int, err error) {
var out []praxisSource
if err := c.getJSON(ctx, "sources", "/api/v1/sources", &out); err != nil {
return nil, 0, err
}
for _, s := range out {
if s.Health != "" && s.Health != "ok" {
bad = append(bad, s.name())
}
}
return bad, len(out), nil
}
// ListAttentionForEntity is ListAttention scoped to a single canonical Nexus
// entity, so callers already holding a resolved entity_id (e.g. after
// resolveEntityReference) can ask "what needs attention for this entity"
// instead of filtering the unscoped list client-side.
func (c *praxisClient) ListAttentionForEntity(ctx context.Context, entityID string, limit int) (praxisAttention, error) {
var out praxisAttention
err := c.getJSON(ctx, "attention_for_entity",
fmt.Sprintf("/api/v1/tools/attention?limit=%d&entity_id=%s", limit, url.QueryEscape(entityID)), &out)
func (c *praxisClient) ListAttentionForEntity(ctx context.Context, entityID string, limit int) ([]map[string]any, error) {
var out []map[string]any
err := c.getJSON(ctx, fmt.Sprintf("/api/v1/tools/attention?limit=%d&entity_id=%s", limit, url.QueryEscape(entityID)), &out)
return out, err
}
func (c *praxisClient) ListChanges(ctx context.Context, limit int) ([]map[string]any, error) {
var out []map[string]any
err := c.getJSON(ctx, "changes", fmt.Sprintf("/api/v1/tools/changes?limit=%d", limit), &out)
err := c.getJSON(ctx, fmt.Sprintf("/api/v1/tools/changes?limit=%d", limit), &out)
return out, err
}
@@ -431,16 +221,25 @@ type praxisItem struct {
// postItemAction posts {"item_id": id} to a Praxis tools lifecycle endpoint
// and decodes the resulting item. Shared by Surface/Acknowledge/Resolve/Ignore.
func (c *praxisClient) postItemAction(ctx context.Context, op, path, itemID string) (*praxisItem, error) {
return c.postItem(ctx, op, path, map[string]any{"item_id": itemID})
}
// postItem posts a body to a Praxis lifecycle endpoint and decodes the item.
func (c *praxisClient) postItem(ctx context.Context, op, path string, payload map[string]any) (*praxisItem, error) {
var out praxisItem
if err := c.postJSON(ctx, op, path, payload, &out); err != nil {
func (c *praxisClient) postItemAction(ctx context.Context, path, itemID string) (*praxisItem, error) {
body, _ := json.Marshal(map[string]any{"item_id": itemID})
req, err := http.NewRequestWithContext(ctx, http.MethodPost, c.baseURL+path, bytes.NewReader(body))
if err != nil {
return nil, err
}
setEcosystemHeaders(req, ctx, "X-Praxis-Version")
resp, err := c.httpClient.Do(req)
if err != nil {
return nil, err
}
defer resp.Body.Close()
if resp.StatusCode != 200 {
return nil, fmt.Errorf("praxis %s: %s", path, http.StatusText(resp.StatusCode))
}
var out praxisItem
if err := json.NewDecoder(resp.Body).Decode(&out); err != nil {
return nil, fmt.Errorf("decode: %w", err)
}
return &out, nil
}
@@ -448,28 +247,46 @@ func (c *praxisClient) postItem(ctx context.Context, op, path string, payload ma
// ECOSYSTEM-SPEC.md §2.3). Callers that read attention aloud must call this, never
// Acknowledge, so "I mentioned it" stays distinguishable from "you told me you saw it".
func (c *praxisClient) Surface(ctx context.Context, itemID string) (*praxisItem, error) {
return c.postItemAction(ctx, "surface", "/api/v1/tools/surface", itemID)
return c.postItemAction(ctx, "/api/v1/tools/surface", itemID)
}
func (c *praxisClient) Acknowledge(ctx context.Context, itemID string) (*praxisItem, error) {
return c.postItemAction(ctx, "acknowledge", "/api/v1/tools/acknowledge", itemID)
return c.postItemAction(ctx, "/api/v1/tools/acknowledge", itemID)
}
func (c *praxisClient) Resolve(ctx context.Context, itemID string) (*praxisItem, error) {
return c.postItemAction(ctx, "resolve", "/api/v1/tools/resolve", itemID)
return c.postItemAction(ctx, "/api/v1/tools/resolve", itemID)
}
func (c *praxisClient) Ignore(ctx context.Context, itemID string) (*praxisItem, error) {
return c.postItemAction(ctx, "ignore", "/api/v1/tools/ignore", itemID)
return c.postItemAction(ctx, "/api/v1/tools/ignore", itemID)
}
func (c *praxisClient) Pin(ctx context.Context, itemID string, pinned bool) (*praxisItem, error) {
return c.postItem(ctx, "pin", "/api/v1/tools/pin", map[string]any{"item_id": itemID, "pinned": pinned})
body, _ := json.Marshal(map[string]any{"item_id": itemID, "pinned": pinned})
req, err := http.NewRequestWithContext(ctx, http.MethodPost, c.baseURL+"/api/v1/tools/pin", bytes.NewReader(body))
if err != nil {
return nil, err
}
setEcosystemHeaders(req, ctx, "X-Praxis-Version")
resp, err := c.httpClient.Do(req)
if err != nil {
return nil, err
}
defer resp.Body.Close()
if resp.StatusCode != 200 {
return nil, fmt.Errorf("praxis pin: %s", http.StatusText(resp.StatusCode))
}
var out praxisItem
if err := json.NewDecoder(resp.Body).Decode(&out); err != nil {
return nil, fmt.Errorf("decode: %w", err)
}
return &out, nil
}
func (c *praxisClient) GetItem(ctx context.Context, itemID string) (*praxisItem, error) {
var out praxisItem
err := c.getJSON(ctx, "get_item", "/api/v1/tools/items/"+itemID, &out)
err := c.getJSON(ctx, "/api/v1/tools/items/"+itemID, &out)
if err != nil {
return nil, err
}
@@ -478,7 +295,7 @@ func (c *praxisClient) GetItem(ctx context.Context, itemID string) (*praxisItem,
func (c *praxisClient) Search(ctx context.Context, query string, limit int) ([]praxisItem, error) {
var out []praxisItem
err := c.getJSON(ctx, "search", fmt.Sprintf("/api/v1/tools/search?q=%s&limit=%d", url.QueryEscape(query), limit), &out)
err := c.getJSON(ctx, fmt.Sprintf("/api/v1/tools/search?q=%s&limit=%d", url.QueryEscape(query), limit), &out)
return out, err
}
@@ -494,7 +311,7 @@ func wireEcosystem(cfg *config.Config) *ecosystemWiring {
// Nexus identity service
if cfg.Nexus != nil && cfg.Nexus.URL != "" {
w.nexus = newNexusClient(cfg.Nexus.URL).withToken(cfg.Nexus.Token)
w.nexus = newNexusClient(cfg.Nexus.URL)
log.Printf("ecosystem: nexus at %s", cfg.Nexus.URL)
} else {
log.Printf("ecosystem: nexus not configured")
@@ -502,7 +319,7 @@ func wireEcosystem(cfg *config.Config) *ecosystemWiring {
// Hexis capability service
if cfg.Hexis != nil && cfg.Hexis.URL != "" {
w.hexis = hexisclient.New(cfg.Hexis.URL).WithToken(cfg.Hexis.Token)
w.hexis = hexisclient.New(cfg.Hexis.URL)
log.Printf("ecosystem: hexis at %s", cfg.Hexis.URL)
} else {
log.Printf("ecosystem: hexis not configured")
@@ -510,7 +327,7 @@ func wireEcosystem(cfg *config.Config) *ecosystemWiring {
// Praxis attention service (HTTP tools API — never the DB directly)
if cfg.Praxis != nil && cfg.Praxis.URL != "" {
w.praxis = newPraxisClient(cfg.Praxis.URL).withToken(cfg.Praxis.Token)
w.praxis = newPraxisClient(cfg.Praxis.URL)
log.Printf("ecosystem: praxis at %s", cfg.Praxis.URL)
} else {
log.Printf("ecosystem: praxis not configured")
@@ -535,19 +352,7 @@ func (w *ecosystemWiring) resolveEntityReference(ctx context.Context, text strin
log.Printf("ecosystem: nexus resolve error: %v", err)
return "", "", nil, err
}
if result.Status == "resolved" {
// "resolved" with nothing to resolve to is a contract violation, not a
// miss. Treating it as "no such entity" let the caller fall straight
// through to the local executor with his verb intact, which is a
// dependency failure reaching execution.
if result.Entity == nil || result.Entity.ID == "" {
err := &ecosystemError{
Service: "nexus", Op: "resolve", Status: 200,
Err: errors.New("resolved status with no entity"),
}
log.Printf("ecosystem: %v", err)
return "", "", nil, err
}
if result.Status == "resolved" && result.Entity != nil {
return result.Entity.ID, result.Entity.DisplayName, nil, nil
}
if result.Status == "ambiguous" {
@@ -567,19 +372,12 @@ func (w *ecosystemWiring) resolveEntityReference(ctx context.Context, text strin
// healthy and genuinely has nothing registered for this entity. Callers must
// not conflate the two: a dependency failure must not silently read as "no
// capabilities" and fall through to unrelated local execution.
//
// The correlation header is stamped in the client's do(), so discovery and
// execution can be joined on the Hexis side as long as both hops carry the
// same ID through ctx. (This used to say the header went out on Execute only;
// that was never true of the vendored code and is not true after the 2026-08-01
// re-vendor.)
func (w *ecosystemWiring) discoverCapabilities(ctx context.Context, entityID string) ([]hexisclient.Capability, error) {
if w == nil || w.hexis == nil || entityID == "" {
return nil, nil
}
caps, err := w.hexis.Capabilities(ctx, entityID)
if err != nil {
err = hexisError("capabilities", err)
log.Printf("ecosystem: hexis capabilities error: %v", err)
return nil, err
}
@@ -607,10 +405,7 @@ func (w *ecosystemWiring) executeCapability(ctx context.Context, capabilityID, t
exec, err := w.hexis.Execute(ctx, req)
if err != nil {
// A classified dependency failure. The two returns below are NOT: an
// execution that ran and failed is the command failing, not Hexis
// degrading, and it keeps its plain error so the caller says so.
return correlationID, hexisError("execute", err)
return correlationID, fmt.Errorf("execute: %w", err)
}
if exec.Status == "succeeded" {
return correlationID, nil
-953
View File
@@ -1,953 +0,0 @@
package main
import (
"context"
"errors"
"fmt"
"log"
"strconv"
"strings"
"time"
hexisclient "github.com/kami/hexis/pkg/client"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
"github.com/kami/maven/internal/tool"
)
// The three services, spelled the way she says them out loud. A service that is
// down or refusing has to be named: they degrade independently, so "не
// отвечает" on its own tells him nothing he can act on, and each call site
// already knows which one it was talking to — it records the same name in the
// trace (Vikunja #521).
const (
serviceNexus = "Nexus"
servicePraxis = "Praxis"
serviceHexis = "Hexis"
)
// serviceVars — the one-key map the eco_down and eco_denied lines take.
func serviceVars(name string) map[string]string { return map[string]string{"name": name} }
// ecosystemGap names the service that failed. A rejected credential gets its
// own line, because a wrong token looks exactly like an outage to him and
// "try again" is advice that will never work. Every degrade path reads through
// here, so all of them name the service and none of them guesses instead.
func ecosystemGap(service string, err error) string {
if unauthorizedEcosystemError(err) {
return phraser.A(phraser.EcoDenied, serviceVars(service))
}
return phraser.A(phraser.EcoDown, serviceVars(service))
}
// praxisCapability is one arm of the Praxis act dispatch. This is an interface
// rather than a map[string]func because each arm carries its own state: the
// verb aliases it answers to, the trace name it records, and its own reply
// formatting. The dispatch grows an arm per Praxis capability, so a new one is
// added to praxisCapabilities below and nothing else changes.
type praxisCapability interface {
// aliases are the verbs (router fn slots, EN and RU) this capability answers to.
aliases() []string
// handle runs the capability and returns the user-facing reply.
handle(ctx context.Context, h *reactiveHandler, px *praxisClient, dec router.Decision) string
}
// praxisCapabilities is the registry handlePraxisAct consults, in order.
var praxisCapabilities = []praxisCapability{
listAttentionCapability{},
praxisItemAction{
verbs: []string{"acknowledge_item", "принято", "понял", "поняла"},
ask: "какой пункт отметить принятым?",
op: "acknowledge",
failure: "не получилось отметить принятым.",
success: "принято.",
call: func(ctx context.Context, px *praxisClient, id string) error {
_, err := px.Acknowledge(ctx, id)
return err
},
},
praxisItemAction{
verbs: []string{"resolve_item", "сделано", "готово", "решено"},
ask: "какой пункт отметить сделанным?",
op: "resolve",
failure: "не получилось отметить сделанным.",
success: "отмечено как сделано.",
call: func(ctx context.Context, px *praxisClient, id string) error {
_, err := px.Resolve(ctx, id)
return err
},
},
praxisItemAction{
verbs: []string{"ignore_item", "игнорировать", "неважно"},
ask: "какой пункт игнорировать?",
op: "ignore",
failure: "не получилось проигнорировать.",
success: "проигнорировано.",
call: func(ctx context.Context, px *praxisClient, id string) error {
_, err := px.Ignore(ctx, id)
return err
},
},
praxisItemAction{
verbs: []string{"pin_item", "закрепить"},
ask: "какой пункт закрепить?",
op: "pin",
failure: "не получилось закрепить.",
success: "закреплено.",
call: func(ctx context.Context, px *praxisClient, id string) error {
_, err := px.Pin(ctx, id, true)
return err
},
},
listChangesCapability{},
entityAttentionCapability{},
}
// handlePraxisAct — dispatches ecosystem tool acts through the Praxis tools API.
// Returns "" when the act is not a Praxis verb (the caller falls through to the
// system command executor). Returns a reply string otherwise.
func (h *reactiveHandler) handlePraxisAct(ctx context.Context, dec router.Decision) string {
if h.ecosystem == nil || h.ecosystem.praxis == nil {
return ""
}
// Every hop of this action shares one correlation ID, assigned here, so a
// digest that calls attention once and surface N times reads as one turn
// on the Praxis side instead of N+1 unrelated request ids.
if correlationIDFromCtx(ctx) == "" {
ctx = withCorrelationID(ctx, newCorrelationID())
}
px := h.ecosystem.praxis
dec, ok := h.resolveSurfacedPosition(dec)
if !ok {
// A demonstrative with no digest behind it. "я это сделал" is a sentence
// about his day, so the rest of the cascade gets it back rather than
// hearing "какой пункт?" for something that was never about a пункт.
return ""
}
for _, capability := range praxisCapabilities {
for _, alias := range capability.aliases() {
if alias == dec.Slots.Fn {
return capability.handle(ctx, h, px, dec)
}
}
}
// Not a Praxis verb — let the caller fall through.
return ""
}
// praxisItemAction is the shared shape of the item-lifecycle capabilities: take
// an item id from the value slot, call one Praxis endpoint, trace the result.
type praxisItemAction struct {
verbs []string
ask string // reply when no item id was given
op string // trace + log name of the operation
// failure is the first half of the reply when the Praxis call errors: which
// operation did not happen. ecosystemGap supplies the second half, which
// names Praxis and splits a refused token from an outage — those two used to
// produce the identical sentence and neither said "Praxis" (Vikunja #588).
// The verb is kept alongside the service name because the trace is the only
// other place it exists, and he is not reading the trace.
failure string
success string
call func(ctx context.Context, px *praxisClient, id string) error
}
func (a praxisItemAction) aliases() []string { return a.verbs }
func (a praxisItemAction) handle(ctx context.Context, h *reactiveHandler, px *praxisClient, dec router.Decision) string {
id := dec.Slots.Value
if id == "" {
return a.ask
}
started := h.now()
if err := a.call(ctx, px, id); err != nil {
log.Printf("ecosystem: praxis %s %s: %v", a.op, id, err)
h.recordEcosystemTrace(ctx, "praxis", a.op, traceStatusForError(err), started,
mergeFields(traceErrorFields(err), map[string]any{"item_id": id}))
return a.failure + " " + ecosystemGap(servicePraxis, err)
}
h.recordPraxisTrace(ctx, a.op, started, map[string]any{"item_id": id})
return a.success
}
// listAttentionCapability reads the attention digest and surfaces every item it speaks.
type listAttentionCapability struct{}
func (listAttentionCapability) aliases() []string {
return []string{"list_attention", "attention", "внимание", "что требует внимания", "что нового"}
}
func (listAttentionCapability) handle(ctx context.Context, h *reactiveHandler, px *praxisClient, _ router.Decision) string {
started := h.now()
att, err := px.ListAttention(ctx, 20)
if err != nil {
log.Printf("ecosystem: praxis attention: %v", err)
h.recordEcosystemTrace(ctx, "praxis", "list_attention", traceStatusForError(err),
started, traceErrorFields(err))
return phraser.A(phraser.AttentionFail, nil)
}
items := att.Items
if len(items) == 0 {
if hedge := h.attentionCannotTell(ctx, px, att.Degraded, started); hedge != "" {
return hedge
}
return phraser.A(phraser.AttentionNone, nil)
}
h.recordPraxisTrace(ctx, "list_attention", started, map[string]any{"count": len(items)})
var parts []string
var spoken []string
for _, item := range items {
title, _ := item["title"].(string)
// importance arrives as JSON number ⇒ float64 over the HTTP contract.
importance, _ := item["importance"].(float64)
rule, _ := item["rule"].(string)
s := title
if s == "" {
// An item Praxis returned without a title is not an item she can
// read out. Counting it would put an empty slot in the list.
continue
}
if importance > 0 {
s += fmt.Sprintf(" (важность %d", int(importance))
if rule != "" {
s += ": " + rule
}
s += ")"
}
parts = append(parts, s)
// Recorded in the order she says them, and only for items she could
// say: an item skipped above has no position in what he heard (#516).
if id := surfaceSpoken(ctx, px, item); id != "" {
spoken = append(spoken, id)
}
}
h.rememberSurfaced(spoken)
if len(parts) == 0 {
// Praxis returned items and not one of them could be said. "ничего не
// требует внимания" is the honest answer; the list line would render as
// its own label and a colon (Vikunja #521).
return phraser.A(phraser.AttentionNone, nil)
}
return phraser.A(phraser.AttentionList, map[string]string{"items": strings.Join(parts, "; ")})
}
// listChangesCapability reads the recent-changes feed.
type listChangesCapability struct{}
func (listChangesCapability) aliases() []string {
return []string{"list_changes", "changes", "изменения", "что изменилось"}
}
func (listChangesCapability) handle(ctx context.Context, h *reactiveHandler, px *praxisClient, _ router.Decision) string {
started := h.now()
changes, err := px.ListChanges(ctx, 20)
if err != nil {
log.Printf("ecosystem: praxis changes: %v", err)
h.recordEcosystemTrace(ctx, "praxis", "list_changes", traceStatusForError(err),
started, traceErrorFields(err))
return phraser.A(phraser.ChangesFail, nil)
}
if len(changes) == 0 {
return phraser.A(phraser.ChangesNone, nil)
}
h.recordPraxisTrace(ctx, "list_changes", started, map[string]any{"count": len(changes)})
var parts []string
for _, c := range changes {
title, _ := c["title"].(string)
if title == "" {
continue
}
typ, _ := c["change_type"].(string)
if typ == "" {
parts = append(parts, title)
continue
}
parts = append(parts, fmt.Sprintf("%s (%s)", title, typ))
}
if len(parts) == 0 {
return phraser.A(phraser.ChangesNone, nil)
}
return phraser.A(phraser.ChangesList, map[string]string{"items": strings.Join(parts, "; ")})
}
// entityAttentionCapability answers "what's going on with X" by resolving X to
// a canonical Nexus entity and asking Praxis for that entity's attention items
// (Vikunja #272). Unlike listAttentionCapability it is scoped: the entity_id
// travels to Praxis as a query parameter instead of Maven filtering an unscoped
// list client-side, which is what makes the ref canonical end to end.
//
// It also folds in what Maven herself knows about the same entity — facts the
// enrichment worker has already resolved to that entity_id — so one question
// gets one answer across both stores.
type entityAttentionCapability struct{}
// aliases are matched against Slots.Fn, which carries a function slot from the
// act grammar and never free Russian, so only grammar names belong here.
func (entityAttentionCapability) aliases() []string {
return []string{"entity_attention", "entity_status"}
}
func (entityAttentionCapability) handle(ctx context.Context, h *reactiveHandler, px *praxisClient, dec router.Decision) string {
subject := dec.Slots.Value
if subject == "" {
subject = dec.Slots.Text
}
if subject == "" {
return phraser.A(phraser.EcoAboutWhat, nil)
}
if h.ecosystem == nil || h.ecosystem.nexus == nil {
// Without Nexus there is no canonical ref to scope by. Say so rather
// than quietly answering about something else.
return phraser.A(phraser.EcoNoNexus, nil)
}
started := h.now()
entityID, displayName, ambiguous, err := h.ecosystem.resolveEntityReference(ctx, subject, nil)
if err != nil {
// The subject is his words, so the log gets the same redaction the
// trace gets. A trace that stores a rune count next to a log line
// storing the runes is not redacted at all.
log.Printf("ecosystem: entity attention resolve %s: %v", redactSubject(subject), err)
return h.nexusResolveFailed(ctx, subject, started, err)
}
if len(ambiguous) > 0 {
return phraser.A(phraser.EcoAmbiguous, map[string]string{"items": strings.Join(ambiguous, ", ")})
}
if entityID == "" {
return phraser.A(phraser.EcoUnknownEntity, nil)
}
if displayName == "" {
displayName = subject
}
queried := h.now()
att, err := px.ListAttentionForEntity(ctx, entityID, 20)
if err != nil {
log.Printf("ecosystem: praxis attention for %s: %v", entityID, err)
h.recordEcosystemTrace(ctx, "praxis", "entity_attention", traceStatusForError(err),
queried, mergeFields(traceErrorFields(err), map[string]any{"entity_id": entityID}))
return phraser.A(phraser.AttentionFailEntity, map[string]string{"name": displayName})
}
items, scoped := scopedToEntity(att.Items, entityID)
if !scoped {
// A Praxis old enough to ignore an unknown query parameter answers the
// scoped question with the unscoped list. Reading that back as "по
// «X»: ..." is the exact fabrication the entity ref exists to prevent,
// so refuse the answer instead of relabelling someone else's items.
log.Printf("ecosystem: praxis returned unscoped items for %s, refusing to answer", entityID)
h.recordEcosystemTrace(ctx, "praxis", "entity_attention", traceFailed, queried,
map[string]any{"entity_id": entityID, "class": "unscoped_response"})
return phraser.A(phraser.AttentionFailEntity, map[string]string{"name": displayName})
}
h.recordPraxisTrace(ctx, "entity_attention", queried, map[string]any{
"entity_id": entityID, "count": len(items),
})
var parts []string
var spoken []string
for _, item := range items {
title, _ := item["title"].(string)
if title == "" {
continue
}
parts = append(parts, title)
if id := surfaceSpoken(ctx, px, item); id != "" {
spoken = append(spoken, id)
}
}
// The scoped digest is a list she read out, so it replaces the positional
// memory exactly as the unscoped one does. It used to surface these items
// and remember none of them, which left the previous digest live: "отметь
// второй как сделанное" then indexed into a list he had not just heard and
// transitioned somebody else's item (docs/ecosystem.md — a wrong guess here
// transitions the wrong item).
h.rememberSurfaced(spoken)
if known := h.localFactsForEntity(ctx, entityID); known != "" {
parts = append(parts, known)
}
if len(parts) == 0 {
// The scoped list is as exposed to a silent source as the unscoped one,
// and a per-entity all-clear is the more convincing of the two (#540).
if hedge := h.attentionCannotTell(ctx, px, att.Degraded, queried); hedge != "" {
return hedge
}
return phraser.A(phraser.AttentionNoneEntity, map[string]string{"name": displayName})
}
return phraser.A(phraser.AttentionListEntity, map[string]string{"name": displayName, "items": strings.Join(parts, "; ")})
}
// surfaceSpoken marks an item she just read out as surfaced. Speaking an item
// surfaces it, it does not acknowledge it (ECOSYSTEM-SPEC.md §2.3: surfaced !=
// acknowledged), so this calls Surface and nothing else. Best effort: a failed
// surface call must not block delivering the digest. Returns the item id, or ""
// when the item carried none.
func surfaceSpoken(ctx context.Context, px *praxisClient, item map[string]any) string {
id, _ := item["id"].(string)
if id == "" {
return ""
}
if _, err := px.Surface(ctx, id); err != nil {
log.Printf("ecosystem: praxis surface %s: %v", id, err)
}
return id
}
// scopedToEntity drops items that carry an entity_id other than the one asked
// about, and reports whether the response can be trusted as scoped at all. An
// item without an entity_id is kept only when at least one sibling carries the
// matching id: a whole page with no entity_id is a Praxis that ignored the
// scope, not a page of untagged items.
func scopedToEntity(items []map[string]any, entityID string) ([]map[string]any, bool) {
if len(items) == 0 {
return items, true
}
var kept []map[string]any
var sawMatch, sawMismatch bool
for _, item := range items {
id, _ := item["entity_id"].(string)
switch {
case id == entityID:
sawMatch = true
kept = append(kept, item)
case id != "":
sawMismatch = true
default:
kept = append(kept, item)
}
}
if sawMatch {
return kept, true
}
if sawMismatch {
// Some items were tagged and none matched: the far side answered about
// other entities, so nothing here belongs to this one.
return nil, true
}
return nil, false
}
// localFactsForEntity summarises Maven's own facts already resolved to this
// canonical entity. Empty when the store is unavailable or nothing matched —
// entity-scoped memory is an enrichment of the answer, never a precondition.
func (h *reactiveHandler) localFactsForEntity(ctx context.Context, entityID string) string {
if h.dataStore == nil || entityID == "" {
return ""
}
const spoken = 3
// One over the spoken limit, so a truncation can be named rather than
// passed off as everything she knows.
facts, err := h.dataStore.FactsByEntity(ctx, entityID, spoken+1)
if err != nil {
log.Printf("ecosystem: facts by entity %s: %v", entityID, err)
return ""
}
more := false
if len(facts) > spoken {
facts, more = facts[:spoken], true
}
var parts []string
for _, f := range facts {
if f.Value != "" {
parts = append(parts, f.Value)
}
}
if len(parts) == 0 {
return ""
}
out := phraser.A(phraser.EcoRecall, map[string]string{"items": strings.Join(parts, ", ")})
if more {
out += ", и это не всё"
}
return out
}
// mergeFields overlays b onto a and returns a.
func mergeFields(a, b map[string]any) map[string]any {
for k, v := range b {
a[k] = v
}
return a
}
// recordPraxisTrace — records a completed Praxis call. Thin wrapper over
// recordEcosystemTrace so every ecosystem hop lands in one table with one
// shape.
func (h *reactiveHandler) recordPraxisTrace(ctx context.Context, operation string, started time.Time, details map[string]any) {
h.recordEcosystemTrace(ctx, "praxis", operation, traceOK, started, details)
}
// traceStatus classifies an ecosystem call for the trace record. Kept coarse
// on purpose: a trace is read to answer "did this hop work, and how long did
// it take", not to re-derive the error.
const (
traceOK = "ok"
traceFailed = "failed" // the call never got an answer
traceRefused = "refused" // the far side answered, and said no
traceAmbig = "ambiguous"
traceNotFound = "not_found"
tracePending = "pending" // deliberately not done yet, awaiting a confirm
)
// traceStatusForError distinguishes "I could not reach it" from "it answered
// and refused". Both degrade the same way for him and not at all the same way
// for whoever reads the trace: one is a network or a dead service, the other
// is a token, a version or a rejected argument.
func traceStatusForError(err error) string {
var ee *ecosystemError
if errors.As(err, &ee) && !ee.Unreachable() {
return traceRefused
}
return traceFailed
}
// nexusResolveFailed records a resolve that failed and returns the named gap.
// The subject is his words, so the trace keeps a rune count and not the runes.
func (h *reactiveHandler) nexusResolveFailed(ctx context.Context, subject string, started time.Time, err error) string {
h.recordEcosystemTrace(ctx, "nexus", "resolve", traceStatusForError(err), started,
mergeFields(traceErrorFields(err), map[string]any{"subject": redactSubject(subject)}))
return ecosystemGap(serviceNexus, err)
}
// redactSubject reduces a user utterance to something safe to persist in a
// trace: its length only. Traces are diagnostics, and his words are not
// diagnostics — the correlation ID is what ties a trace to the turn.
func redactSubject(s string) string {
return fmt.Sprintf("<%d chars>", len([]rune(s)))
}
// recordEcosystemTrace writes one hop of a cross-service call: which service,
// which operation, the outcome, how long it took, and the correlation ID that
// stitches the hops together. It is written for every outcome, not only
// success — an unrecorded failure is exactly the hop you need when something
// went wrong at 3am.
//
// Traces go to their own store table, never to facts. One act turn produces
// three or four of them, at machine rate, while facts arrive at human rate:
// sharing the table meant the habit profile's 2000-row window, memeval's
// prompt snapshot and the /dash and /history pages all filled with traces and
// stopped seeing his actual facts.
func (h *reactiveHandler) recordEcosystemTrace(ctx context.Context, service, op, status string, started time.Time, fields map[string]any) {
if h.dataStore == nil {
return
}
tr := store.EcosystemTrace{
Ts: h.now(),
Service: service,
Operation: op,
Status: status,
DurationMs: h.now().Sub(started).Milliseconds(),
CorrelationID: correlationIDFromCtx(ctx),
Fields: map[string]any{},
}
for k, v := range fields {
switch k {
case "causation_id":
tr.CausationID, _ = v.(string)
case "http_status":
if n, ok := v.(int); ok {
tr.HTTPStatus = n
continue
}
tr.Fields[k] = v
default:
tr.Fields[k] = v
}
}
if _, err := h.dataStore.WriteEcosystemTrace(ctx, tr); err != nil {
log.Printf("ecosystem: record trace %s:%s: %v", service, op, err)
}
}
// unauthorizedEcosystemError reports a credential the far side rejected. It
// gets its own reply: a missing or wrong token looks exactly like an outage to
// him, and "try again" is advice that will never work.
func unauthorizedEcosystemError(err error) bool {
var ee *ecosystemError
return errors.As(err, &ee) && ee.Unauthorized()
}
// isEcosystemError reports a failure that belongs to the service rather than to
// what was asked of it: a call that never landed, or one the far side refused.
// It separates "Hexis is down" from "the restart failed".
func isEcosystemError(err error) bool {
var ee *ecosystemError
return errors.As(err, &ee)
}
// traceErrorFields describes an ecosystemError for a trace without leaking the
// payload: the HTTP status and the failure class, nothing else.
func traceErrorFields(err error) map[string]any {
fields := map[string]any{"class": "error"}
var ee *ecosystemError
if !errors.As(err, &ee) {
return fields
}
fields["http_status"] = ee.Status
switch {
case ee.Unauthorized():
fields["class"] = "unauthorized"
case ee.ContractMismatch():
fields["class"] = "contract_mismatch"
case ee.Unreachable():
fields["class"] = "unreachable"
}
return fields
}
// entityResolution — what asking Nexus about a turn's candidate names came to.
// One shape rather than five return values, because the caller needs the
// reference that answered as well as the answer: it goes in the trace.
type entityResolution struct {
subject string // the reference Nexus answered about
entityID string // set when exactly one name resolved
displayName string // that entity's name as Nexus spells it
ambiguous []string // candidate display names to ask between
err error // a dependency failure, not a miss
}
// resolveEntityCandidates asks Nexus about each name the turn offered and
// reports what it knows, stopping early where the answer is already decided.
//
// The rules, in the order they apply:
//
// - A dependency failure ends it. Nexus being down is not "no such entity",
// and asking about the next name would report the outage as a miss.
// - Nexus calling one name ambiguous ends it. It has the candidates and it is
// telling us to ask.
// - Two names resolving to different entities is a clarify too, this time ours:
// "перезапусти nginx на muzick-indexer" names both a service and its host,
// and picking either would be inventing an intent he did not state.
// - Nothing resolving returns the first name as the subject, so the trace says
// what was actually looked for.
func (h *reactiveHandler) resolveEntityCandidates(ctx context.Context, refs []string) entityResolution {
var out entityResolution
for _, ref := range refs {
entityID, displayName, ambiguous, err := h.ecosystem.resolveEntityReference(ctx, ref, nil)
if err != nil {
return entityResolution{subject: ref, err: err}
}
if len(ambiguous) > 0 {
return entityResolution{subject: ref, ambiguous: ambiguous}
}
if entityID == "" {
continue
}
if out.entityID == "" {
out = entityResolution{subject: ref, entityID: entityID, displayName: displayName}
continue
}
if entityID == out.entityID {
continue
}
// Both are real and they are not the same thing. Hand back the names
// Nexus spells, not the words he happened to say.
return entityResolution{
subject: out.subject,
ambiguous: []string{out.displayName, displayName},
}
}
if out.entityID == "" && len(refs) > 0 {
out.subject = refs[0]
}
return out
}
// handleHexisAct — resolves entity references through Nexus and executes
// matching capabilities through Hexis. Returns a reply string when handled,
// or "" to fall through to the system command executor.
func (h *reactiveHandler) handleHexisAct(ctx context.Context, dec router.Decision) string {
if h.ecosystem == nil {
return ""
}
// Every hop of this action shares one correlation ID, assigned here so
// resolution and discovery are traceable even when execution never
// happens.
if correlationIDFromCtx(ctx) == "" {
ctx = withCorrelationID(ctx, newCorrelationID())
}
// Resolve the utterance text as an entity reference through Nexus. An
// ambiguous match must stop and clarify — never guess a mutation target.
// The names come from entityReferences, not straight from the Text slot: the
// model transliterates Latin names as it routes (Vikunja #476, #524).
started := h.now()
res := h.resolveEntityCandidates(ctx, entityReferences(dec))
subject, entityID, displayName, ambiguous, err := res.subject, res.entityID, res.displayName, res.ambiguous, res.err
if err != nil {
// A genuine Nexus dependency failure, not "no such entity" — stop here
// and report degradation rather than silently falling through to the
// local command executor (ECOSYSTEM-SPEC.md: services degrade
// independently, never a silent all-clear).
return h.nexusResolveFailed(ctx, subject, started, err)
}
if len(ambiguous) > 0 {
h.recordEcosystemTrace(ctx, "nexus", "resolve", traceAmbig, started,
map[string]any{"candidates": len(ambiguous)})
return phraser.A(phraser.EcoAmbiguous, map[string]string{"items": strings.Join(ambiguous, ", ")})
}
if entityID == "" {
h.recordEcosystemTrace(ctx, "nexus", "resolve", traceNotFound, started,
map[string]any{"subject": redactSubject(subject)})
return ""
}
h.recordEcosystemTrace(ctx, "nexus", "resolve", traceOK, started,
map[string]any{"entity_id": entityID})
// Discover Hexis capabilities for this entity. A resolved entity with a
// genuine Hexis failure must not be treated as "no capabilities" and
// fall through to unrelated local execution.
discovered := h.now()
caps, err := h.ecosystem.discoverCapabilities(ctx, entityID)
if err != nil {
h.recordEcosystemTrace(ctx, "hexis", "capabilities", traceStatusForError(err), discovered,
mergeFields(traceErrorFields(err), map[string]any{"entity_id": entityID}))
return ecosystemGap(serviceHexis, err)
}
h.recordEcosystemTrace(ctx, "hexis", "capabilities", traceOK, discovered,
map[string]any{"entity_id": entityID, "count": len(caps)})
if len(caps) == 0 {
return ""
}
// Match the user's verb to a capability by name/description. Collect all
// matches: more than one is itself ambiguous, so we ask rather than pick
// the first (ecosystem invariant: no arbitrary target for mutation).
verb := dec.Slots.Fn
if verb == "" {
verb = dec.Slots.Text
}
verbLower := strings.ToLower(verb)
// With no allowlisted fn the verb is a whole phrase ("restart status muzick
// indexer"), which no capability name ever contains. Read it the other way
// round then: the phrase is the haystack and the capability name is what we
// look for in it (Vikunja #476). Only when the fn slot is empty — a matched
// fn is a single verb and containment already means what it says.
loose := !dec.Slots.HasFn
var matches []*hexisclient.Capability
for i, c := range caps {
name := strings.ToLower(c.Name)
hit := strings.Contains(name, verbLower) ||
(c.Description != "" && strings.Contains(strings.ToLower(c.Description), verbLower))
if loose && name != "" && strings.Contains(verbLower, name) {
hit = true
}
if hit {
matches = append(matches, &caps[i])
}
}
if len(matches) == 0 {
return ""
}
if len(matches) > 1 {
var names []string
for _, m := range matches {
names = append(names, m.Name)
}
return phraser.A(phraser.ActWhich, map[string]string{"name": displayName, "items": strings.Join(names, ", ")})
}
matched := matches[0]
// Read-only capabilities run immediately; mutating ones are parked for an
// explicit spoken confirm bound to this capability + target.
// The tier decides, and Hexis owns the tier (Vikunja #523). read_only alone
// used to decide it here, which flattened three answers into two: a
// capability that wipes the thing it names got the same single spoken "да"
// as one that restarts a service, and requires_confirmation — which the
// Hexis contract calls server-derived and not settable by a caller — was
// read by nobody. docs/ecosystem.md §17.3 says confirmation follows risk.
tier := tool.RiskOfCapability(matched.Risk, matched.ReadOnly, matched.RequiresConfirmation)
policy := tool.PolicyFor(tier)
if !policy.VoiceMayRun {
// Irreversible. A confirm turn would not help, for the same reason it
// does not help a local row: the STT heard it, the model routed it and
// a substring matched the capability, and a spoken "да" checks none of
// those. She names the gap and he runs it himself.
h.recordEcosystemTrace(ctx, "hexis", "confirmation", traceRefused, started,
map[string]any{"entity_id": entityID, "capability": matched.Name, "risk": string(tier)})
return phraser.A(phraser.ActNeedsAuthedSurface, nil)
}
if policy.Confirm {
h.mu.Lock()
h.pendingHexis = &pendingHexisExec{
capabilityID: matched.ID,
capName: matched.Name,
entityID: entityID,
displayName: displayName,
expiry: h.now().Add(confirmTTL),
// This action's id, so the execution the confirm authorises is
// joined to the resolve and the discovery that proposed it.
correlationID: correlationIDFromCtx(ctx),
}
h.mu.Unlock()
h.recordEcosystemTrace(ctx, "hexis", "confirmation", tracePending, started,
map[string]any{"entity_id": entityID, "capability": matched.Name})
return phraser.A(phraser.ActConfirmEntity, map[string]string{"name": matched.Name, "name_entity": displayName})
}
return h.execHexis(ctx, matched.ID, matched.Name, entityID, displayName)
}
// execHexis runs a resolved capability and records a cross-service trace with
// the correlation ID. It reports command success, never operational recovery
// (Praxis observes recovery independently).
func (h *reactiveHandler) execHexis(ctx context.Context, capID, capName, entityID, displayName string) string {
started := h.now()
causationID := correlationIDFromCtx(ctx)
correlationID, err := h.ecosystem.executeCapability(ctx, capID, entityID, nil)
traced := withCorrelationID(ctx, correlationID)
if err != nil {
log.Printf("ecosystem: hexis execute error (cor=%s): %v", correlationID, err)
h.recordEcosystemTrace(traced, "hexis", "execute", traceStatusForError(err), started,
mergeFields(traceErrorFields(err), map[string]any{
"entity_id": entityID, "capability": capName, "causation_id": causationID,
}))
// Hexis never answering, or answering "no", is a gap in Hexis and is
// named as one — a refused token said "не получилось выполнить команду"
// here and sent him to debug a capability that was never reached
// (Vikunja #587). An execution that genuinely ran and failed is not an
// ecosystemError and keeps the command-level line.
if isEcosystemError(err) {
return ecosystemGap(serviceHexis, err)
}
return phraser.A(phraser.ActFailEntity, map[string]string{"name": displayName})
}
// One record per hop: the second write this used to make said the same
// thing under a different key, in a different shape.
h.recordEcosystemTrace(traced, "hexis", "execute", traceOK, started, map[string]any{
"entity_id": entityID, "entity_name": displayName,
"capability": capName, "causation_id": causationID,
})
return phraser.A(phraser.ActDoneEntity, map[string]string{"name": displayName})
}
// hexisBeforeClarify gives an entity-shaped act one chance at Hexis before she
// asks what to do.
//
// The stage-3 gate thins an act that never matched an allowlisted fn, so
// "перезапусти muzick indexer" was answered with "Что сделать?" and the Hexis
// path was never entered — the capability existed and no utterance could reach
// it (Vikunja #476). Hexis is exactly where an act with no local fn belongs:
// the verb is matched against the capabilities Hexis registers for the entity,
// not against the allowlist.
//
// Narrow on purpose. Only an act, only when the fn slot is still empty, and
// only when Hexis is wired — a box with no ecosystem asks the question it
// always asked. A "" back means Nexus knew no such entity or Hexis had no
// matching capability, and then she asks after all. Authority is unchanged:
// resolution stops on ambiguity and a mutating capability still goes through
// the spoken confirm in handleHexisAct.
func (h *reactiveHandler) hexisBeforeClarify(ctx context.Context, dec router.Decision) string {
if h.ecosystem == nil || h.ecosystem.hexis == nil {
return ""
}
if dec.Intent != router.IntentAct || dec.Slots.HasFn || dec.Slots.Text == "" {
return ""
}
return h.handleHexisAct(ctx, dec)
}
// attentionCannotTell returns the hedge to say instead of an all-clear, or ""
// when an empty attention list really does mean nothing needs looking at
// (ECOSYSTEM-SPEC §2.6, Vikunja #540).
//
// "Nothing needs attention" and "I cannot currently tell" are different answers
// and only one of them was ever said. The spec's mechanism is a `degraded` array
// on the attention response, which the deployed Praxis does not send, so the
// source health read is the half that works today. It costs one HTTP call and
// only on the empty-list turn, which is the only turn where an all-clear is at
// stake.
//
// A failed sources read is deliberately NOT a hedge. The attention call itself
// succeeded, and not being able to ask about health is not evidence of a fault —
// hedging on it would turn one flaky endpoint into a permanently uncertain
// assistant.
func (h *reactiveHandler) attentionCannotTell(ctx context.Context, px *praxisClient, degraded []string, started time.Time) string {
if len(degraded) > 0 {
h.recordPraxisTrace(ctx, "attention_degraded", started, map[string]any{
"degraded": strings.Join(degraded, ","), "source": "response",
})
return phraser.A(phraser.AttentionDegraded, map[string]string{"items": strings.Join(degraded, ", ")})
}
bad, total, err := px.UnhealthySources(ctx)
if err != nil {
log.Printf("ecosystem: praxis sources: %v", err)
return ""
}
if total == 0 {
// A Praxis that polls nothing knows nothing, so its silence is not an
// all-clear either. This is the state the box is in as of 2026-08-05:
// /api/v1/sources answers with an empty array.
h.recordPraxisTrace(ctx, "attention_no_sources", started, map[string]any{"sources": 0})
return phraser.A(phraser.AttentionNoSources, nil)
}
if len(bad) > 0 {
h.recordPraxisTrace(ctx, "attention_degraded", started, map[string]any{
"degraded": strings.Join(bad, ","), "sources": total, "source": "health",
})
return phraser.A(phraser.AttentionDegraded, map[string]string{"items": strings.Join(bad, ", ")})
}
return ""
}
// rememberSurfaced records the item ids she just read out, replacing whatever the
// previous digest left. Called with the ids in speaking order (Vikunja #516).
func (h *reactiveHandler) rememberSurfaced(ids []string) {
h.mu.Lock()
defer h.mu.Unlock()
h.surfacedItems = ids
}
// resolveSurfacedPosition turns a positional item reference into a Praxis item
// id, using the list she last read out.
//
// The router names a position and not an id, because only the daemon has the
// list: PraxisGrammars fills the value slot with "2", "last" or "this". An id is
// left alone, since "item_ab12" is already one.
//
// The second return says whether the turn is still Praxis's. A position that
// names nothing keeps the turn and clears the slot, so the capability answers its
// own "какой пункт?" — he said "второй пункт" and deserves to hear that there is
// no second one. A demonstrative that resolves to nothing gives the turn BACK,
// because "я это сделал" was probably never about a пункт at all. "это" also
// needs the list to hold exactly one item: pointing at one of five is a guess,
// and a wrong guess here transitions the wrong item.
func (h *reactiveHandler) resolveSurfacedPosition(dec router.Decision) (router.Decision, bool) {
ref := dec.Slots.Value
if ref == "" || strings.HasPrefix(ref, "item") {
return dec, true
}
h.mu.Lock()
ids := h.surfacedItems
h.mu.Unlock()
idx := -1
switch {
case ref == "this":
if len(ids) != 1 {
log.Printf("ecosystem: praxis \"это\" has no single item (%d surfaced)", len(ids))
return dec, false
}
idx = 0
case ref == "last":
idx = len(ids) - 1
default:
n, err := strconv.Atoi(ref)
if err != nil || n < 1 {
// Neither a position nor an id: leave it for the capability to
// reject rather than silently rewriting what he said.
return dec, true
}
idx = n - 1
}
if idx < 0 || idx >= len(ids) {
log.Printf("ecosystem: praxis position %q has no item (%d surfaced)", ref, len(ids))
dec.Slots.Value = ""
return dec, true
}
dec.Slots.Value = ids[idx]
return dec, true
}
-65
View File
@@ -1,65 +0,0 @@
package main
import (
"context"
"net/http"
"net/http/httptest"
"testing"
"github.com/kami/maven/internal/config"
)
// TestWireEcosystem_HexisToken — a configured Hexis token reaches the wire.
//
// This is the regression that closes the 2026-08-01 re-vendor. The copy of
// github.com/kami/hexis checked into vendor/ used to predate Client.WithToken,
// so a configured token could not be sent at all; wireEcosystem refused to wire
// Hexis rather than execute unauthenticated. Both halves of that are gone. The
// test asserts the outcome the refusal was standing in for: the header goes
// out, so nobody has to trust a boot log to know auth is on.
func TestWireEcosystem_HexisToken(t *testing.T) {
var gotAuth string
srv := httptest.NewServer(http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
gotAuth = r.Header.Get("Authorization")
w.Header().Set("Content-Type", "application/json")
_, _ = w.Write([]byte(`[]`))
}))
defer srv.Close()
cfg := &config.Config{Hexis: &config.HexisConfig{URL: srv.URL, Token: "s3cret"}}
w := wireEcosystem(cfg)
if w.hexis == nil {
t.Fatal("hexis not wired with a token configured")
}
if _, err := w.discoverCapabilities(context.Background(), "entity-1"); err != nil {
t.Fatalf("discoverCapabilities: %v", err)
}
if want := "Bearer s3cret"; gotAuth != want {
t.Errorf("Authorization = %q; want %q", gotAuth, want)
}
}
// TestWireEcosystem_HexisNoToken — no token configured still wires, unauthed.
// Hexis without auth is a valid deployment on a trusted box, and the re-vendor
// must not have turned the token into a requirement.
func TestWireEcosystem_HexisNoToken(t *testing.T) {
var sawAuth bool
srv := httptest.NewServer(http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
sawAuth = r.Header.Get("Authorization") != ""
w.Header().Set("Content-Type", "application/json")
_, _ = w.Write([]byte(`[]`))
}))
defer srv.Close()
cfg := &config.Config{Hexis: &config.HexisConfig{URL: srv.URL}}
w := wireEcosystem(cfg)
if w.hexis == nil {
t.Fatal("hexis not wired without a token")
}
if _, err := w.discoverCapabilities(context.Background(), "entity-1"); err != nil {
t.Fatalf("discoverCapabilities: %v", err)
}
if sawAuth {
t.Error("Authorization header sent with no token configured")
}
}
-468
View File
@@ -1,468 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
hexisclient "github.com/kami/hexis/pkg/client"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/store"
)
// Phase-5 hardening suite (Vikunja #276). Everything here drives the shared
// fake ecosystem (fakeecosystem_test.go) rather than one-off inline handlers,
// so the same fault levers — SetFault, SetBody, SetDelay — cover every
// service. What is asserted is the degraded-mode contract:
//
// - services degrade independently: one outage never mutes the others,
// - a degraded reply is never silent, never fabricated, never "success",
// - contract drift (old shape, unknown fields, garbage) is survivable,
// - Maven never acts on an ambiguous target and never chains
// Praxis observation into Hexis execution on its own.
// ecoHandler wires a handler against whichever of the three fakes is given
// (pass nil to leave a service unconfigured, which is a different state from
// "configured but down").
func ecoHandler(t *testing.T, nexus, praxis, hexis *fakeServer) *reactiveHandler {
t.Helper()
st := newTestStore(t)
clock := newTickingClock(time.Date(2026, 8, 1, 9, 0, 0, 0, time.UTC), time.Millisecond)
w := &ecosystemWiring{}
if nexus != nil {
w.nexus = newNexusClient(nexus.URL)
}
if praxis != nil {
w.praxis = newPraxisClient(praxis.URL)
}
if hexis != nil {
w.hexis = hexisclient.New(hexis.URL)
}
return &reactiveHandler{
api: ipc.NewStoreAPI(st),
dataStore: st,
now: clock.Now,
ecosystem: w,
}
}
// traces reads the ecosystem trace table. Traces live there and not in facts,
// so a bounded reader of facts never fills up with machine-rate rows.
func traces(t *testing.T, h *reactiveHandler) []store.EcosystemTrace {
t.Helper()
out, err := h.dataStore.RecentEcosystemTraces(context.Background(), 100)
if err != nil {
t.Fatalf("read traces: %v", err)
}
return out
}
// tracesFor returns the traces recorded for one service+operation.
func tracesFor(t *testing.T, h *reactiveHandler, service, op string) []store.EcosystemTrace {
t.Helper()
var out []store.EcosystemTrace
for _, tr := range traces(t, h) {
if tr.Service == service && tr.Operation == op {
out = append(out, tr)
}
}
return out
}
// restartCaps is a read-only capability. Restarting a service is a mutation,
// so the read-only one this suite runs through the happy paths is named for
// what it is; the mutating restart lives in the confirmation tests.
func restartCaps() string {
return fixtureHexisCapabilities(map[string]any{
"id": "cap_status", "name": "restart status", "read_only": true,
})
}
// TestEcosystem_OutagesLeaveNoSharedFailureState: the two act paths share a
// handler, a store and a clock, so what is worth asserting is that a failure
// on one leaves nothing behind that degrades the other. Faulting one disjoint
// call graph and exercising the other only tests the call graph.
func TestEcosystem_OutagesLeaveNoSharedFailureState(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
praxis := newFakePraxis(t, fixturePraxisAttentionItems(map[string]any{
"id": "item_1", "title": "disk almost full", "importance": 3.0,
}))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, praxis, hexis)
// A Nexus outage during a Hexis act writes a failure trace, and a shared
// store is the one thing the Praxis path could inherit it through.
nexus.SetFault(503)
if reply := h.handleHexisAct(ctx, actDec("muzick indexer")); actRan(reply) {
t.Fatalf("nexus outage must not report success, got %q", reply)
}
if len(tracesFor(t, h, "nexus", "resolve")) == 0 {
t.Fatal("the failed resolve must be recorded")
}
nexus.SetFault(0)
reply := h.handlePraxisAct(ctx, praxisActDec("list_attention"))
if !strings.Contains(reply, "disk almost full") {
t.Fatalf("a recorded nexus failure must not degrade the praxis digest, got %q", reply)
}
if got := tracesFor(t, h, "praxis", "list_attention"); len(got) != 1 || got[0].Status != traceOK {
t.Fatalf("the praxis digest must trace its own success, got %+v", got)
}
// And the reverse: a Praxis outage mid-session leaves the Hexis path whole.
praxis.SetFault(503)
if reply := h.handlePraxisAct(ctx, praxisActDec("list_attention")); strings.Contains(reply, "disk") {
t.Fatalf("praxis outage must not serve content, got %q", reply)
}
if reply := h.handleHexisAct(ctx, actDec("muzick indexer")); !actRan(reply) {
t.Fatalf("a praxis outage must not block the hexis path, got %q", reply)
}
}
// TestEcosystem_OneEndpointDownDoesNotMuteTheService: real outages are usually
// partial. Attention answering while surface is down must still deliver.
func TestEcosystem_OneEndpointDownDoesNotMuteTheService(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(map[string]any{
"id": "item_1", "title": "disk almost full", "importance": 3.0,
}))
h := ecoHandler(t, nil, praxis, nil)
praxis.SetRouteFault("/api/v1/tools/surface", 503)
reply := h.handlePraxisAct(ctx, praxisActDec("list_attention"))
if !strings.Contains(reply, "disk almost full") {
t.Fatalf("a downed surface endpoint must not mute the digest, got %q", reply)
}
if praxis.Count("POST", "/api/v1/tools/surface") == 0 {
t.Fatal("expected the surface attempt")
}
}
// TestEcosystem_ResolvedWithoutEntityFailsClosed: the contract violation that
// decodes cleanly. Nexus says "resolved" and delivers no entity; treating that
// as "no such entity" put the user's verb through to the local executor.
func TestEcosystem_ResolvedWithoutEntityFailsClosed(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolvedEmpty())
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if reply == "" {
t.Fatal("a resolve with no entity must degrade, not fall through to local execution")
}
if actRan(reply) {
t.Fatalf("a resolve with no entity must not report success, got %q", reply)
}
if hexis.Count("", "/api/v1") != 0 {
t.Fatal("hexis must not be contacted after a contract-violating resolve")
}
}
// TestEcosystem_RejectedCredentialSaysSo: 401 and 403 must not read as an
// outage. "Try again" is advice that never works for a misconfigured token.
func TestEcosystem_RejectedCredentialSaysSo(t *testing.T) {
ctx := context.Background()
for _, status := range []int{401, 403} {
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
nexus.SetFault(status)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if !strings.Contains(reply, "токен") {
t.Fatalf("http %d must read as a credential problem, got %q", status, reply)
}
tr := tracesFor(t, h, "nexus", "resolve")
if len(tr) != 1 || tr[0].Status != traceRefused || tr[0].HTTPStatus != status {
t.Fatalf("http %d must trace as refused with its status, got %+v", status, tr)
}
}
}
// TestEcosystem_MalformedPraxisBodyDegrades: Praxis has the same decode path
// Nexus does, and a 200 carrying garbage there is a dependency failure too.
func TestEcosystem_MalformedPraxisBodyDegrades(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(map[string]any{
"id": "item_1", "title": "disk almost full", "importance": 3.0,
}))
h := ecoHandler(t, nil, praxis, nil)
praxis.SetBody(`[{"title":`)
reply := h.handlePraxisAct(ctx, praxisActDec("list_attention"))
if reply == "" {
t.Fatal("a malformed praxis body must not answer with silence")
}
if strings.Contains(reply, "disk almost full") {
t.Fatalf("a malformed body must not produce content, got %q", reply)
}
}
// TestEcosystem_MalformedNexusResponseFailsClosed: a 200 carrying garbage is a
// dependency failure, not "no such entity". It must stop before Hexis.
func TestEcosystem_MalformedNexusResponseFailsClosed(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
nexus.SetBody(`{"status":"resolved","entity":`)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if reply == "" || actRan(reply) {
t.Fatalf("malformed nexus body must degrade, got %q", reply)
}
if hexis.Count("", "/api/v1") != 0 {
t.Fatal("hexis must not be contacted after a malformed nexus response")
}
}
// TestEcosystem_UnknownContractFieldsTolerated: a newer Nexus adding fields
// must not break an older Maven. Same for the older flat resolve shape.
func TestEcosystem_UnknownContractFieldsTolerated(t *testing.T) {
ctx := context.Background()
for name, body := range map[string]string{
"future": fixtureNexusResolvedFuture("ent_muzick", "Muzick indexer", "service"),
"flat": fixtureNexusResolvedFlat("ent_muzick", "Muzick indexer", "service"),
} {
t.Run(name, func(t *testing.T) {
nexus := newFakeNexus(t, body)
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
if reply := h.handleHexisAct(ctx, actDec("muzick indexer")); !actRan(reply) {
t.Fatalf("%s contract shape must still resolve and execute, got %q", name, reply)
}
})
}
}
// TestEcosystem_CancelledContextDegrades: a caller hanging up (turn abandoned,
// deadline hit) must surface as degradation, never as a fabricated result.
func TestEcosystem_CancelledContextDegrades(t *testing.T) {
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
nexus.SetDelay(2 * time.Second)
ctx, cancel := context.WithTimeout(context.Background(), 30*time.Millisecond)
defer cancel()
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if reply == "" || actRan(reply) {
t.Fatalf("cancelled resolve must degrade, got %q", reply)
}
if hexis.Count("", "/api/v1") != 0 {
t.Fatal("hexis must not be contacted after a cancelled resolve")
}
}
// TestEcosystem_ExecutionFailureIsNotSuccess: Hexis answering 200 with
// status=failed is a partial failure — the call worked, the command did not.
// Maven must report it as a failure and must not write a success trace.
func TestEcosystem_ExecutionFailureIsNotSuccess(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecutionFailed("exec_1", "unit not found"))
h := ecoHandler(t, nexus, nil, hexis)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if actRan(reply) {
t.Fatalf("failed execution must not read as success, got %q", reply)
}
if reply == "" {
t.Fatal("failed execution must say something")
}
for _, tr := range tracesFor(t, h, "hexis", "execute") {
if tr.Status == traceOK {
t.Fatalf("failed execution must not write a success trace: %+v", tr)
}
}
}
// TestEcosystem_SuccessfulActionWritesATrace is the positive half the failure
// assertions above depend on: without it, "no success trace" passes with the
// trace writer deleted. It was, for a while — both writers used a fact kind the
// store's CHECK constraint rejects and the error was discarded.
func TestEcosystem_SuccessfulActionWritesATrace(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
if reply := h.handleHexisAct(ctx, actDec("muzick indexer")); !actRan(reply) {
t.Fatalf("setup: expected success, got %q", reply)
}
exec := tracesFor(t, h, "hexis", "execute")
if len(exec) != 1 || exec[0].Status != traceOK {
t.Fatalf("a successful execution must leave exactly one ok trace, got %+v", exec)
}
if exec[0].CorrelationID == "" {
t.Error("a trace with no correlation id cannot be stitched to anything")
}
}
// TestEcosystem_TracesStayOutOfFacts: traces are written at machine rate and
// facts at human rate. One act turn used to write four fact rows, which pushed
// his facts out of every bounded reader (the habit profile's window, memeval's
// prompt, /dash, /history).
func TestEcosystem_TracesStayOutOfFacts(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
if reply := h.handleHexisAct(ctx, actDec("muzick indexer")); !actRan(reply) {
t.Fatalf("setup: expected success, got %q", reply)
}
if len(traces(t, h)) == 0 {
t.Fatal("setup: expected traces")
}
facts, err := h.dataStore.RecentFacts(ctx, 100)
if err != nil {
t.Fatalf("read facts: %v", err)
}
if len(facts) != 0 {
t.Fatalf("an ecosystem act must write no facts at all, got %+v", facts)
}
}
// TestEcosystem_AmbiguousTargetBlocksExecution: ambiguity blocks mutation, and
// the clarification must name the candidates rather than pick one.
func TestEcosystem_AmbiguousTargetBlocksExecution(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusAmbiguous(
map[string]string{"entity_id": "ent_a", "display_name": "Muzick indexer"},
map[string]string{"entity_id": "ent_b", "display_name": "Muzick web"},
))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
reply := h.handleHexisAct(ctx, actDec("muzick"))
if !strings.Contains(reply, "Muzick indexer") || !strings.Contains(reply, "Muzick web") {
t.Fatalf("ambiguous resolve must list candidates, got %q", reply)
}
if hexis.Count("POST", "/api/v1/execute") != 0 {
t.Fatal("ambiguous target must never execute")
}
}
// TestEcosystem_NoAutonomousPraxisToHexis: reading the attention digest is an
// observation. Maven must never turn an observed problem into a Hexis command
// by herself — she is not autonomous.
func TestEcosystem_NoAutonomousPraxisToHexis(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(
map[string]any{"id": "item_1", "title": "muzick indexer is down", "importance": 4.0, "rule": "service_down"},
))
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, praxis, hexis)
_ = h.handlePraxisAct(ctx, praxisActDec("list_attention"))
if hexis.Count("", "/api/v1") != 0 {
t.Fatal("attention digest must not contact hexis on its own")
}
if nexus.Count("", "/api/v1/resolve") != 0 {
t.Fatal("attention digest must not resolve targets for autonomous action")
}
}
// TestEcosystem_MutatingCapabilityWaitsForConfirmation: a non-read-only
// capability parks for an explicit spoken confirm bound to capability+target.
func TestEcosystem_MutatingCapabilityWaitsForConfirmation(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
caps := fixtureHexisCapabilities(map[string]any{"id": "cap_restart", "name": "restart", "read_only": false})
hexis := newFakeHexis(t, caps, fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
reply := h.handleHexisAct(ctx, actDec("restart"))
if !strings.Contains(reply, "restart") || !strings.Contains(reply, "да") {
t.Fatalf("mutating capability must ask for confirmation, got %q", reply)
}
if hexis.Count("POST", "/api/v1/execute") != 0 {
t.Fatal("mutating capability must not execute before confirmation")
}
h.mu.Lock()
pending := h.pendingHexis
h.mu.Unlock()
if pending == nil || pending.capabilityID != "cap_restart" || pending.entityID != "ent_muzick" {
t.Fatalf("confirmation must be bound to capability+target, got %+v", pending)
}
}
// TestEcosystem_SurfaceFailureStillDelivers: surfacing is bookkeeping. If the
// surface call fails the digest must still be spoken — a partial failure
// downgrades bookkeeping, not the answer.
func TestEcosystem_SurfaceFailureStillDelivers(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(
map[string]any{"id": "item_1", "title": "disk almost full", "importance": 3.0},
))
praxis.SetRouteFault("/api/v1/tools/surface", 500)
h := ecoHandler(t, nil, praxis, nil)
reply := h.handlePraxisAct(ctx, praxisActDec("list_attention"))
if !strings.Contains(reply, "disk almost full") {
t.Fatalf("failed surface must not swallow the digest, got %q", reply)
}
if praxis.Count("POST", "/api/v1/tools/surface") == 0 {
t.Fatal("expected the surface attempt")
}
}
// TestEcosystem_TotalOutageSaysSoForEveryPath: with all three down, every
// entry point degrades explicitly instead of returning empty or inventing.
func TestEcosystem_TotalOutageSaysSoForEveryPath(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
for _, fs := range []*fakeServer{nexus, praxis, hexis} {
fs.SetFault(503)
}
h := ecoHandler(t, nexus, praxis, hexis)
for name, reply := range map[string]string{
"hexis act": h.handleHexisAct(ctx, actDec("muzick indexer")),
"attention": h.handlePraxisAct(ctx, praxisActDec("list_attention")),
"changes": h.handlePraxisAct(ctx, praxisActDec("list_changes")),
"acknowledge": h.handlePraxisAct(ctx, praxisItemDec("acknowledge_item", "item_1")),
} {
if reply == "" {
t.Errorf("%s: total outage must not answer with silence", name)
}
if actRan(reply) {
t.Errorf("%s: total outage must not claim success: %q", name, reply)
}
}
for _, tr := range traces(t, h) {
if tr.Status == traceOK {
t.Fatalf("a total outage must not leave success traces behind: %+v", tr)
}
}
if len(tracesFor(t, h, "praxis", "acknowledge")) == 0 {
t.Fatal("the acknowledge arm must reach praxis and record the refusal")
}
}
// TestEcosystem_RecoveryAfterOutageNeedsNoRestart: once the dependency comes
// back the very next turn works — no cached failure state, no restart.
func TestEcosystem_RecoveryAfterOutageNeedsNoRestart(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(
map[string]any{"id": "item_1", "title": "disk almost full", "importance": 3.0},
))
h := ecoHandler(t, nil, praxis, nil)
praxis.SetFault(503)
if reply := h.handlePraxisAct(ctx, praxisActDec("list_attention")); strings.Contains(reply, "disk") {
t.Fatalf("outage must not serve content, got %q", reply)
}
praxis.SetFault(0)
if reply := h.handlePraxisAct(ctx, praxisActDec("list_attention")); !strings.Contains(reply, "disk almost full") {
t.Fatalf("recovery must work on the next turn, got %q", reply)
}
}
-159
View File
@@ -1,159 +0,0 @@
package main
import (
"context"
"net/http"
"net/http/httptest"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/phraser"
)
// A refused credential and an outage are different answers, and on the Hexis
// path only one of them used to be said. These tests pin the difference at both
// Hexis sites: the discovery hop and the execute hop (Vikunja #587). The Praxis
// half of the same defect is in praxis_gap_test.go.
//
// unreachableURL is a port nothing listens on, which is what "the service is
// down" looks like from inside a call: the connection is refused, no HTTP
// answer is ever produced, and ecosystemError.Unreachable() is true.
const unreachableURL = "http://127.0.0.1:1"
func denied(service, reply string) bool {
return phraser.IsA(phraser.EcoDenied, serviceVars(service), reply)
}
func down(service, reply string) bool {
return phraser.IsA(phraser.EcoDown, serviceVars(service), reply)
}
// hexisGapHandler wires a handler whose Nexus resolves cleanly and whose Hexis
// is the caller's to break. hexisURL is taken separately so a test can point it
// at a dead port.
func hexisGapHandler(t *testing.T, nexusURL, hexisURL string) *reactiveHandler {
t.Helper()
st := newTestStore(t)
now := time.Now()
return &reactiveHandler{
api: ipc.NewStoreAPI(st),
dataStore: st,
now: func() time.Time { return now },
ecosystem: stubEcosystem(nexusURL, hexisURL),
}
}
// TestHexisDiscovery401IsDeniedNotDown — the discovery hop.
//
// The vendored Hexis client returns a plain fmt.Errorf for every status at or
// above 400, so errors.As for *ecosystemError never matched and every failure
// fell through to the outage line. "Hexis is down" for a rejected token sends
// him to inspect a service that is running fine.
func TestHexisDiscovery401IsDeniedNotDown(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", muzickIndexer, "service"))
caps := fixtureHexisCapabilities(map[string]any{"id": "cap_restart", "name": "restart", "read_only": true})
hexis := newFakeHexis(t, caps, fixtureHexisExecuted("exec_1", "succeeded"))
h := hexisGapHandler(t, nexus.URL, hexis.URL)
hexis.SetFault(401)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if !denied(serviceHexis, reply) {
t.Fatalf("401 from hexis discovery: got %q, want the denied line naming Hexis", reply)
}
if !strings.Contains(reply, serviceHexis) {
t.Errorf("reply does not name Hexis: %q", reply)
}
}
// TestHexisDiscoveryOutageIsDownNotDenied — the other half of the same fork.
// Without this the fix could pass by calling everything a refused credential.
func TestHexisDiscoveryOutageIsDownNotDenied(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", muzickIndexer, "service"))
h := hexisGapHandler(t, nexus.URL, unreachableURL)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if !down(serviceHexis, reply) {
t.Fatalf("connection refused from hexis: got %q, want the outage line naming Hexis", reply)
}
if denied(serviceHexis, reply) {
t.Error("an outage must not be reported as a refused credential")
}
}
// TestHexisExecute401IsDeniedNotCommandFailure — the execute hop, which did not
// consult ecosystemGap at all and named neither the service nor the cause.
func TestHexisExecute401IsDeniedNotCommandFailure(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", muzickIndexer, "service"))
caps := fixtureHexisCapabilities(map[string]any{"id": "cap_restart", "name": "restart", "read_only": true})
hexis := newFakeHexis(t, caps, fixtureHexisExecuted("exec_1", "succeeded"))
h := hexisGapHandler(t, nexus.URL, hexis.URL)
// Discovery stays healthy; only the execute endpoint refuses. A blanket
// fault would never reach the site under test.
hexis.SetRouteFault("/api/v1/execute", 401)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if !denied(serviceHexis, reply) {
t.Fatalf("401 from hexis execute: got %q, want the denied line naming Hexis", reply)
}
}
// TestHexisExecuteOutageIsDown — same site, the other classification.
//
// Discovery and execution share one base URL, so the outage has to be scoped to
// the execute endpoint rather than to the server: it answers capabilities
// normally and drops the connection on execute, which is what the client sees
// when the far side dies mid-call. That produces no HTTP status at all, which is
// what Unreachable() means.
func TestHexisExecuteOutageIsDown(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", muzickIndexer, "service"))
caps := fixtureHexisCapabilities(map[string]any{"id": "cap_restart", "name": "restart", "read_only": true})
hexis := httptest.NewServer(http.HandlerFunc(func(w http.ResponseWriter, r *http.Request) {
if r.URL.Path == "/api/v1/execute" {
conn, _, err := w.(http.Hijacker).Hijack()
if err != nil {
t.Errorf("hijack: %v", err)
return
}
conn.Close()
return
}
w.Header().Set("Content-Type", "application/json")
_, _ = w.Write([]byte(caps))
}))
t.Cleanup(hexis.Close)
h := hexisGapHandler(t, nexus.URL, hexis.URL)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if !down(serviceHexis, reply) {
t.Fatalf("dropped connection on hexis execute: got %q, want the outage line", reply)
}
if denied(serviceHexis, reply) {
t.Error("an outage must not be reported as a refused credential")
}
}
// TestHexisExecutionFailedStaysCommandFailure — the boundary of the fix. Hexis
// answering 200 with a failed execution is the command failing, not Hexis
// degrading, and it must keep the command-level line rather than accusing a
// healthy service of being down.
func TestHexisExecutionFailedStaysCommandFailure(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", muzickIndexer, "service"))
caps := fixtureHexisCapabilities(map[string]any{"id": "cap_restart", "name": "restart", "read_only": true})
hexis := newFakeHexis(t, caps, fixtureHexisExecutionFailed("exec_1", "unit refused to start"))
h := hexisGapHandler(t, nexus.URL, hexis.URL)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if down(serviceHexis, reply) || denied(serviceHexis, reply) {
t.Fatalf("a failed execution must not be reported as an ecosystem gap, got %q", reply)
}
if !phraser.IsA(phraser.ActFailEntity, map[string]string{"name": muzickIndexer}, reply) {
t.Fatalf("want the command-failure line, got %q", reply)
}
}
+2 -89
View File
@@ -19,13 +19,6 @@ func praxisActDec(fn string) router.Decision {
return router.Decision{Intent: router.IntentAct, Slots: router.Slots{Fn: fn, HasFn: true}}
}
// praxisItemDec is praxisActDec for the lifecycle verbs, which need an item id
// in the value slot. Without one they answer "which item?" and never reach
// Praxis at all, which makes them useless for testing a Praxis outage.
func praxisItemDec(fn, itemID string) router.Decision {
return router.Decision{Intent: router.IntentAct, Slots: router.Slots{Fn: fn, HasFn: true, Value: itemID}}
}
func newPraxisTestHandler(t *testing.T, praxis *fakeServer) *reactiveHandler {
t.Helper()
st := newTestStore(t)
@@ -105,93 +98,13 @@ func TestFakeNexus_FaultInjectionThenRecovery(t *testing.T) {
nexus.SetFault(503)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if actRan(reply) {
if strings.Contains(reply, "выполнена") {
t.Fatalf("nexus outage must not report success, got %q", reply)
}
nexus.SetFault(0)
reply = h.handleHexisAct(ctx, actDec("muzick indexer"))
if !actRan(reply) {
if !strings.Contains(reply, "выполнена") {
t.Fatalf("expected success once nexus recovers, got %q", reply)
}
}
// TestPraxisEntityAttention_RemembersWhatItReadOut: the scoped digest is a list
// she read out, so a positional follow-up must land on one of ITS items. It
// surfaced them and remembered none, which left the previous digest live and
// sent "отметь второй" at somebody else's item.
func TestPraxisEntityAttention_RemembersWhatItReadOut(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
scoped := fixturePraxisAttentionScoped("ent_muzick",
map[string]any{"id": "item_scoped_1", "title": "indexer wedged"})
praxis := newFakePraxis(t, scoped)
h := ecoHandler(t, nexus, praxis, nil)
// A digest from an earlier turn, still the positional memory.
h.rememberSurfaced([]string{"item_stale"})
reply := h.handlePraxisAct(ctx, router.Decision{
Intent: router.IntentAct,
Slots: router.Slots{Fn: "entity_attention", HasFn: true, Value: "muzick indexer"},
})
if !strings.Contains(reply, "indexer wedged") {
t.Fatalf("expected the scoped item to be read out, got %q", reply)
}
h.mu.Lock()
surfaced := append([]string(nil), h.surfacedItems...)
h.mu.Unlock()
if len(surfaced) != 1 || surfaced[0] != "item_scoped_1" {
t.Fatalf("scoped digest must replace the positional memory, got %v", surfaced)
}
// The follow-up resolves against what he just heard, not the stale list.
if reply := h.handlePraxisAct(ctx, praxisItemDec("resolve_item", "last")); reply == "" {
t.Fatal("positional follow-up should have been claimed by praxis")
}
var body string
for _, r := range praxis.Requests() {
if r.Method == "POST" && r.Path == "/api/v1/tools/resolve" {
body = string(r.Body)
}
}
if !strings.Contains(body, "item_scoped_1") {
t.Fatalf("resolve must transition the item she read out, posted %q", body)
}
if strings.Contains(body, "item_stale") {
t.Fatal("resolve transitioned an item from a previous digest")
}
}
// TestHexisConfirm_KeepsOneCorrelationIDPerAction: the confirm arrives on a
// later turn with a context of its own. The contract mints one id per action,
// so the execution it authorises must still be joinable to the resolve and the
// discovery that proposed it — it recorded a fresh id and no causation at all.
func TestHexisConfirm_KeepsOneCorrelationIDPerAction(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
caps := fixtureHexisCapabilities(map[string]any{"id": "cap_restart", "name": "restart", "read_only": false})
hexis := newFakeHexis(t, caps, fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
if reply := h.handleHexisAct(ctx, actDec("restart")); !strings.Contains(reply, "да") {
t.Fatalf("mutating capability must ask for confirmation, got %q", reply)
}
resolve := findTrace(t, h, "nexus", "resolve")
if resolve == nil || resolve.CorrelationID == "" {
t.Fatalf("expected a nexus resolve trace carrying a correlation id, got %+v", resolve)
}
if _, handled := h.resolveConfirm(ctx, "да"); !handled {
t.Fatal("confirm should have been claimed")
}
exec := findTrace(t, h, "hexis", "execute")
if exec == nil {
t.Fatal("expected a hexis execute trace")
}
if exec.CausationID != resolve.CorrelationID {
t.Fatalf("confirmed execution must cite the action that proposed it: causation %q, action %q",
exec.CausationID, resolve.CorrelationID)
}
}
+6 -80
View File
@@ -11,7 +11,6 @@ import (
hexisclient "github.com/kami/hexis/pkg/client"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
)
@@ -60,11 +59,8 @@ func newHexisTestHandler(t *testing.T, resolveBody string, caps string) (*reacti
}, executed
}
// actDec builds an act decision about subject. The verb is always "restart":
// the argument is the utterance the entity is resolved from, never the verb,
// so actDec("restart") reads as a verb and is not one.
func actDec(subject string) router.Decision {
return router.Decision{Intent: router.IntentAct, Slots: router.Slots{Text: subject, Fn: "restart", HasFn: true}}
func actDec(text string) router.Decision {
return router.Decision{Intent: router.IntentAct, Slots: router.Slots{Text: text, Fn: "restart", HasFn: true}}
}
func TestHexisMutatingRequiresConfirm(t *testing.T) {
@@ -86,7 +82,7 @@ func TestHexisMutatingRequiresConfirm(t *testing.T) {
// The follow-up "да" turn executes exactly the parked capability.
confirmReply, handled := h.resolveConfirm(ctx, "да")
if !handled || !actRan(confirmReply) {
if !handled || !strings.Contains(confirmReply, "выполнена") {
t.Fatalf("confirm should execute, got handled=%v reply=%q", handled, confirmReply)
}
if !*executed {
@@ -126,7 +122,7 @@ func TestHexisReadOnlyExecutesImmediately(t *testing.T) {
if h.pendingHexis != nil {
t.Fatal("read-only cap should not park a confirmation")
}
if !actRan(reply) {
if !strings.Contains(reply, "выполнена") {
t.Fatalf("unexpected reply %q", reply)
}
}
@@ -187,7 +183,7 @@ func TestHexisNexusErrorFailsClosed(t *testing.T) {
if reply == "" {
t.Fatal("nexus dependency failure must not fall through with an empty reply")
}
if actRan(reply) {
if strings.Contains(reply, "выполнена") {
t.Fatalf("nexus dependency failure must not report success, got %q", reply)
}
}
@@ -220,7 +216,7 @@ func TestHexisUnavailableFailsClosed(t *testing.T) {
if reply == "" {
t.Fatal("hexis dependency failure must not fall through with an empty reply")
}
if actRan(reply) {
if strings.Contains(reply, "выполнена") {
t.Fatalf("hexis dependency failure must not report success, got %q", reply)
}
}
@@ -242,73 +238,3 @@ func TestHexisNotFoundStillFallsThrough(t *testing.T) {
t.Fatal("not_found resolution must never execute a hexis capability")
}
}
// actRan — the reply is the line she says when a capability ran against an
// entity. The tests used to look for the substring "выполнена", which was a
// literal out of the act file: the review reworded that line to "готово: {name}"
// and seventeen assertions went with it (Vikunja #521).
func actRan(reply string) bool {
return phraser.IsA(phraser.ActDoneEntity, map[string]string{"name": muzickIndexer}, reply)
}
// muzickIndexer — the display name every ecosystem fixture resolves to.
const muzickIndexer = "Muzick indexer"
// read_only used to be the whole decision on this path, which meant a
// capability that destroys what it names got the same single spoken "да" as one
// that restarts a service. Hexis declares the tier and the voice path is not an
// authorised surface for the top one (Vikunja #523).
func TestHexisIrreversibleCapabilityIsNotRunFromVoice(t *testing.T) {
ctx := context.Background()
resolved := `{"status":"resolved","entity":{"id":"ent_muzick","display_name":"Muzick indexer","type":"service"}}`
caps := `[{"id":"cap_wipe","name":"restart","read_only":false,"risk":"irreversible","requires_confirmation":true}]`
h, executed := newHexisTestHandler(t, resolved, caps)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if *executed {
t.Fatal("an irreversible capability ran from the voice path")
}
if h.pendingHexis != nil {
t.Fatal("an irreversible capability parked a confirm; a spoken да is not enough authority")
}
if !strings.Contains(reply, "не вернуть") {
t.Errorf("reply = %q; want it to name why she will not run it", reply)
}
}
// The other half: Hexis calling a capability safe is enough to run it, even
// though read_only is the field that used to decide. Nothing here re-derives.
func TestHexisSafeCapabilityRunsOnItsDeclaredTier(t *testing.T) {
ctx := context.Background()
resolved := `{"status":"resolved","entity":{"id":"ent_muzick","display_name":"Muzick indexer","type":"service"}}`
caps := `[{"id":"cap_status","name":"restart","read_only":true,"risk":"safe"}]`
h, executed := newHexisTestHandler(t, resolved, caps)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if !*executed {
t.Fatal("a capability Hexis calls safe should run")
}
if !actRan(reply) {
t.Fatalf("unexpected reply %q", reply)
}
}
// A mutating capability with no declared tier keeps the confirm turn it has
// always had, so the split does not quietly loosen an existing box.
func TestHexisUndeclaredTierStillConfirms(t *testing.T) {
ctx := context.Background()
resolved := `{"status":"resolved","entity":{"id":"ent_muzick","display_name":"Muzick indexer","type":"service"}}`
caps := `[{"id":"cap_restart","name":"restart","read_only":false}]`
h, executed := newHexisTestHandler(t, resolved, caps)
reply := h.handleHexisAct(ctx, actDec("muzick indexer"))
if *executed {
t.Fatal("a mutating capability ran without a confirm")
}
if h.pendingHexis == nil {
t.Fatal("a mutating capability did not park a confirm")
}
if !strings.Contains(reply, "да или нет") {
t.Errorf("reply = %q; want the confirm question", reply)
}
}
-316
View File
@@ -1,316 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"github.com/kami/maven/internal/store"
)
// Versioning, authentication and tracing of ecosystem calls (Vikunja #273).
func findTrace(t *testing.T, h *reactiveHandler, service, op string) *store.EcosystemTrace {
t.Helper()
for _, tr := range traces(t, h) {
if tr.Service == service && tr.Operation == op {
found := tr
return &found
}
}
return nil
}
// TestEcosystemHeaders_VersionRequesterAndAuth: every outgoing request carries
// the contract version, the requester, and the bearer token when configured.
func TestEcosystemHeaders_VersionRequesterAndAuth(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
h := ecoHandler(t, nexus, praxis, nil)
h.ecosystem.nexus = newNexusClient(nexus.URL).withToken("nexus-secret")
h.ecosystem.praxis = newPraxisClient(praxis.URL).withToken("praxis-secret")
_, _, _, err := h.ecosystem.resolveEntityReference(ctx, "muzick indexer", nil)
if err != nil {
t.Fatalf("resolve: %v", err)
}
// A bare client call carries whatever the caller assigned. Entry points
// assign the ID, the header layer only reads it, so mirror an action here.
if _, err := h.ecosystem.praxis.ListAttention(withCorrelationID(ctx, newCorrelationID()), 5); err != nil {
t.Fatalf("attention: %v", err)
}
for _, tc := range []struct {
fs *fakeServer
versionHeader string
token string
}{
{nexus, "X-Nexus-Version", "nexus-secret"},
{praxis, "X-Praxis-Version", "praxis-secret"},
} {
reqs := tc.fs.Requests()
if len(reqs) == 0 {
t.Fatalf("%s: no request captured", tc.versionHeader)
}
r := reqs[0]
if got := r.Header.Get(tc.versionHeader); got != ecosystemAPIVersion {
t.Errorf("%s = %q, want %q", tc.versionHeader, got, ecosystemAPIVersion)
}
if got := r.Header.Get("X-Requested-By"); got != mavenRequester {
t.Errorf("X-Requested-By = %q, want %q", got, mavenRequester)
}
if got := r.Header.Get("Authorization"); got != "Bearer "+tc.token {
t.Errorf("Authorization = %q, want bearer %q", got, tc.token)
}
if r.Header.Get("X-Correlation-ID") == "" {
t.Errorf("%s: missing correlation ID", tc.versionHeader)
}
}
}
// TestEcosystemHeaders_NoTokenSendsNoAuth: an unconfigured token means the
// transport is trusted, not that a bogus header is sent.
func TestEcosystemHeaders_NoTokenSendsNoAuth(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
h := ecoHandler(t, nexus, nil, nil)
if _, _, _, err := h.ecosystem.resolveEntityReference(ctx, "muzick indexer", nil); err != nil {
t.Fatalf("resolve: %v", err)
}
if got := nexus.Requests()[0].Header.Get("Authorization"); got != "" {
t.Fatalf("unauthenticated client must send no Authorization header, got %q", got)
}
}
// TestEcosystemError_ClassifiesRefusals: callers must be able to tell a
// rejected credential from a version refusal from an unreachable service
// without matching on message text.
func TestEcosystemError_ClassifiesRefusals(t *testing.T) {
ctx := context.Background()
for _, tc := range []struct {
name string
status int
check func(*ecosystemError) bool
wantCls string
}{
{"unauthorized", 401, (*ecosystemError).Unauthorized, "unauthorized"},
{"forbidden", 403, (*ecosystemError).Unauthorized, "unauthorized"},
{"contract", 426, (*ecosystemError).ContractMismatch, "contract_mismatch"},
} {
t.Run(tc.name, func(t *testing.T) {
nexus := newFakeNexus(t, fixtureNexusResolved("ent_x", "X", "service"))
nexus.SetFault(tc.status)
c := newNexusClient(nexus.URL)
_, err := c.Resolve(ctx, "x", nil)
ee, ok := err.(*ecosystemError)
if !ok {
t.Fatalf("expected *ecosystemError, got %T (%v)", err, err)
}
if ee.Service != "nexus" || ee.Status != tc.status {
t.Fatalf("unexpected typed error %+v", ee)
}
if !tc.check(ee) {
t.Fatalf("%s not classified: %+v", tc.name, ee)
}
if got := traceErrorFields(err)["class"]; got != tc.wantCls {
t.Fatalf("trace class = %v, want %s", got, tc.wantCls)
}
})
}
}
func TestEcosystemError_UnreachableHasNoStatus(t *testing.T) {
c := newNexusClient("http://127.0.0.1:1")
_, err := c.Resolve(context.Background(), "x", nil)
ee, ok := err.(*ecosystemError)
if !ok {
t.Fatalf("expected *ecosystemError, got %T", err)
}
if !ee.Unreachable() || ee.Unauthorized() || ee.ContractMismatch() {
t.Fatalf("a refused connection must classify as unreachable only: %+v", ee)
}
}
// TestEcosystemTrace_SuccessfulActionTracesEveryHop: resolution, discovery and
// execution each leave a record sharing one correlation chain, with timing and
// status, and execution carries the causation link back to the resolve.
func TestEcosystemTrace_SuccessfulActionTracesEveryHop(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
if reply := h.handleHexisAct(ctx, actDec("muzick indexer")); !actRan(reply) {
t.Fatalf("setup: expected success, got %q", reply)
}
var chain string
for _, want := range [][2]string{{"nexus", "resolve"}, {"hexis", "capabilities"}, {"hexis", "execute"}} {
d := findTrace(t, h, want[0], want[1])
if d == nil {
t.Fatalf("missing trace for %s %s, got %+v", want[0], want[1], traces(t, h))
}
if d.Status != traceOK {
t.Errorf("%s %s status = %v, want ok", want[0], want[1], d.Status)
}
if d.CorrelationID == "" {
t.Errorf("%s %s trace has no correlation id", want[0], want[1])
}
if want[1] != "execute" {
if chain == "" {
chain = d.CorrelationID
} else if d.CorrelationID != chain {
t.Errorf("%s %s left the correlation chain: %s != %s", want[0], want[1], d.CorrelationID, chain)
}
}
}
exec := findTrace(t, h, "hexis", "execute")
if exec.CausationID == "" {
t.Error("execute trace must carry the causation id of the turn that caused it")
}
if exec.CorrelationID == exec.CausationID {
t.Error("execute correlation and causation must be distinguishable")
}
}
// TestEcosystemTrace_OneCorrelationIDPerPraxisAction: a digest calls attention
// once and surface once per item. All of it is one turn, so the far side must
// see one ID and not N+1 unrelated ones.
func TestEcosystemTrace_OneCorrelationIDPerPraxisAction(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(
map[string]any{"id": "item_1", "title": "disk almost full", "importance": 3.0},
map[string]any{"id": "item_2", "title": "backup is stale", "importance": 2.0},
))
h := ecoHandler(t, nil, praxis, nil)
if reply := h.handlePraxisAct(ctx, praxisActDec("list_attention")); !strings.Contains(reply, "disk almost full") {
t.Fatalf("setup: expected the digest, got %q", reply)
}
reqs := praxis.Requests()
if len(reqs) < 3 {
t.Fatalf("expected attention plus one surface per item, got %d requests", len(reqs))
}
first := reqs[0].Header.Get("X-Correlation-ID")
if first == "" {
t.Fatal("every ecosystem request must carry a correlation id")
}
for _, r := range reqs {
if got := r.Header.Get("X-Correlation-ID"); got != first {
t.Fatalf("%s %s carried %q, want the action's id %q", r.Method, r.Path, got, first)
}
}
tr := findTrace(t, h, "praxis", "list_attention")
if tr == nil || tr.CorrelationID != first {
t.Fatalf("the trace must carry the id that was actually sent, got %+v", tr)
}
}
// TestEcosystemTrace_FailuresAreTracedToo: the whole point of the change —
// a failed hop is exactly the one worth having recorded.
func TestEcosystemTrace_FailuresAreTracedToo(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
nexus.SetFault(401)
_ = h.handleHexisAct(ctx, actDec("muzick indexer"))
d := findTrace(t, h, "nexus", "resolve")
if d == nil {
t.Fatal("a failed resolve must still be traced")
}
if d.Status != traceRefused {
t.Errorf("status = %v, want refused: the far side answered", d.Status)
}
if d.Fields["class"] != "unauthorized" {
t.Errorf("class = %v, want unauthorized", d.Fields["class"])
}
if d.HTTPStatus != 401 {
t.Errorf("http_status = %v, want 401", d.HTTPStatus)
}
}
// TestEcosystemTrace_UnreachableIsNotRefused: never got an answer and answered
// with a refusal are different failures, and the trace must say which.
func TestEcosystemTrace_UnreachableIsNotRefused(t *testing.T) {
ctx := context.Background()
h := ecoHandler(t, nil, nil, nil)
h.ecosystem.nexus = newNexusClient("http://127.0.0.1:1")
_ = h.handleHexisAct(ctx, actDec("muzick indexer"))
d := findTrace(t, h, "nexus", "resolve")
if d == nil {
t.Fatal("an unreachable resolve must still be traced")
}
if d.Status != traceFailed {
t.Errorf("status = %v, want failed", d.Status)
}
if d.Fields["class"] != "unreachable" {
t.Errorf("class = %v, want unreachable", d.Fields["class"])
}
}
// TestEcosystemTrace_RedactsTheUtterance: traces are diagnostics, his words
// are not. The subject must never be persisted verbatim.
func TestEcosystemTrace_RedactsTheUtterance(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusNotFound())
h := ecoHandler(t, nexus, nil, nil)
_ = h.handleHexisAct(ctx, actDec("перезапусти кофемашину"))
recorded := traces(t, h)
if len(recorded) == 0 {
t.Fatal("expected a not_found resolve trace")
}
for _, tr := range recorded {
for k, v := range tr.Fields {
if s, ok := v.(string); ok && strings.Contains(s, "кофемашину") {
t.Fatalf("trace leaked the utterance in %s: %q", k, s)
}
}
}
d := findTrace(t, h, "nexus", "resolve")
if d.Status != traceNotFound {
t.Errorf("status = %v, want not_found", d.Status)
}
if d.Fields["subject"] != redactSubject("перезапусти кофемашину") {
t.Errorf("subject = %v, want a redacted length", d.Fields["subject"])
}
}
// TestEcosystemTrace_AmbiguityAndConfirmationAreRecorded: the two moments
// where Maven deliberately does not act still leave a trail.
func TestEcosystemTrace_AmbiguityAndConfirmationAreRecorded(t *testing.T) {
ctx := context.Background()
ambig := newFakeNexus(t, fixtureNexusAmbiguous(
map[string]string{"entity_id": "ent_a", "display_name": "Muzick indexer"},
map[string]string{"entity_id": "ent_b", "display_name": "Muzick web"},
))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, ambig, nil, hexis)
_ = h.handleHexisAct(ctx, actDec("muzick"))
if d := findTrace(t, h, "nexus", "resolve"); d == nil || d.Status != traceAmbig {
t.Fatalf("ambiguous resolve must be traced as such, got %+v", d)
}
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
mutating := fixtureHexisCapabilities(map[string]any{"id": "cap_restart", "name": "restart", "read_only": false})
h2 := ecoHandler(t, nexus, nil, newFakeHexis(t, mutating, fixtureHexisExecuted("exec_1", "succeeded")))
_ = h2.handleHexisAct(ctx, actDec("restart"))
d := findTrace(t, h2, "hexis", "confirmation")
if d == nil || d.Status != tracePending {
t.Fatalf("a parked confirmation must be traced, got %+v", d)
}
// The confirmation hop is measured from the top of the action, not from
// the instant it is recorded, which was always zero.
if d.DurationMs == 0 {
t.Error("the confirmation trace must report the time the action took to get there")
}
}
-81
View File
@@ -1,81 +0,0 @@
package main
import (
"regexp"
"strings"
"unicode"
"github.com/kami/maven/internal/router"
)
// latinRun matches a run of Latin-script words — the shape a service, host or
// project name takes in a Russian sentence. Digits, dot, dash and underscore
// ride along because "muzick-indexer" and "nginx.conf" are one name, not two.
var latinRun = regexp.MustCompile(`[A-Za-z][A-Za-z0-9._-]*(?:\s+[A-Za-z][A-Za-z0-9._-]*)*`)
// maxEntityReferences caps how many names one utterance may send to Nexus. The
// cap is not about correctness, it is about one turn not fanning out into a
// dozen HTTP calls when the utterance is a paragraph of English.
const maxEntityReferences = 4
// hasLatin reports whether s carries a Latin letter.
func hasLatin(s string) bool {
for _, r := range s {
if unicode.In(r, unicode.Latin) {
return true
}
}
return false
}
// entityReferences returns the names Nexus is asked to resolve, in the order
// they were said.
//
// Normally there is one, and it is the router's Text slot — the verb phrase the
// model wrote. But the resident model rewrites a Russian utterance as it routes,
// and on the way it transliterates: "перезапусти muzick indexer" came back as
// "перезагрузить музик индексер" (Vikunja #476). Nexus is then asked for a
// service nobody has ever named, so the act cannot resolve its target even with
// every gate open.
//
// The recovery is deliberately narrow. Only when the utterance holds a Latin run
// and the model's Text holds none has a name certainly been rewritten. Anything
// else keeps the Text slot, so an English utterance and a Russian entity name
// are both untouched. Un-transliterating the Cyrillic back is not attempted: the
// surface form he said is right there, and guessing at a reverse mapping would
// invent a second name to be wrong about.
//
// What this does NOT do is pick. It used to return the longest run, and length
// is a guess: "перезапусти nginx на muzick-indexer" has two names in it and the
// longer one is not reliably the target. Nexus owns which names it knows
// (docs/ecosystem.md — ambiguous resolution asks the owner, it does not pick),
// so every run goes over and Nexus answers. Two runs that both resolve are a
// clarify, not a coin toss.
func entityReferences(dec router.Decision) []string {
text := dec.Slots.Text
if hasLatin(text) || !hasLatin(dec.Utterance) {
return []string{text}
}
var refs []string
seen := map[string]bool{}
for _, m := range latinRun.FindAllString(dec.Utterance, -1) {
m = strings.TrimSpace(m)
// A single stray letter is not a name.
if len(m) < 2 {
continue
}
key := strings.ToLower(m)
if seen[key] {
continue
}
seen[key] = true
refs = append(refs, m)
if len(refs) == maxEntityReferences {
break
}
}
if len(refs) == 0 {
return []string{text}
}
return refs
}
-222
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@@ -1,222 +0,0 @@
package main
import (
"context"
"net/http"
"strings"
"sync"
"testing"
"github.com/kami/maven/internal/router"
)
// TestEntityReferences pins when his own words win over the model's, and that
// every name he said goes over rather than one of them being picked.
func TestEntityReferences(t *testing.T) {
for _, tc := range []struct {
name string
utterance string
text string
want []string
}{
{
name: "the model transliterated the name",
utterance: "перезапусти muzick indexer",
text: "перезагрузить музик индексер",
want: []string{"muzick indexer"},
},
{
name: "it kept the name, so nothing to repair",
utterance: "перезапусти muzick indexer",
text: "перезагрузить muzick indexer",
want: []string{"перезагрузить muzick indexer"},
},
{
name: "an all-Russian entity name is not a rewrite",
utterance: "перезапусти домашний сервер",
text: "перезагрузить домашний сервер",
want: []string{"перезагрузить домашний сервер"},
},
{
name: "an English turn never enters the recovery",
utterance: "restart muzick indexer",
text: "restart muzick indexer",
want: []string{"restart muzick indexer"},
},
{
name: "both names go over, in the order he said them",
utterance: "а перезапусти-ка nginx на muzick-indexer, пожалуйста",
text: "перезагрузить нгинкс",
want: []string{"nginx", "muzick-indexer"},
},
{
name: "one stray letter is not a name",
utterance: "перезапусти сервер a",
text: "перезагрузить сервер",
want: []string{"перезагрузить сервер"},
},
{
name: "the same name twice is one question",
utterance: "перезапусти nginx, ну правда, nginx",
text: "перезагрузить нгинкс",
want: []string{"nginx"},
},
} {
t.Run(tc.name, func(t *testing.T) {
dec := router.Decision{Utterance: tc.utterance, Slots: router.Slots{Text: tc.text}}
got := entityReferences(dec)
if len(got) != len(tc.want) {
t.Fatalf("entityReferences = %q, want %q", got, tc.want)
}
for i := range got {
if got[i] != tc.want[i] {
t.Fatalf("entityReferences = %q, want %q", got, tc.want)
}
}
})
}
}
// TestNexusIsAskedForTheNameHeSaid — the defect end to end (Vikunja #476): the
// router hands over a transliterated Text, and Nexus must still be asked about
// the service that exists.
func TestNexusIsAskedForTheNameHeSaid(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
dec := router.Decision{
Utterance: "перезапусти muzick indexer",
Intent: router.IntentAct,
Slots: router.Slots{Text: "перезагрузить музик индексер", Fn: "restart", HasFn: true},
}
h.handleHexisAct(ctx, dec)
reqs := nexus.Requests()
if len(reqs) == 0 {
t.Fatal("nexus was never asked")
}
body := string(reqs[0].Body)
if !strings.Contains(body, "muzick indexer") {
t.Fatalf("nexus resolve body = %s, want the name he said", body)
}
}
// TestAnEntityActReachesHexisInsteadOfAsking — the second half of #476. The
// stage-3 gate thins an act with no allowlisted fn, and that question used to
// be the whole turn, so the Hexis path was unreachable from voice or chat.
func TestAnEntityActReachesHexisInsteadOfAsking(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
dec := router.Decision{
Utterance: "перезапусти muzick indexer",
Intent: router.IntentAct,
Stage: 3,
Clarify: true,
Slots: router.Slots{Text: "restart status muzick indexer"},
}
reply := h.hexisBeforeClarify(ctx, dec)
if reply == "" {
t.Fatal("a resolvable entity act must reach hexis rather than fall through to the question")
}
if hexis.Count("", "/api/v1") == 0 {
t.Fatal("hexis was never contacted")
}
}
// TestClarifyStillAsksWithoutHexis — the narrowing. No ecosystem, no change:
// she asks exactly what she asked before.
func TestClarifyStillAsksWithoutHexis(t *testing.T) {
h, _, _ := newClarifyHandler(t)
dec := router.Decision{
Utterance: "перезапусти muzick indexer",
Intent: router.IntentAct,
Stage: 3,
Clarify: true,
Slots: router.Slots{Text: "перезагрузить музик индексер"},
}
if reply := h.hexisBeforeClarify(context.Background(), dec); reply != "" {
t.Fatalf("no hexis must mean no reply, got %q", reply)
}
if _, asked := h.askClarify(voiceCtx(), dec); !asked {
t.Fatal("she must still ask what to do")
}
}
// nexusInOrder serves one resolve answer per call, in order, so a test can say
// what Nexus knows about the first name and what it knows about the second. The
// last body repeats once the list runs out.
func nexusInOrder(t *testing.T, bodies ...string) *fakeServer {
t.Helper()
var mu sync.Mutex
n := 0
return newFakeServer(t, map[string]http.HandlerFunc{
"POST /api/v1/resolve": func(w http.ResponseWriter, r *http.Request) {
mu.Lock()
body := bodies[min(n, len(bodies)-1)]
n++
mu.Unlock()
w.Header().Set("Content-Type", "application/json")
_, _ = w.Write([]byte(body))
},
})
}
// TestTwoResolvedNamesAsk — «перезапусти nginx на muzick-indexer» names a
// service and the host it runs on. Both are real, and which one he meant is not
// in the utterance, so she asks. Picking one by length was the old behaviour and
// length is not evidence (Vikunja #524).
func TestTwoResolvedNamesAsk(t *testing.T) {
ctx := context.Background()
nexus := nexusInOrder(t,
fixtureNexusResolved("ent_nginx", "nginx", "service"),
fixtureNexusResolved("ent_host", "Muzick indexer", "device"),
)
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
dec := router.Decision{
Utterance: "перезапусти nginx на muzick-indexer",
Intent: router.IntentAct,
Slots: router.Slots{Text: "перезагрузить нгинкс", Fn: "restart", HasFn: true},
}
reply := h.handleHexisAct(ctx, dec)
if !strings.Contains(reply, "nginx") || !strings.Contains(reply, "Muzick indexer") {
t.Fatalf("reply = %q, want both names she found", reply)
}
if hexis.Count("POST", "/api/v1/execute") != 0 {
t.Fatal("she must not execute against a target she is still asking about")
}
}
// TestTheNameNexusKnowsWins — the other half. Two names go over and only one is
// an entity, so there is nothing to ask about and the act runs.
func TestTheNameNexusKnowsWins(t *testing.T) {
ctx := context.Background()
nexus := nexusInOrder(t,
fixtureNexusNotFound(),
fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"),
)
hexis := newFakeHexis(t, restartCaps(), fixtureHexisExecuted("exec_1", "succeeded"))
h := ecoHandler(t, nexus, nil, hexis)
dec := router.Decision{
Utterance: "перезапусти nginx на muzick-indexer",
Intent: router.IntentAct,
Slots: router.Slots{Text: "перезагрузить нгинкс", Fn: "restart", HasFn: true},
}
reply := h.handleHexisAct(ctx, dec)
if reply == "" {
t.Fatal("the resolvable name must carry the act")
}
if len(nexus.Requests()) != 2 {
t.Fatalf("nexus asked %d times, want both names", len(nexus.Requests()))
}
if hexis.Count("POST", "/api/v1/execute") == 0 {
t.Fatal("hexis was never asked to run it")
}
}
-358
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@@ -1,358 +0,0 @@
package main
import (
"context"
"database/sql"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/store"
)
// Entity-ref propagation, Maven side (Vikunja #272): the canonical Nexus
// entity_id must reach Praxis as a query scope rather than being resolved and
// then thrown away, and the enrichment that produces those ids must degrade
// visibly instead of silently.
func entityAttentionDec(subject string) router.Decision {
return router.Decision{
Intent: router.IntentAct,
Slots: router.Slots{Fn: "entity_attention", HasFn: true, Value: subject},
}
}
// TestEntityAttention_ScopesPraxisByCanonicalID: the resolved id must travel
// to Praxis in the request, not be used for client-side filtering.
func TestEntityAttention_ScopesPraxisByCanonicalID(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
praxis := newFakePraxis(t, fixturePraxisAttentionScoped("ent_muzick",
map[string]any{"id": "item_1", "title": "indexer queue is backing up", "importance": 3.0},
))
h := ecoHandler(t, nexus, praxis, nil)
reply := h.handlePraxisAct(ctx, entityAttentionDec("muzick indexer"))
if !strings.Contains(reply, "indexer queue is backing up") {
t.Fatalf("expected the scoped item in the reply, got %q", reply)
}
var scoped bool
for _, r := range praxis.Requests() {
if r.Method == "GET" && strings.HasPrefix(r.Path, "/api/v1/tools/attention") &&
strings.Contains(r.Query, "entity_id=ent_muzick") {
scoped = true
}
}
if !scoped {
t.Fatalf("expected attention scoped by entity_id, got requests %+v", praxis.Requests())
}
if praxis.Count("POST", "/api/v1/tools/surface") == 0 {
t.Error("a spoken scoped item must be surfaced, like the unscoped digest")
}
}
// TestEntityAttention_FoldsInLocalFactsForSameEntity: facts the enrichment
// worker already tagged with the same canonical id join the same answer.
func TestEntityAttention_FoldsInLocalFactsForSameEntity(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_espresso", "the espresso machine", "device"))
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
h := ecoHandler(t, nexus, praxis, nil)
id, err := h.dataStore.WriteFactAboutSubject(ctx, time.Now(), store.KindEnv,
"descaled", "the espresso machine", "descaled in june", "infer:pref", 0.8, sql.NullInt64{})
if err != nil {
t.Fatalf("WriteFactAboutSubject: %v", err)
}
if err := h.dataStore.ResolveFactEntity(ctx, id, "ent_espresso", store.ResolutionResolved); err != nil {
t.Fatalf("ResolveFactEntity: %v", err)
}
reply := h.handlePraxisAct(ctx, entityAttentionDec("the espresso machine"))
if !strings.Contains(reply, "descaled in june") {
t.Fatalf("expected entity-scoped local facts in the reply, got %q", reply)
}
}
// TestEntityAttention_UnscopedPraxisResponseIsRefused: a Praxis old enough to
// ignore the entity_id parameter answers the scoped question with the whole
// unscoped list. Relabelling those items "по «X»" is the same fabrication the
// canonical ref exists to prevent, arriving through a different door.
func TestEntityAttention_UnscopedPraxisResponseIsRefused(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
praxis := newFakePraxis(t, fixturePraxisAttentionItems(
map[string]any{"id": "item_1", "title": "disk almost full", "importance": 3.0},
))
h := ecoHandler(t, nexus, praxis, nil)
reply := h.handlePraxisAct(ctx, entityAttentionDec("muzick indexer"))
if strings.Contains(reply, "disk almost full") {
t.Fatalf("an unscoped response must not be read back as entity-scoped, got %q", reply)
}
if reply == "" {
t.Fatal("refusing the answer must still say something")
}
if praxis.Count("POST", "/api/v1/tools/surface") != 0 {
t.Error("items that were never spoken must not be surfaced")
}
}
// TestEntityAttention_ForeignItemsAreDropped: items tagged with another entity
// are dropped rather than spoken under this entity's name.
func TestEntityAttention_ForeignItemsAreDropped(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
mixed := []map[string]any{
{"id": "item_1", "title": "indexer queue is backing up", "importance": 3.0, "entity_id": "ent_muzick"},
{"id": "item_2", "title": "the kettle is descaling", "importance": 1.0, "entity_id": "ent_kettle"},
}
praxis := newFakePraxis(t, mustJSON(mixed))
h := ecoHandler(t, nexus, praxis, nil)
reply := h.handlePraxisAct(ctx, entityAttentionDec("muzick indexer"))
if !strings.Contains(reply, "indexer queue is backing up") {
t.Fatalf("the matching item must be spoken, got %q", reply)
}
if strings.Contains(reply, "kettle") {
t.Fatalf("another entity's item must not be spoken here, got %q", reply)
}
}
// TestEntityAttention_TruncationIsNamed: reading three of many remembered
// facts must not be presented as everything she knows.
func TestEntityAttention_TruncationIsNamed(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_espresso", "the espresso machine", "device"))
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
h := ecoHandler(t, nexus, praxis, nil)
for i := 0; i < 5; i++ {
id, err := h.dataStore.WriteFactAboutSubject(ctx, time.Now(), store.KindEnv,
"note", "the espresso machine", "факт "+string(rune('а'+i)), "infer:pref", 0.8, sql.NullInt64{})
if err != nil {
t.Fatalf("WriteFactAboutSubject: %v", err)
}
if err := h.dataStore.ResolveFactEntity(ctx, id, "ent_espresso", store.ResolutionResolved); err != nil {
t.Fatalf("ResolveFactEntity: %v", err)
}
}
reply := h.handlePraxisAct(ctx, entityAttentionDec("the espresso machine"))
if !strings.Contains(reply, "и это не всё") {
t.Fatalf("a truncated recall must say it is truncated, got %q", reply)
}
}
// TestEntityAttention_AmbiguousAsksInsteadOfGuessing.
func TestEntityAttention_AmbiguousAsksInsteadOfGuessing(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusAmbiguous(
map[string]string{"entity_id": "ent_a", "display_name": "Muzick indexer"},
map[string]string{"entity_id": "ent_b", "display_name": "Muzick web"},
))
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
h := ecoHandler(t, nexus, praxis, nil)
reply := h.handlePraxisAct(ctx, entityAttentionDec("muzick"))
if !strings.Contains(reply, "Muzick indexer") || !strings.Contains(reply, "Muzick web") {
t.Fatalf("ambiguous subject must ask, got %q", reply)
}
if praxis.Count("GET", "/api/v1/tools/attention") != 0 {
t.Fatal("an ambiguous subject must not be queried against praxis")
}
}
// TestEntityAttention_MissingAndDegradedAreDistinct: "no such entity" and
// "Nexus is down" must not produce the same answer.
func TestEntityAttention_MissingAndDegradedAreDistinct(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusNotFound())
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
h := ecoHandler(t, nexus, praxis, nil)
missing := h.handlePraxisAct(ctx, entityAttentionDec("нечто"))
if missing == "" {
t.Fatal("an unknown entity must still get an answer")
}
nexus.SetFault(503)
degraded := h.handlePraxisAct(ctx, entityAttentionDec("нечто"))
if degraded == missing {
t.Fatalf("outage and unknown-entity must not read the same: %q", degraded)
}
}
// TestEntityAttention_DelayedNexusDegradesNotHangs: a slow Nexus past the
// caller's deadline degrades and never queries Praxis with an empty scope.
func TestEntityAttention_DelayedNexusDegradesNotHangs(t *testing.T) {
nexus := newFakeNexus(t, fixtureNexusResolved("ent_muzick", "Muzick indexer", "service"))
praxis := newFakePraxis(t, fixturePraxisAttentionItems())
h := ecoHandler(t, nexus, praxis, nil)
nexus.SetDelay(2 * time.Second)
ctx, cancel := context.WithTimeout(context.Background(), 30*time.Millisecond)
defer cancel()
reply := h.handlePraxisAct(ctx, entityAttentionDec("muzick indexer"))
if reply == "" {
t.Fatal("a delayed resolve must still answer")
}
if praxis.Count("GET", "/api/v1/tools/attention") != 0 {
t.Fatal("praxis must not be queried without a resolved scope")
}
}
// TestEntityAttention_WithoutNexusSaysSo: no Nexus means no canonical ref, so
// the scoped query is refused rather than answered about something else.
func TestEntityAttention_WithoutNexusSaysSo(t *testing.T) {
ctx := context.Background()
praxis := newFakePraxis(t, fixturePraxisAttentionItems(
map[string]any{"id": "item_1", "title": "disk almost full", "importance": 3.0},
))
h := ecoHandler(t, nil, praxis, nil)
reply := h.handlePraxisAct(ctx, entityAttentionDec("muzick indexer"))
if strings.Contains(reply, "disk almost full") {
t.Fatalf("without nexus, items must not be passed off as entity-scoped, got %q", reply)
}
if praxis.Count("GET", "/api/v1/tools/attention") != 0 {
t.Fatal("no canonical ref means no scoped query at all")
}
}
// TestEnrichmentBackoff_HoldsAndReleases: repeated Nexus failures back the
// fact off instead of hammering, and the fact is retried once the window
// elapses. Nothing is ever given up on.
func TestEnrichmentBackoff_HoldsAndReleases(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_espresso", "the espresso machine", "device"))
st := newTestStore(t)
if _, err := st.WriteFactAboutSubject(ctx, time.Now(), store.KindEnv, "likes",
"the espresso machine", `"true"`, "infer:pref", 0.8, sql.NullInt64{}); err != nil {
t.Fatalf("WriteFactAboutSubject: %v", err)
}
clock := newFakeClock(time.Date(2026, 8, 1, 3, 0, 0, 0, time.UTC))
w := newFactEnrichmentWorker(st, stubEcosystem(nexus.URL, ""), time.Hour)
w.now = clock.Now
nexus.SetFault(503)
w.tick(ctx)
failedCalls := nexus.Count("POST", "/api/v1/resolve")
if failedCalls != 1 {
t.Fatalf("expected one resolve attempt, got %d", failedCalls)
}
// Immediately after a failure the fact is in backoff: no second call.
w.tick(ctx)
if nexus.Count("POST", "/api/v1/resolve") != failedCalls {
t.Fatal("a fact in backoff must not be retried on the very next tick")
}
if s := w.status(ctx); s.Pending != 1 || s.InBackoff != 1 || s.MaxAttempts != 1 {
t.Fatalf("degradation must be reported, got %+v", s)
}
// Once the window elapses and Nexus recovers, the fact resolves.
clock.Advance(2 * time.Minute)
nexus.SetFault(0)
w.tick(ctx)
facts, err := st.FactsByEntity(ctx, "ent_espresso", 10)
if err != nil {
t.Fatalf("FactsByEntity: %v", err)
}
if len(facts) != 1 {
t.Fatalf("expected the fact resolved after recovery, got %+v", facts)
}
if s := w.status(ctx); s.Pending != 0 || s.MaxAttempts != 0 {
t.Fatalf("recovery must clear the degradation report, got %+v", s)
}
}
func TestEnrichmentBackoff_GrowsAndIsCapped(t *testing.T) {
if enrichmentBackoff(1) != time.Minute {
t.Fatalf("first retry should be a minute, got %v", enrichmentBackoff(1))
}
if enrichmentBackoff(3) != 4*time.Minute {
t.Fatalf("third retry should be four minutes, got %v", enrichmentBackoff(3))
}
if enrichmentBackoff(50) != time.Hour {
t.Fatalf("backoff must cap at an hour, got %v", enrichmentBackoff(50))
}
}
// TestEnrichment_BackedOffFactsDoNotStallTheQueue: the pending queue is ordered
// by id, so the oldest facts are pulled first whether or not they are eligible.
// A batch of facts in backoff at the head must not hold every slot and stop
// enrichment for everything younger.
func TestEnrichment_BackedOffFactsDoNotStallTheQueue(t *testing.T) {
ctx := context.Background()
st := newTestStore(t)
total := 5
for i := 0; i < total; i++ {
if _, err := st.WriteFactAboutSubject(ctx, time.Now(), store.KindEnv, "likes",
"subject-"+string(rune('a'+i)), `"true"`, "infer:pref", 0.8, sql.NullInt64{}); err != nil {
t.Fatalf("WriteFactAboutSubject: %v", err)
}
}
nexus := newFakeNexus(t, fixtureNexusResolved("ent_x", "X", "service"))
clock := newFakeClock(time.Date(2026, 8, 1, 3, 0, 0, 0, time.UTC))
w := newFactEnrichmentWorker(st, stubEcosystem(nexus.URL, ""), time.Hour)
w.now = clock.Now
// A batch smaller than the queue, so with no scan the last fact never
// reaches the head while the first ones are backed off.
w.batch = total - 1
nexus.SetFault(503)
w.tick(ctx)
if got := nexus.Count("POST", "/api/v1/resolve"); got != total-1 {
t.Fatalf("expected the first batch attempted, got %d calls", got)
}
// Second tick with Nexus healthy: the backed-off head must be skipped and
// the fact behind it resolved, not the same batch pulled and dropped.
nexus.SetFault(0)
w.tick(ctx)
facts, err := st.FactsByEntity(ctx, "ent_x", 10)
if err != nil {
t.Fatalf("FactsByEntity: %v", err)
}
if len(facts) == 0 {
t.Fatal("a due fact behind a backed-off batch must still be resolved")
}
}
// TestEnrichment_StoreWriteFailureBacksOffToo: the one failure mode where the
// resolve worked and the write did not must be paced like any other, not
// retried at full rate forever.
func TestEnrichment_StoreWriteFailureBacksOffToo(t *testing.T) {
ctx := context.Background()
nexus := newFakeNexus(t, fixtureNexusResolved("ent_espresso", "the espresso machine", "device"))
st := newTestStore(t)
if _, err := st.WriteFactAboutSubject(ctx, time.Now(), store.KindEnv, "likes",
"the espresso machine", `"true"`, "infer:pref", 0.8, sql.NullInt64{}); err != nil {
t.Fatalf("WriteFactAboutSubject: %v", err)
}
pending, err := st.PendingFactResolutions(ctx, 10)
if err != nil || len(pending) != 1 {
t.Fatalf("setup: pending = %+v, %v", pending, err)
}
clock := newFakeClock(time.Date(2026, 8, 1, 3, 0, 0, 0, time.UTC))
w := newFactEnrichmentWorker(st, stubEcosystem(nexus.URL, ""), time.Hour)
w.now = clock.Now
// Closing the store makes the resolution write fail while the Nexus call
// still succeeds — the split this path gets wrong.
if err := st.Close(); err != nil {
t.Fatalf("close store: %v", err)
}
if w.resolveOne(ctx, pending[0]) {
t.Fatal("a failed store write must not report success")
}
if w.due(pending[0].ID) {
t.Fatal("a failed store write must back the fact off like a failed resolve")
}
}
+3 -2
View File
@@ -24,14 +24,15 @@ func TestApplyAction_FactCapture_QueuesEntityResolution(t *testing.T) {
emb := router.NewHashEmbedder(1024)
matcher := tool.NewMatcher(api)
rtr := buildRouter(emb, matcher, 0.55, nil, nil)
rtr := buildRouter(emb, matcher, 0.55, nil)
h := &reactiveHandler{
api: api,
recall: recallWiring{embedder: emb, memStore: memory.NewInMemoryStore()},
embedder: emb,
router: rtr,
replier: voice.NewStubReplier(),
now: func() time.Time { return now },
memStore: memory.NewInMemoryStore(),
dataStore: st,
}
+7 -185
View File
@@ -9,7 +9,6 @@ package main
import (
"context"
"log"
"sync"
"time"
"github.com/kami/maven/internal/store"
@@ -25,97 +24,10 @@ type factEnrichmentWorker struct {
eco *ecosystemWiring
interval time.Duration
batch int // facts resolved per tick; keeps a single slow tick bounded
now func() time.Time
// Retry state for facts whose resolution failed transiently. Kept in
// memory rather than in the DB: a restart legitimately retries
// everything, and the backoff exists to spare a struggling Nexus, not
// to be durable. A fact is never given up on — degraded means slower,
// not dropped.
mu sync.Mutex
attempt map[int64]int // fact id → consecutive failures
nextTry map[int64]time.Time // fact id → earliest retry
}
// enrichmentScanLimit bounds how deep a single tick walks the pending queue
// looking for facts whose backoff has elapsed. The queue is
// ordered by id, so without a scan the oldest facts hold every batch slot
// whether or not they are eligible, and one permanently failing fact stalls
// every younger one behind it.
const enrichmentScanLimit = 1000
// enrichmentBackoff is the wait before retrying a fact after n consecutive
// failures, capped so a long Nexus outage still retries about hourly.
func enrichmentBackoff(n int) time.Duration {
d := time.Minute
for i := 1; i < n && d < time.Hour; i++ {
d *= 2
}
if d > time.Hour {
d = time.Hour
}
return d
}
func newFactEnrichmentWorker(st *store.Store, eco *ecosystemWiring, interval time.Duration) *factEnrichmentWorker {
return &factEnrichmentWorker{
store: st,
eco: eco,
interval: interval,
batch: 20,
now: time.Now,
attempt: map[int64]int{},
nextTry: map[int64]time.Time{},
}
}
// enrichmentStatus is what the worker reports about its own health: how many
// facts are waiting, how many of those are currently in backoff, and the worst
// retry count among them. Degradation is reported, never hidden — a Nexus that
// has been down all day must be visible as a backlog, not as facts that
// silently never got tagged.
//
// All three numbers describe the same set of rows, whatever is still pending
// out of the first enrichmentScanLimit facts. Counting Pending over a thousand rows
// while counting InBackoff over the twenty that reached the head of a batch
// described two different populations under one struct.
type enrichmentStatus struct {
Pending int
InBackoff int
MaxAttempts int
Scanned int // rows the other three counts were taken over
}
// status reads the queue and counts over it. For a caller with no batch in
// hand — anything asking the worker how it is doing from outside the tick.
func (w *factEnrichmentWorker) status(ctx context.Context) enrichmentStatus {
pending, err := w.store.PendingFactResolutions(ctx, enrichmentScanLimit)
if err != nil {
log.Printf("factenrichment: status: %v", err)
return enrichmentStatus{}
}
return w.statusOf(pending)
}
// statusOf counts over a batch the caller already has. The batch is the query
// the tick already ran, so reporting the backlog costs no second read of the
// scan limit — up to a thousand rows, on a database that serialises them.
func (w *factEnrichmentWorker) statusOf(pending []store.Fact) enrichmentStatus {
var st enrichmentStatus
st.Pending = len(pending)
st.Scanned = len(pending)
w.mu.Lock()
defer w.mu.Unlock()
now := w.now()
for _, f := range pending {
if next, ok := w.nextTry[f.ID]; ok && now.Before(next) {
st.InBackoff++
}
if n := w.attempt[f.ID]; n > st.MaxAttempts {
st.MaxAttempts = n
}
}
return st
return &factEnrichmentWorker{store: st, eco: eco, interval: interval, batch: 20}
}
func (w *factEnrichmentWorker) run(ctx context.Context) {
@@ -140,93 +52,22 @@ func (w *factEnrichmentWorker) run(ctx context.Context) {
}
func (w *factEnrichmentWorker) tick(ctx context.Context) {
// Scan past the facts that are still in backoff instead of letting them
// occupy the batch. The queue is ordered by id, so the oldest facts are
// pulled first whether or not they are eligible: twenty facts Nexus keeps
// rejecting would otherwise hold every slot forever and enrichment would
// stop with no error and no log line, because a tick that skips everything
// fails nothing.
pending, err := w.store.PendingFactResolutions(ctx, enrichmentScanLimit)
pending, err := w.store.PendingFactResolutions(ctx, w.batch)
if err != nil {
log.Printf("factenrichment: list pending: %v", err)
return
}
w.forgetDeparted(pending)
skipped, failed, attempted := 0, 0, 0
// A resolved fact leaves the pending queue, so the batch in hand overstates
// the backlog by however many succeeded. Drop them here rather than
// re-reading the queue to find out.
remaining := make([]store.Fact, 0, len(pending))
for _, f := range pending {
if attempted >= w.batch {
remaining = append(remaining, f)
continue
}
if !w.due(f.ID) {
skipped++
remaining = append(remaining, f)
continue
}
attempted++
if !w.resolveOne(ctx, f) {
failed++
remaining = append(remaining, f)
}
}
if failed > 0 {
log.Printf("factenrichment: %d/%d resolutions failed this tick, %d held in backoff",
failed, attempted, skipped)
}
// Report the backlog every tick, not only when something failed: the
// stalled state worth seeing is the one where nothing failed because
// nothing was attempted.
if st := w.statusOf(remaining); st.Pending > 0 {
log.Printf("factenrichment: %d facts pending entity resolution, %d in backoff, worst attempt %d (scanned %d)",
st.Pending, st.InBackoff, st.MaxAttempts, st.Scanned)
w.resolveOne(ctx, f)
}
}
// forgetDeparted drops retry state for facts that are no longer pending. A
// fact can leave the queue without ever resolving here — voided, or resolved
// by a later write — and its entries would otherwise live as long as the
// process does.
func (w *factEnrichmentWorker) forgetDeparted(pending []store.Fact) {
live := make(map[int64]struct{}, len(pending))
for _, f := range pending {
live[f.ID] = struct{}{}
}
w.mu.Lock()
defer w.mu.Unlock()
for id := range w.attempt {
if _, ok := live[id]; !ok {
delete(w.attempt, id)
}
}
for id := range w.nextTry {
if _, ok := live[id]; !ok {
delete(w.nextTry, id)
}
}
}
// due reports whether a fact's backoff window has elapsed.
func (w *factEnrichmentWorker) due(id int64) bool {
w.mu.Lock()
defer w.mu.Unlock()
next, ok := w.nextTry[id]
return !ok || !w.now().Before(next)
}
// resolveOne resolves one pending fact. It returns false when the attempt
// failed transiently: the fact stays pending and is retried on a backoff.
func (w *factEnrichmentWorker) resolveOne(ctx context.Context, f store.Fact) bool {
func (w *factEnrichmentWorker) resolveOne(ctx context.Context, f store.Fact) {
entityID, _, ambiguous, err := w.eco.resolveEntityReference(ctx, f.Subject, nil)
if err != nil {
// Transient (Nexus unreachable) — leave pending, back off, retry later.
// The subject is his words: log its length, the way the trace does.
log.Printf("factenrichment: resolve fact %d subject %s: %v", f.ID, redactSubject(f.Subject), err)
w.backOff(f.ID)
return false
// Transient (Nexus unreachable) — leave pending, retry next tick.
log.Printf("factenrichment: resolve fact %d subject %q: %v", f.ID, f.Subject, err)
return
}
state := store.ResolutionNotFound
switch {
@@ -236,25 +77,6 @@ func (w *factEnrichmentWorker) resolveOne(ctx context.Context, f store.Fact) boo
state = store.ResolutionAmbiguous
}
if err := w.store.ResolveFactEntity(ctx, f.ID, entityID, state); err != nil {
// A failed write leaves the fact pending exactly like a failed resolve
// does, so it gets the same pacing. Clearing the counters first meant
// this one path retried every tick, at full rate, with no ceiling.
log.Printf("factenrichment: record resolution for fact %d: %v", f.ID, err)
w.backOff(f.ID)
return false
}
w.mu.Lock()
delete(w.attempt, f.ID)
delete(w.nextTry, f.ID)
w.mu.Unlock()
return true
}
// backOff records one more consecutive failure for a fact and pushes its next
// attempt out accordingly.
func (w *factEnrichmentWorker) backOff(id int64) {
w.mu.Lock()
defer w.mu.Unlock()
w.attempt[id]++
w.nextTry[id] = w.now().Add(enrichmentBackoff(w.attempt[id]))
}
-82
View File
@@ -1,82 +0,0 @@
package main
import (
"log"
"strings"
"unicode"
)
// ungroundedConfidence — what a self fact is worth when its value appears
// nowhere in what he said. Below `query_min_score` is not the point (recall
// gates on vector distance, not on this number); the point is that
// `/history` and every future reader can tell a value he said from a value
// the model supplied.
const ungroundedConfidence = 0.6
// factConfidence scores a self fact by whether its value is grounded in the
// utterance it came from. Grounded stays 1.00, which is what a tapped fact
// has always been worth. Ungrounded drops, and says so in the log.
//
// An empty value is grounded by definition: the key alone carries the fact
// ("поужинал"), and there is nothing for the model to have invented.
func factConfidence(utterance, value string) float64 {
if strings.TrimSpace(value) == "" {
return 1.0
}
if valueGrounded(utterance, value) {
return 1.0
}
log.Printf("voice: fact value %q is not in %q — writing at confidence %.2f",
value, utterance, ungroundedConfidence)
return ungroundedConfidence
}
// valueGrounded reports whether every word of value traces back to a word he
// actually said. The comparison is on a 4-rune prefix, so the model's
// normalization survives ("пил воду" → "вода") while an invented value
// ("1.20" for a question about Go) does not.
func valueGrounded(utterance, value string) bool {
said := factTokens(utterance)
words := factTokens(value)
if len(words) == 0 {
return true
}
for _, w := range words {
if !anyTokenMatches(said, w) {
return false
}
}
return true
}
func anyTokenMatches(said []string, w string) bool {
for _, s := range said {
if s == w || sameStem(s, w) {
return true
}
}
return false
}
// sameStem is inflection tolerance and nothing more: it compares all but the
// last rune of the shorter word, and never fewer than three. Russian marks
// case on the ending, so "пил воду" and the stored "вода" are the same word he
// said, while "1.20" and "версия" are not. A word of three runes or fewer must
// match outright, where a shorter prefix would match half the language.
func sameStem(a, b string) bool {
ar, br := []rune(a), []rune(b)
shorter := min(len(ar), len(br))
n := shorter - 1
if n < 3 || len(ar) < n || len(br) < n {
return false
}
return string(ar[:n]) == string(br[:n])
}
// factTokens lowercases and splits on everything that is not a letter or a
// digit, the same shape planTokens uses in the router.
func factTokens(s string) []string {
return strings.FieldsFunc(strings.ToLower(s), func(r rune) bool {
return !unicode.IsLetter(r) && !unicode.IsDigit(r)
})
}
-235
View File
@@ -1,235 +0,0 @@
package main
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/memory"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/tool"
"github.com/kami/maven/internal/voice"
)
func newFactGateHandler(t *testing.T, now time.Time) (*reactiveHandler, ipc.CoreAPI) {
t.Helper()
st := newTestStore(t)
api := ipc.NewStoreAPI(st)
emb := router.NewHashEmbedder(1024)
h := &reactiveHandler{
api: api,
recall: recallWiring{embedder: emb, memStore: memory.NewInMemoryStore()},
router: buildRouter(emb, tool.NewMatcher(api), 0.55, nil, nil),
replier: voice.NewStubReplier(),
now: func() time.Time { return now },
dataStore: st,
}
return h, api
}
// The write half of #470: a question routed to IntentFact must not become a
// fact about him, and must not leave a vector behind for recall to serve.
func TestActionFact_QuestionIsNotWritten(t *testing.T) {
ctx := context.Background()
h, api := newFactGateHandler(t, time.Now())
reply := h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "какая последняя версия языка Go?",
Slots: router.Slots{Key: "go_version", HasKey: true, Value: `"1.20"`},
})
if _, err := api.LatestFact(ctx, "go_version"); err == nil {
t.Fatal("a question was stored as a fact about him")
}
hits, err := h.recall.memStore.Search(ctx, mustEmbedPassage(t, h, "какая последняя версия языка Go?"), 3)
if err != nil {
t.Fatalf("memory search: %v", err)
}
if len(hits) != 0 {
t.Fatalf("the question was indexed for recall: %+v", hits)
}
// It went down the query chain instead. Nothing is configured to answer a
// world question in this harness, so "не знаю." is the honest outcome —
// what matters is that the turn was answered, not stored.
if reply == "" {
t.Fatal("the turn was neither stored nor answered")
}
}
// The capture that must survive the gate: an explicit instruction to record,
// even though it contains an interrogative.
func TestActionFact_ExplicitCaptureStillWrites(t *testing.T) {
ctx := context.Background()
h, api := newFactGateHandler(t, time.Now())
h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "запиши что я пил воду",
Slots: router.Slots{Key: "water", HasKey: true, Value: `"вода"`},
})
f, err := api.LatestFact(ctx, "water")
if err != nil {
t.Fatalf("an explicit capture was refused: %v", err)
}
if f.Confidence != 1.0 {
t.Errorf("confidence = %v, want 1.0 for a value he said", f.Confidence)
}
// #493: what recall reads back is the fact, not the sentence he said.
// queryMemory returns a fact's text verbatim, so the utterance sitting here
// meant "запиши что я пил воду" was the answer to "когда я пил воду?".
hits, err := h.recall.memStore.Search(ctx, mustEmbedPassage(t, h, "вода"), 3)
if err != nil {
t.Fatalf("memory search: %v", err)
}
if len(hits) != 1 {
t.Fatalf("the fact was not indexed once: %+v", hits)
}
if got := hits[0].Meta["text"]; got != "water — вода" {
t.Errorf("indexed text = %q, want the fact", got)
}
if got := hits[0].Meta["utterance"]; got != "запиши что я пил воду" {
t.Errorf("utterance provenance = %q, want it kept alongside", got)
}
}
func TestFactConfidence(t *testing.T) {
cases := []struct {
utterance, value string
want float64
}{
{"запиши что я пил воду", `"вода"`, 1.0},
{"я выпил кофе", `"кофе"`, 1.0},
{"поужинал", "", 1.0},
{"отметь что я полил кактус", `"полил кактус"`, 1.0},
{"какая последняя версия языка Go", `"1.20"`, ungroundedConfidence},
{"кто премьер Японии", `"Тонио Озаки"`, ungroundedConfidence},
}
for _, c := range cases {
if got := factConfidence(c.utterance, c.value); got != c.want {
t.Errorf("factConfidence(%q, %q) = %v, want %v", c.utterance, c.value, got, c.want)
}
}
}
func mustEmbedPassage(t *testing.T, h *reactiveHandler, text string) []float32 {
t.Helper()
vec, err := router.EmbedQuery(context.Background(), h.recall.embedder, text)
if err != nil {
t.Fatalf("embed %q: %v", text, err)
}
return vec
}
// The write half of #481: a complaint about a thing is a state of the
// afternoon, not a fact about him. Stored as a `self` row at confidence 1.00
// it comes back on recall as if the network were still down.
func TestActionFact_ComplaintIsNotWritten(t *testing.T) {
ctx := context.Background()
h, api := newFactGateHandler(t, time.Now())
reply := h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "сеть какая-то медленная",
Slots: router.Slots{Key: "network_speed", HasKey: true, Value: "медленная"},
})
if _, err := api.LatestFact(ctx, "network_speed"); err == nil {
t.Fatal("a passing complaint was stored as a fact about him")
}
hits, err := h.recall.memStore.Search(ctx, mustEmbedPassage(t, h, "сеть какая-то медленная"), 3)
if err != nil {
t.Fatalf("memory search: %v", err)
}
if len(hits) != 0 {
t.Fatalf("the complaint was indexed for recall: %+v", hits)
}
if reply == "" {
t.Fatal("the turn was neither stored nor answered")
}
}
// And the complaint he asked her to keep: the capture verb wins, as it does
// over the question gate.
func TestActionFact_AskedToRememberAComplaintStillWrites(t *testing.T) {
ctx := context.Background()
h, api := newFactGateHandler(t, time.Now())
h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "запомни что интернет не работает",
Slots: router.Slots{Key: "internet", HasKey: true, Value: "не работает"},
})
if _, err := api.LatestFact(ctx, "internet"); err != nil {
t.Fatalf("an explicit capture was refused: %v", err)
}
}
// A second tap of the same key supersedes the first, so recall must hold one
// vector and it must be the new value (Vikunja #493). Before this the id
// carried a timestamp, both rows stayed, and the superseded value went on
// competing for the turn.
func TestActionFact_ARetapSupersedesTheOldVector(t *testing.T) {
ctx := context.Background()
h, _ := newFactGateHandler(t, time.Now())
h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "запиши что я пил воду",
Slots: router.Slots{Key: "water", HasKey: true, Value: `"250мл"`},
})
// A later tap of the same key. The clock moves, so the old id and the new
// one differ — which is exactly what used to leave two rows behind.
h.now = func() time.Time { return time.Now().Add(time.Hour) }
h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "запиши что я пил воду",
Slots: router.Slots{Key: "water", HasKey: true, Value: `"500мл"`},
})
hits, err := h.recall.memStore.Search(ctx, mustEmbedPassage(t, h, "вода"), 5)
if err != nil {
t.Fatalf("memory search: %v", err)
}
if len(hits) != 1 {
t.Fatalf("want one vector for the key, got %d: %+v", len(hits), hits)
}
if got := hits[0].Meta["text"]; got != "water — 500мл" {
t.Errorf("indexed text = %q, want the current value", got)
}
}
// Another key is not this key. A prefix delete that widened would take the
// whole index with it.
func TestActionFact_ARetapLeavesOtherKeysAlone(t *testing.T) {
ctx := context.Background()
h, _ := newFactGateHandler(t, time.Now())
h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "запиши что я обедал",
Slots: router.Slots{Key: "meal", HasKey: true, Value: `"суп"`},
})
h.actionFact(ctx, router.Decision{
Intent: router.IntentFact,
Utterance: "запиши что я пил воду",
Slots: router.Slots{Key: "water", HasKey: true, Value: `"250мл"`},
})
hits, err := h.recall.memStore.Search(ctx, mustEmbedPassage(t, h, "обед"), 5)
if err != nil {
t.Fatalf("memory search: %v", err)
}
var found bool
for _, hit := range hits {
if hit.Meta["text"] == "meal — суп" {
found = true
}
}
if !found {
t.Fatalf("writing water dropped the meal vector: %+v", hits)
}
}
+9 -172
View File
@@ -14,9 +14,7 @@ import (
type capturedRequest struct {
Method string
Path string
Query string
Body []byte
Header http.Header
}
// fakeServer is the common shell behind fakeNexus/fakePraxis/fakeHexis: an
@@ -27,12 +25,9 @@ type capturedRequest struct {
type fakeServer struct {
*httptest.Server
mu sync.Mutex
requests []capturedRequest
fault int // non-zero: every request gets this HTTP status instead of routing
routeFaults map[string]int // path prefix → status, for one endpoint failing alone
garbage string // non-empty: returned 200 verbatim instead of routing (malformed-contract lever)
delay time.Duration
mu sync.Mutex
requests []capturedRequest
fault int // non-zero: every request gets this HTTP status instead of routing
}
// newFakeServer starts a server dispatching to routes keyed by "METHOD
@@ -52,42 +47,14 @@ func newFakeServer(t *testing.T, routes map[string]http.HandlerFunc) *fakeServer
}
}
fs.mu.Lock()
fs.requests = append(fs.requests, capturedRequest{
Method: r.Method,
Path: r.URL.Path,
Query: r.URL.RawQuery,
Body: body,
Header: r.Header.Clone(),
})
fs.requests = append(fs.requests, capturedRequest{Method: r.Method, Path: r.URL.Path, Body: body})
fault := fs.fault
if fault == 0 {
for prefix, status := range fs.routeFaults {
if hasPrefix(r.URL.Path, prefix) {
fault = status
break
}
}
}
garbage := fs.garbage
delay := fs.delay
fs.mu.Unlock()
if delay > 0 {
select {
case <-time.After(delay):
case <-r.Context().Done():
return
}
}
if fault != 0 {
http.Error(w, "injected fault", fault)
return
}
if garbage != "" {
w.Header().Set("Content-Type", "application/json")
w.Write([]byte(garbage))
return
}
for key, handler := range routes {
method, prefix := splitRouteKey(key)
@@ -123,52 +90,6 @@ func (fs *fakeServer) SetFault(status int) {
fs.fault = status
}
// SetRouteFault fails one endpoint while the rest of the server stays healthy,
// which is the shape most real outages take: attention answers and pin is
// down. Pass 0 to clear that route. A server-wide SetFault still wins.
func (fs *fakeServer) SetRouteFault(pathPrefix string, status int) {
fs.mu.Lock()
defer fs.mu.Unlock()
if fs.routeFaults == nil {
fs.routeFaults = map[string]int{}
}
if status == 0 {
delete(fs.routeFaults, pathPrefix)
return
}
fs.routeFaults[pathPrefix] = status
}
// SetBody makes every subsequent request answer 200 with the given body,
// bypassing the route table. Used to serve a malformed or contract-violating
// payload where the transport itself is healthy. Pass "" to clear it.
func (fs *fakeServer) SetBody(body string) {
fs.mu.Lock()
defer fs.mu.Unlock()
fs.garbage = body
}
// SetDelay stalls every subsequent request for d before answering, so callers
// can drive client timeouts and context cancellation deterministically. The
// delay is abandoned as soon as the client hangs up.
func (fs *fakeServer) SetDelay(d time.Duration) {
fs.mu.Lock()
defer fs.mu.Unlock()
fs.delay = d
}
// Count returns how many captured requests used the given method and path
// prefix. "" matches any method.
func (fs *fakeServer) Count(method, prefix string) int {
n := 0
for _, r := range fs.Requests() {
if (method == "" || r.Method == method) && hasPrefix(r.Path, prefix) {
n++
}
}
return n
}
// Requests returns a snapshot of captured requests, in arrival order.
func (fs *fakeServer) Requests() []capturedRequest {
fs.mu.Lock()
@@ -178,14 +99,6 @@ func (fs *fakeServer) Requests() []capturedRequest {
return out
}
// ResetRequests drops the captured requests, so a test can assert about one
// turn without subtracting the setup turn's calls.
func (fs *fakeServer) ResetRequests() {
fs.mu.Lock()
defer fs.mu.Unlock()
fs.requests = nil
}
func jsonHandler(status int, body string) http.HandlerFunc {
return func(w http.ResponseWriter, r *http.Request) {
w.Header().Set("Content-Type", "application/json")
@@ -205,40 +118,6 @@ func fixtureNexusResolved(entityID, displayName, entityType string) string {
})
}
// fixtureNexusResolvedFlat is the flat resolve shape documented in
// ECOSYSTEM-SPEC.md §1.5 (entity_id/entity_type/display_name at the top
// level) rather than the nested "entity" object — the older of the two
// wire shapes Maven must keep accepting.
func fixtureNexusResolvedFlat(entityID, displayName, entityType string) string {
return mustJSON(map[string]any{
"status": "resolved",
"entity_id": entityID,
"entity_type": entityType,
"display_name": displayName,
})
}
// fixtureNexusResolvedFuture is a resolved response from a hypothetical newer
// Nexus: same required fields plus unknown ones. Decoding must ignore the
// extras, not fail — forward compatibility is what lets the ecosystem be
// upgraded one service at a time.
func fixtureNexusResolvedFuture(entityID, displayName, entityType string) string {
return mustJSON(map[string]any{
"status": "resolved",
"entity": map[string]any{"id": entityID, "display_name": displayName, "type": entityType, "tenant": "home"},
"provenance": map[string]any{"resolver": "v3", "graph_epoch": 42},
"score_breakdown": []any{map[string]any{"signal": "alias", "weight": 0.9}},
})
}
// fixtureNexusResolvedEmpty is the contract violation that decodes cleanly:
// Nexus claims a resolve and delivers no entity. It must not read as "no such
// entity", which would let the caller fall through to local execution with the
// user's verb intact.
func fixtureNexusResolvedEmpty() string {
return `{"status":"resolved"}`
}
func fixtureNexusNotFound() string {
return `{"status":"not_found"}`
}
@@ -259,23 +138,6 @@ func fixtureHexisExecuted(id, status string) string {
return mustJSON(map[string]any{"id": id, "status": status})
}
// fixtureHexisExecutionFailed is a well-formed Hexis response reporting that
// the command itself failed: the call succeeded, the execution did not. Maven
// must distinguish this from a transport failure and from success.
func fixtureHexisExecutionFailed(id, message string) string {
return mustJSON(map[string]any{"id": id, "status": "failed", "error": message})
}
// fixturePraxisAttentionScoped tags each item with an entity_id, which is what
// a Praxis that understands the entity_id query parameter returns. A Praxis
// that ignores it answers with untagged items from every entity.
func fixturePraxisAttentionScoped(entityID string, items ...map[string]any) string {
for _, item := range items {
item["entity_id"] = entityID
}
return mustJSON(items)
}
func fixturePraxisAttentionItems(items ...map[string]any) string {
return mustJSON(items)
}
@@ -294,28 +156,18 @@ func mustJSON(v any) string {
// (e.g. asserting age-based digest ordering without sleeping).
type fakeClock struct {
mu sync.Mutex
t time.Time
step time.Duration // advanced on every read, so elapsed time is measurable
mu sync.Mutex
t time.Time
}
func newFakeClock(start time.Time) *fakeClock {
return &fakeClock{t: start}
}
// newTickingClock advances by step on every read. Durations measured across
// hops are then non-zero without sleeping, which is what lets a test tell a
// trace that measured something from one that measured nothing.
func newTickingClock(start time.Time, step time.Duration) *fakeClock {
return &fakeClock{t: start, step: step}
}
func (c *fakeClock) Now() time.Time {
c.mu.Lock()
defer c.mu.Unlock()
now := c.t
c.t = c.t.Add(c.step)
return now
return c.t
}
func (c *fakeClock) Advance(d time.Duration) {
@@ -338,24 +190,9 @@ func newFakeNexus(t *testing.T, resolveBody string) *fakeServer {
// Maven's praxisClient calls. Every route returns its fixed body until a
// fault is injected via SetFault.
func newFakePraxis(t *testing.T, attentionBody string) *fakeServer {
// One healthy source by default: an empty attention list only means
// all-clear when something is actually polling (Vikunja #540), and the
// other tests here are about attention rather than about source health.
return newFakePraxisWithSources(t, attentionBody, `[{"source_id":"src_ntfy","health":"ok"}]`)
}
// newFakePraxisWithSources is newFakePraxis with the /api/v1/sources body
// under the test's control, for the degraded and no-sources hedges.
func newFakePraxisWithSources(t *testing.T, attentionBody, sourcesBody string) *fakeServer {
return newFakeServer(t, map[string]http.HandlerFunc{
"GET /api/v1/sources": jsonHandler(http.StatusOK, sourcesBody),
"GET /api/v1/tools/attention": jsonHandler(http.StatusOK, attentionBody),
"GET /api/v1/tools/changes": jsonHandler(http.StatusOK, `[]`),
"POST /api/v1/tools/surface": jsonHandler(http.StatusOK, `{}`),
"POST /api/v1/tools/acknowledge": jsonHandler(http.StatusOK, `{}`),
"POST /api/v1/tools/resolve": jsonHandler(http.StatusOK, `{}`),
"POST /api/v1/tools/ignore": jsonHandler(http.StatusOK, `{}`),
"POST /api/v1/tools/pin": jsonHandler(http.StatusOK, `{}`),
"GET /api/v1/tools/attention": jsonHandler(http.StatusOK, attentionBody),
"POST /api/v1/tools/surface": jsonHandler(http.StatusOK, `{}`),
})
}
-194
View File
@@ -1,194 +0,0 @@
// mavend/feeds.go — the driver for RSS/Atom reading (Vikunja #258,
// docs/plans/13-rss-news-feeds.md). The reader itself is pure and lives in
// internal/rss; this is the impure half: a ticker, the guarded fetcher, and the
// two adapters that let a pure package talk to the store.
//
// Why in-core rather than its own daemon like mavmaild and mavpoll: those two
// hold a CREDENTIAL (an IMAP password, a zenmoney token), and the reason they
// are separate processes is that core must never see it. A feed URL is public,
// there is no secret to isolate, and a whole extra binary and compose service
// would buy nothing. The other half of the mavpoll precedent — off unless
// configured — is kept: no `feeds` block, no poller, no outbound request.
//
// It is its own goroutine, not a step on the tick: the tick has a delivery
// deadline behind it, and a feed read is a network round-trip that nobody is
// waiting on.
//
// Nothing here dispatches. A feed that announced itself would be a nag, so the
// only output is notes with source "rss:<feed>", which the answer path reads
// when he asks ("что нового в лентах?" — see queryFeeds in actions_query.go).
package main
import (
"context"
"log"
"net/url"
"time"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/rss"
"github.com/kami/maven/internal/stt"
"github.com/kami/maven/internal/webfetch"
)
// feedWorker — ticker + poller.
type feedWorker struct {
poller *rss.Poller
interval time.Duration
}
// feedTickInterval — how often the worker asks the poller what is due. Per-feed
// cadence is the poller's business; this is just the granularity.
const feedTickInterval = 5 * time.Minute
// newFeedWorker wires feed reading, or returns nil when it must not run:
// no `feeds` block (the normal case), or nothing valid in it. Every caller
// checks for nil.
func newFeedWorker(api ipc.CoreAPI, emb router.Embedder, cfg *config.Config) *feedWorker {
if cfg.Feeds == nil {
return nil
}
fc := cfg.Feeds
feeds := make([]rss.FeedConfig, 0, len(fc.Sources))
hosts := append([]string(nil), fc.AllowHosts...)
for _, s := range fc.Sources {
feeds = append(feeds, rss.FeedConfig{
Name: s.Name,
URL: s.URL,
Category: s.Category,
Interval: time.Duration(s.Interval),
Include: s.Include,
Exclude: s.Exclude,
})
// Each configured feed's own host is allowed. The allowlist is then
// exactly "the feeds he asked for", so a redirect off to somewhere else
// is refused by the fetcher rather than followed.
if u, err := url.Parse(s.URL); err == nil && u.Hostname() != "" {
hosts = append(hosts, u.Hostname())
}
}
fetcher := webfetch.New(webfetch.Config{
AllowHosts: hosts,
Timeout: time.Duration(fc.Timeout),
MaxBytes: fc.MaxBytes,
})
poller := rss.NewPoller(feeds, &feedFetcher{f: fetcher}, api, &factMarks{api: api},
embedderFor(emb), nil, rss.Config{
DefaultInterval: time.Duration(fc.PollInterval),
MaxItems: fc.MaxItems,
MaxAge: time.Duration(fc.MaxAge),
})
if poller == nil {
log.Printf("feeds: configured but nothing pollable — feed reading disabled")
return nil
}
log.Printf("feeds: reading %d feed(s), checking what is due every %s", len(feeds), feedTickInterval)
return &feedWorker{poller: poller, interval: feedTickInterval}
}
// run polls what is due until ctx is canceled. The first round runs immediately
// so a restart does not blind her for the first interval; it writes notes only,
// so an early round cannot startle anyone.
func (w *feedWorker) run(ctx context.Context) {
w.poller.PollDue(ctx, time.Now())
t := time.NewTicker(w.interval)
defer t.Stop()
for {
select {
case <-ctx.Done():
return
case now := <-t.C:
w.poller.PollDue(ctx, now)
}
}
}
// embedderOf — the voice wiring's embedder, or nil when voice is not wired.
// Feed notes are embedded with the SAME model the rest of the store uses, or not
// at all; a second embedder would write vectors nothing can search.
func embedderOf(w *voiceWiring) router.Embedder {
if w == nil {
return nil
}
return w.embedder
}
// transcriberOf — the STT the voice path is using, or nil when voice is off.
// The meeting recorder reuses it rather than dialling mavsttd a second time:
// Maven has one speech-to-text engine and adding a second would mean two
// whisper contexts competing for the same iGPU.
func transcriberOf(w *voiceWiring) stt.Transcriber {
if w == nil {
return nil
}
return w.transcriber
}
// feedFetcher adapts webfetch to rss.Fetcher — the pure package names the two
// fields it needs and stays free of net/http.
type feedFetcher struct{ f *webfetch.Fetcher }
func (a *feedFetcher) Get(ctx context.Context, u string) (*rss.Body, error) {
resp, err := a.f.Get(ctx, u)
if err != nil {
return nil, err
}
return &rss.Body{Bytes: resp.Body}, nil
}
// factMarks stores "how far this feed was read" as a config fact, the same
// mechanism the plan named and the same one the pattern tick uses for its own
// bookkeeping. Durable, inspectable on /dash, and cheap.
type factMarks struct{ api ipc.CoreAPI }
func markKey(feed string) string { return "rss:latest:" + feed }
func (m *factMarks) LastMark(ctx context.Context, feed string) (time.Time, error) {
f, err := m.api.LatestFact(ctx, markKey(feed))
if err != nil {
// No mark yet is not an error worth propagating: the poller treats a
// zero time as a cold start.
return time.Time{}, nil
}
t, err := time.Parse(time.RFC3339, f.Value)
if err != nil {
return time.Time{}, nil
}
return t, nil
}
func (m *factMarks) SetMark(ctx context.Context, feed string, at time.Time) error {
_, err := m.api.WriteFact(ctx, ipc.WriteFactReq{
Ts: time.Now(),
Kind: "config",
Key: markKey(feed),
Value: at.UTC().Format(time.RFC3339),
Source: "poll:rss",
Confidence: 1.0,
})
return err
}
// embedderFor adapts router.Embedder to rss.Embedder, and returns nil when
// there is none — a note without a vector is still a note the recent-notes path
// can read.
//
// EmbedPassage, not Embed: a feed item is text being searched FOR, and the e5
// embedder is asymmetric. Getting this backwards makes the item unfindable by
// the question that should have matched it.
func embedderFor(emb router.Embedder) rss.Embedder {
if emb == nil {
return nil
}
return passageEmbedder{emb}
}
type passageEmbedder struct{ e router.Embedder }
func (p passageEmbedder) Embed(ctx context.Context, text string) ([]float32, error) {
return router.EmbedPassage(ctx, p.e, text)
}
-221
View File
@@ -1,221 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/phraser"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/rss"
"github.com/kami/maven/internal/voice"
)
// buildFeedHandler — a handler with the given feed notes already stored. No
// embedder: the feed source answers from recent notes by source, which is what
// makes it work for notes written before an embedder existed.
func buildFeedHandler(t *testing.T, feedsOn bool, notes ...ipc.Note) *reactiveHandler {
t.Helper()
ctx := context.Background()
st := newTestStore(t)
now := time.Now()
for i, n := range notes {
ts := now.Add(time.Duration(i) * time.Minute)
if _, err := st.WriteNote(ctx, ts, n.Text, nil, n.Source); err != nil {
t.Fatalf("WriteNote: %v", err)
}
}
return &reactiveHandler{
api: ipc.NewStoreAPI(st),
replier: voice.NewStubReplier(),
phraser: phraser.NewStub(),
now: func() time.Time { return now },
feedsOn: feedsOn,
recall: recallWiring{embedder: nil},
}
}
func askFeeds(t *testing.T, h *reactiveHandler, q string) (string, bool) {
t.Helper()
return h.queryFeeds(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: q},
})
}
func TestQueryFeedsReadsFeedNotes(t *testing.T) {
h := buildFeedHandler(t, true,
ipc.Note{Text: "Новая уязвимость в ядре [технологии]\nпатч вышел\nhttps://example.org/a", Source: "rss:habr"},
ipc.Note{Text: "что-то он сам сказал", Source: "tap:voice"},
)
reply, ok := askFeeds(t, h, "что нового в лентах?")
if !ok {
t.Fatal("the feed source did not claim the question")
}
if !strings.Contains(reply, "уязвимость") {
t.Errorf("reply = %q, want the headline", reply)
}
if strings.Contains(reply, "он сам сказал") {
t.Errorf("a note he dictated leaked into the feed answer: %q", reply)
}
// She reads the headline, not the summary and not the URL.
if strings.Contains(reply, "https://") || strings.Contains(reply, "патч вышел") {
t.Errorf("reply = %q, want the title line only", reply)
}
}
func TestQueryFeedsByCategory(t *testing.T) {
h := buildFeedHandler(t, true,
ipc.Note{Text: "Релиз ядра [технологии]", Source: "rss:habr"},
ipc.Note{Text: "Выборы отложены [политика]", Source: "rss:news"},
)
reply, ok := askFeeds(t, h, "что нового по технологиям?")
if !ok {
t.Fatal("not claimed")
}
if !strings.Contains(reply, "ядра") || strings.Contains(reply, "Выборы") {
t.Fatalf("reply = %q, want only the технологии item", reply)
}
reply, _ = askFeeds(t, h, "что нового по спорту?")
if !phraser.IsQ(phraser.QueryFeedsTopic, nil, reply) {
t.Fatalf("reply = %q, want an honest empty answer for an unread category", reply)
}
}
// "не настроены" and "ничего нового" are different truths, and neither may be
// answered by the model inventing a bulletin.
func TestQueryFeedsOffAndEmptyDiffer(t *testing.T) {
// Against the entries, not against a substring: both of these have several
// wordings, so "ничего нового" passed only on the turns the picker happened
// to choose the first one.
off := buildFeedHandler(t, false)
reply, ok := askFeeds(t, off, "что нового в лентах?")
if !ok || !phraser.IsQ(phraser.QueryFeedsOff, nil, reply) {
t.Fatalf("feeds off: reply = %q, ok = %v", reply, ok)
}
on := buildFeedHandler(t, true)
reply, ok = askFeeds(t, on, "что нового в лентах?")
if !ok || !phraser.IsQ(phraser.QueryFeedsEmpty, nil, reply) {
t.Fatalf("feeds on but empty: reply = %q, ok = %v", reply, ok)
}
if phraser.IsQ(phraser.QueryFeedsOff, nil, reply) {
t.Fatalf("an empty feed answered as an unconfigured one: %q", reply)
}
}
func TestQueryFeedsPassesOnANonFeedQuestion(t *testing.T) {
h := buildFeedHandler(t, true)
if reply, ok := askFeeds(t, h, "напомни полить цветы"); ok {
t.Fatalf("claimed an unrelated question with %q", reply)
}
// The bare greeting is not a request for headlines. It used to be answered
// with a configuration status.
if reply, ok := askFeeds(t, h, "что нового?"); ok {
t.Fatalf("claimed a greeting with %q", reply)
}
}
// A busy day of his own notes must not push the newest headline out of the
// window the feed answer scans.
func TestQueryFeedsIsNotCrowdedOutByHisOwnNotes(t *testing.T) {
notes := []ipc.Note{{Text: "Релиз ядра [технологии]", Source: "rss:habr"}}
for i := 0; i < feedNoteWindow+10; i++ {
notes = append(notes, ipc.Note{Text: "мысль вслух", Source: "tap:voice"})
}
h := buildFeedHandler(t, true, notes...)
reply, ok := askFeeds(t, h, "что нового в лентах?")
if !ok || !strings.Contains(reply, "ядра") {
t.Fatalf("reply = %q, ok = %v; the headline fell out of the window", reply, ok)
}
}
// The mark is what stops a restart from re-noting yesterday's headlines, so the
// fact round-trip is worth a test of its own.
func TestFactMarksRoundTrip(t *testing.T) {
st := newTestStore(t)
m := &factMarks{api: ipc.NewStoreAPI(st)}
ctx := context.Background()
at, err := m.LastMark(ctx, "habr")
if err != nil || !at.IsZero() {
t.Fatalf("no mark yet: got %v, %v — want zero time and no error", at, err)
}
want := time.Date(2026, 7, 28, 10, 0, 0, 0, time.UTC)
if err := m.SetMark(ctx, "habr", want); err != nil {
t.Fatal(err)
}
got, err := m.LastMark(ctx, "habr")
if err != nil {
t.Fatal(err)
}
if !got.Equal(want) {
t.Fatalf("mark = %v, want %v", got, want)
}
}
// Off unless configured, checked at the wiring seam: no `feeds` block ⇒ no
// worker ⇒ no outbound request is possible.
func TestNewFeedWorkerOffByDefault(t *testing.T) {
st := newTestStore(t)
api := ipc.NewStoreAPI(st)
if w := newFeedWorker(api, nil, &config.Config{}); w != nil {
t.Fatal("a config with no feeds block wired a feed worker")
}
// An empty sources list is normalised to "off" by config.Load; the worker
// refuses it too, so a hand-built Config cannot switch it on by accident.
if w := newFeedWorker(api, nil, &config.Config{Feeds: &config.FeedsConfig{}}); w != nil {
t.Fatal("an empty sources list wired a feed worker")
}
cfg := &config.Config{Feeds: &config.FeedsConfig{Sources: []config.FeedSourceConfig{
{Name: "habr", URL: "https://example.org/rss"},
}}}
w := newFeedWorker(api, nil, cfg)
if w == nil {
t.Fatal("a configured feed did not wire a worker")
}
if got := w.poller.Feeds(); len(got) != 1 || got[0].Name != "habr" {
t.Fatalf("feeds = %+v", got)
}
}
// The fetcher the worker builds must be allowlisted to the configured feeds and
// nothing else — the crawler's SSRF guards are only worth as much as the
// allowlist handed to them.
func TestFeedWorkerFetcherIsAllowlisted(t *testing.T) {
cfg := &config.Config{Feeds: &config.FeedsConfig{Sources: []config.FeedSourceConfig{
{Name: "habr", URL: "https://feeds.example.org/rss"},
}}}
w := newFeedWorker(ipc.NewStoreAPI(newTestStore(t)), nil, cfg)
if w == nil {
t.Fatal("no worker")
}
// PollFeed goes through the guarded fetcher; a feed URL pointing at the box
// itself must fail rather than be read.
_, err := w.poller.PollFeed(context.Background(), rss.FeedConfig{
Name: "evil", URL: "http://127.0.0.1:9100/mcp",
}, time.Now())
if err == nil {
t.Fatal("the poller fetched a private address")
}
}
// TestQueryFeedsPassesWhenTheWorldCanAnswer — the defect (Vikunja #474). The
// deployed box has no feeds block and does have SearXNG, and "что происходит
// сейчас в новостях про искусственный интеллект?" got a configuration status
// instead of the live answer sitting one source below.
func TestQueryFeedsPassesWhenTheWorldCanAnswer(t *testing.T) {
h := buildFeedHandler(t, false)
h.search = &searchWiring{max: 3, runes: 1500}
if reply, ok := askFeeds(t, h, "что нового в лентах?"); ok {
t.Fatalf("feeds off with a search configured must fall through, got %q", reply)
}
// With nothing below that reads the world, the honest status is still said:
// general knowledge would otherwise answer with an invented bulletin.
h.search = nil
if reply, ok := askFeeds(t, h, "что нового в лентах?"); !ok || !strings.Contains(reply, "не настроены") {
t.Fatalf("no search and no ZIMs: reply = %q, ok = %v", reply, ok)
}
}
+9 -78
View File
@@ -1,79 +1,24 @@
package main
import (
"context"
"time"
"github.com/kami/maven/internal/dialogue"
"github.com/kami/maven/internal/router"
)
// voiceDialogueID — the dialogue-session and clarify key for the microphone.
// This is a single-user box (ponytail), so one slot per reach suffices; a
// second speaker would need per-speaker ids, which waits on voice-print
// attribution (see PROGRESS multi-user deferral).
// voiceDialogueID — the single dialogue-session key. This is a single-user box
// (ponytail), so one slot suffices; a second speaker would need per-speaker ids,
// which waits on voice-print attribution (see PROGRESS multi-user deferral).
const voiceDialogueID = "voice"
// textDialogueID — the clarify key for a text turn that named no conversation.
// Separate from the mic: an old client that sends no id still must not answer
// a question she asked out loud.
const textDialogueID = "text"
// dialogueKey — the context key carrying the id of the conversation this turn
// belongs to. It rides the context rather than a parameter for the same reason
// the correlation id does: every step of the turn needs it, most of them only
// to hand to the next one, and threading it by hand would put it in six
// clarify signatures that have nothing else to say about it.
type dialogueKey struct{}
// dialogueIDFor builds the id a turn is held under: the conversation the reach
// named, qualified by the tap it arrived on, or the tap's own fallback when it
// named none.
//
// A parked clarifying question used to be held under voiceDialogueID no matter
// where the turn came from, so one unanswerable question captured the next
// three utterances from anywhere. Three independent curl sessions fed a
// capture attempt that had already failed, and a reminder among them was lost
// (Vikunja #466).
func dialogueIDFor(src turnSource, conversation string) string {
if conversation != "" {
return string(src) + ":" + conversation
}
if src == sourceVoice {
return voiceDialogueID
}
return textDialogueID
}
// withDialogueID tags a turn with that id.
func withDialogueID(ctx context.Context, id string) context.Context {
return context.WithValue(ctx, dialogueKey{}, id)
}
// dialogueIDOf reads it back. Falls back to the microphone's slot, which is
// what an unthreaded caller — a test, an internal replay — gets.
func dialogueIDOf(ctx context.Context) string {
if id, ok := ctx.Value(dialogueKey{}).(string); ok && id != "" {
return id
}
return voiceDialogueID
}
// toDialogueSlots and applyDialogueSlots are the only bridge between
// router.Slots and dialogue.Slots. dialogue must not import router (import
// cycle), so the two structs are hand-kept copies and every field has to be
// carried by hand here. Adding a field to either struct without adding it to
// BOTH functions loses a slot silently — nothing fails to build. The tests in
// slotsparity_test.go fail when the field sets or the converters stop matching;
// when they do, fix these two functions, not the tests.
// toDialogueSlots projects the router's slots onto the dialogue layer's copy.
// toDialogueSlots projects the router's slots onto the dialogue layer's subset
// (everything except the fact Value, which the dialogue layer doesn't carry).
func toDialogueSlots(s router.Slots) dialogue.Slots {
return dialogue.Slots{
Time: s.Time,
HasTime: s.HasTime,
Key: s.Key,
Value: s.Value,
HasKey: s.HasKey,
Text: s.Text,
Fn: s.Fn,
@@ -82,10 +27,11 @@ func toDialogueSlots(s router.Slots) dialogue.Slots {
}
}
// applyDialogueSlots writes dialogue slots back onto router slots.
// applyDialogueSlots writes inherited dialogue slots back onto router slots,
// preserving router-only fields (Value) the dialogue layer never touched.
func applyDialogueSlots(base router.Slots, d dialogue.Slots) router.Slots {
base.Time, base.HasTime = d.Time, d.HasTime
base.Key, base.Value, base.HasKey = d.Key, d.Value, d.HasKey
base.Key, base.HasKey = d.Key, d.HasKey
base.Text = d.Text
base.Fn, base.Args, base.HasFn = d.Fn, d.Args, d.HasFn
return base
@@ -97,8 +43,7 @@ var anaphoraResolver router.AnaphoraResolver
// followUpMerge fills the current turn's missing slots from a prior
// non-expired session — the multi-turn seam. It handles three cases:
//
// 1. Same-intent: inherit missing slots via InheritSlots (existing behavior),
// except a reminder time the current sentence named and the parser missed.
// 1. Same-intent: inherit missing slots via InheritSlots (existing behavior).
// 2. Cross-intent anaphora: if the current utterance contains a pronoun
// ("это" / "он" / "она" etc.) AND the prior session has a key, inherit
// the key for fact-lookup queries and reminder creation.
@@ -114,22 +59,8 @@ func followUpMerge(prev *dialogue.Session, dec router.Decision, now time.Time) r
// Case 1: same-intent inheritance (existing).
if prev.Intent == dialogue.Intent(dec.Intent) {
// A reminder that named an hour nobody could read must not borrow the
// last one's. Two reminders in a row and the second landed at the
// first's time, confirmed as if it had been read from the sentence:
// "напомни без четверти восемь выходить" fired at 07:30 (V-543). The
// hour is also what fills before the action's own fallback parse can
// run, so inheriting it hid a time that did parse.
//
// Inheriting is still right when the sentence names no time at all,
// which is the follow-up this seam exists for.
blockTime := dec.Intent == router.IntentReminder &&
!dec.Slots.HasTime && router.MentionsTime(dec.Utterance)
merged := dialogue.InheritSlots(prev.Slots, toDialogueSlots(dec.Slots))
dec.Slots = applyDialogueSlots(dec.Slots, merged)
if blockTime {
dec.Slots.Time, dec.Slots.HasTime = time.Time{}, false
}
return dec
}
-36
View File
@@ -35,42 +35,6 @@ func TestFollowUpMerge(t *testing.T) {
}
})
// V-543, measured on the box: four reminders in a row all landed at the
// first one's hour, each confirmed as if it had been read from the sentence.
// A sentence that names a time and fails to parse must ask, not borrow.
t.Run("a named time that did not parse is not inherited", func(t *testing.T) {
for _, utt := range []string{
"напомни без четверти восемь выходить",
"напомни в половине первого пообедать",
"напомни завтра принять лекарство",
"remind me at noon to stretch",
} {
cur := router.Decision{
Intent: router.IntentReminder,
Utterance: utt,
Slots: router.Slots{Text: utt},
}
got := followUpMerge(prev, cur, base.Add(30*time.Second))
if got.Slots.HasTime {
t.Errorf("%q borrowed the previous hour %v", utt, got.Slots.Time)
}
}
})
// The follow-up this seam exists for still works: the sentence names no
// time, so the previous one is the only one it could mean.
t.Run("a follow-up naming no time still inherits", func(t *testing.T) {
cur := router.Decision{
Intent: router.IntentReminder,
Utterance: "и ещё полить цветы",
Slots: router.Slots{Text: "полить цветы"},
}
got := followUpMerge(prev, cur, base.Add(30*time.Second))
if !got.Slots.HasTime || !got.Slots.Time.Equal(fireAt) {
t.Errorf("time not inherited: HasTime=%v Time=%v", got.Slots.HasTime, got.Slots.Time)
}
})
t.Run("current slot wins over prior (gaps only)", func(t *testing.T) {
own := base.Add(48 * time.Hour)
cur := router.Decision{
-213
View File
@@ -1,213 +0,0 @@
package main
import (
"context"
"fmt"
"log"
"strings"
"time"
"github.com/kami/maven/internal/morph"
)
// Command history — "что я тебе говорил?", "что ты записала сегодня?"
// (Vikunja #456).
//
// Read-only over the facts that already exist. No new mechanism and no new
// storage: everything he tapped in is already a row with a source and a
// timestamp, and this only reads them back.
// A history question needs three things in one utterance: the interrogative,
// whose turn is being asked about, and a verb of saying or recording. Any two of
// them are a different question. "что я говорил про сервер" names a topic and
// the notes pass answers it better; "записал молоко" is a capture.
//
// The verbs are matched by lemma through internal/morph, not by a truncated
// prefix (Vikunja #530). The pairs here used to hold "рассказ" and "записал",
// which is the defect V-528 fixed in complaint.go: "рассказ" is also the noun,
// so "что я рассказал ей" and "что я читал рассказ" were the same string test.
// Aspect pairs are separate lemmas in the dictionary, so both members are listed.
var (
// historySpokenVerbs — what HE did. "что я тебе говорил".
historySpokenVerbs = []string{"говорить", "сказать", "рассказать", "рассказывать", "отметить", "отмечать"}
// historyRecordedVerbs — what SHE did with it. "что ты записала сегодня".
historyRecordedVerbs = []string{"записать", "запомнить", "отметить", "отмечать"}
// firstPersonSubjects and secondPersonSubjects — whose turn the question is
// about. Only the subject forms: "что я тебе говорил" is his turn, and the
// dative "тебе" in it is not the subject.
firstPersonSubjects = []string{"я"}
secondPersonSubjects = []string{"ты"}
)
// historyMarkersEn — the English pairs, kept as substrings because the
// dictionary is Russian. Each half alone is a different question, the same way
// the Russian test needs all three parts.
var historyMarkersEn = [][2]string{
{"what did i", "tell"},
{"what did you", "record"},
}
// historyRecall — the word that turns a history question into a recall
// question. "что я говорил про сервер" names a topic, and the notes pass
// answers a topic far better than a list of the last five facts does.
var historyRecall = []string{" про ", " об ", " о ", " about "}
// historySide — whose turn the question asks about. The rows read are the same
// either way, because a tapped fact is one act seen from two sides, but the
// sentence is not: answering "что ты записала сегодня?" with "ты говорил…"
// hands the question back instead of answering it (Vikunja #456).
type historySide int
const (
historyAskedHim historySide = iota // "что я тебе говорил"
historyAskedHer // "что ты записала сегодня"
)
// isHistoryQuery reports whether he is asking what he told her.
func isHistoryQuery(u string) bool {
_, ok := historyAsks(u)
return ok
}
// historyAsks reports whether this is a history question, and whose turn it is
// about.
func historyAsks(u string) (historySide, bool) {
s := " " + strings.ToLower(strings.TrimSpace(u)) + " "
if s == " " {
return historyAskedHim, false
}
for _, r := range historyRecall {
if strings.Contains(s, r) {
return historyAskedHim, false
}
}
for _, pair := range historyMarkersEn {
if strings.Contains(s, pair[0]) && strings.Contains(s, pair[1]) {
if strings.Contains(pair[0], "you") {
return historyAskedHer, true
}
return historyAskedHim, true
}
}
toks := historyTokens(s)
if !hasAny(toks, "что", "чего") {
return historyAskedHim, false
}
// His side is tested first: "отмечать" is on both verb lists, so "что я
// отметил" must not read as a question about her.
if hasAny(toks, firstPersonSubjects...) && hasVerbForm(toks, historySpokenVerbs) {
return historyAskedHim, true
}
if hasAny(toks, secondPersonSubjects...) && hasVerbForm(toks, historyRecordedVerbs) {
return historyAskedHer, true
}
return historyAskedHim, false
}
// historyTokens splits an utterance into bare words. The punctuation goes
// because "говорил?" is the same word as "говорил".
func historyTokens(s string) []string {
toks := strings.Fields(s)
out := make([]string, 0, len(toks))
for _, t := range toks {
if t = strings.Trim(t, ".,!?;:—–-()\"'«»"); t != "" {
out = append(out, t)
}
}
return out
}
func hasAny(toks []string, want ...string) bool {
for _, t := range toks {
for _, w := range want {
if t == w {
return true
}
}
}
return false
}
// hasVerbForm reports whether any token is a form of any of the lemmas. Both
// sides go through the dictionary, so a caller may name the infinitive and he
// may say the past tense.
func hasVerbForm(toks []string, lemmas []string) bool {
for _, t := range toks {
for _, l := range lemmas {
if morph.SameWord(t, l) {
return true
}
}
}
return false
}
// historyScan — how many recent facts are read before filtering. Deliberately
// larger than historyReadOut: a poller writing every few minutes would
// otherwise push everything he said out of the window, the same way his own
// notes used to crowd out the feed headlines.
const historyScan = 100
// historyReadOut — how many she says out loud. Five is what fits in one spoken
// breath; the rest are on /history, which is the surface for reading a list.
const historyReadOut = 5
// historyWindow — how far back "recently" reaches. A day, because the question
// is about this conversation and not about the archive.
const historyWindow = 24 * time.Hour
// queryHistory answers what he told her, from the facts he tapped in.
//
// Only "tap:" sources. A fact written by a poller, an inference or the ambient
// relay is a thing she learned, not a thing he said, and reading those back
// under "что я тебе говорил?" would put words in his mouth.
//
// Placed with the other sources that read his own rows and above the recall
// pass: the notes pass would otherwise answer this from whatever note happens
// to be nearest, which reads as an answer and is not one.
func (h *reactiveHandler) queryHistory(ctx context.Context, t *queryTurn) (string, bool) {
side, ok := historyAsks(t.dec.Utterance)
if !ok {
return "", false
}
facts, err := h.api.RecentFacts(ctx, historyScan)
if err != nil {
log.Printf("voice: history: recent facts: %v", err)
return "не получилось посмотреть, что ты говорил.", true
}
cutoff := h.now().Add(-historyWindow)
var said []string
for _, f := range facts {
if !strings.HasPrefix(f.Source, "tap:") || f.Ts.Before(cutoff) {
continue
}
said = append(said, historyLine(f.Key, f.Value, f.Ts))
if len(said) == historyReadOut {
break
}
}
if len(said) == 0 {
// Claim the turn rather than fall through. "ничего не говорил" is the
// true answer, and recall would answer it with an old note instead.
if side == historyAskedHer {
return "за последние сутки я ничего с твоих слов не записывала.", true
}
return "за последние сутки ты мне ничего такого не говорил.", true
}
if side == historyAskedHer {
return "я записала: " + strings.Join(said, "; "), true
}
return "ты говорил: " + strings.Join(said, "; "), true
}
// historyLine — one fact as she says it. The hour and minute, because the day
// is already bounded by historyWindow and a date would be noise.
func historyLine(key, value string, ts time.Time) string {
what := key
if value != "" {
what = key + " — " + value
}
return fmt.Sprintf("%s (%s)", what, ts.Local().Format("15:04"))
}
-142
View File
@@ -1,142 +0,0 @@
package main
import (
"context"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/router"
)
// historyAPI serves a fixed set of recent facts.
type historyAPI struct {
ipc.UnimplementedCoreAPI
facts []ipc.Fact
calls int
}
func (a *historyAPI) RecentFacts(context.Context, int) ([]ipc.Fact, error) {
a.calls++
return a.facts, nil
}
func historyHandler(now time.Time, facts ...ipc.Fact) (*reactiveHandler, *historyAPI) {
api := &historyAPI{facts: facts}
return &reactiveHandler{api: api, now: func() time.Time { return now }}, api
}
func askHistory(h *reactiveHandler, u string) (string, bool) {
return h.queryHistory(context.Background(), &queryTurn{
dec: router.Decision{Intent: router.IntentQuery, Utterance: u},
})
}
func TestIsHistoryQuery(t *testing.T) {
for _, tc := range []struct {
text string
want bool
}{
{"что я тебе говорил?", true},
{"что ты записала сегодня?", true},
{"что я отмечал?", true},
// Forms the truncated prefixes did not reach. The dictionary answers
// these because it lemmatises both sides (V-530).
{"что я тебе рассказывал?", true},
{"что я сказала вчера", true},
{"что ты запомнила?", true},
// The noun, not the verb. "рассказ" was a prefix of the old pair, so
// this read as a history question — the same defect V-528 fixed in
// complaint.go, where "лаг" matched "лагерь".
{"что я читал рассказ", false},
// A verb of saying with nobody saying it.
{"что записать?", false},
// A named topic is a recall question, and the notes pass answers it
// better than a list of the last five facts does.
{"что я говорил про сервер?", false},
{"что у меня сегодня?", false},
{"", false},
} {
if got := isHistoryQuery(tc.text); got != tc.want {
t.Errorf("isHistoryQuery(%q) = %v, want %v", tc.text, got, tc.want)
}
}
}
func TestHistoryReadsOnlyWhatHeSaid(t *testing.T) {
now := time.Date(2026, 8, 4, 20, 0, 0, 0, time.UTC)
h, api := historyHandler(now,
ipc.Fact{Key: "water", Value: "выпил", Source: "tap:voice", Ts: now.Add(-time.Hour)},
// Learned, not said: a poller writing this back under "что я тебе
// говорил?" would put words in his mouth.
ipc.Fact{Key: "spent_today", Value: "1200", Source: "poll:zenmoney", Ts: now.Add(-time.Hour)},
// Older than the window.
ipc.Fact{Key: "shower", Value: "принял", Source: "tap:voice", Ts: now.Add(-30 * time.Hour)},
)
reply, ok := askHistory(h, "что я тебе говорил?")
if !ok {
t.Fatal("the history question must be claimed before the recall sources")
}
if !strings.Contains(reply, "water") {
t.Errorf("reply = %q, want the fact he tapped in", reply)
}
if strings.Contains(reply, "spent_today") || strings.Contains(reply, "shower") {
t.Errorf("reply = %q, want only what he said inside the window", reply)
}
if api.calls != 1 {
t.Errorf("RecentFacts called %d times, want 1", api.calls)
}
}
// The rows are the same either way, because a tapped fact is one act seen from
// two sides. The sentence is not: "что ты записала" answered with "ты говорил"
// hands the question back (Vikunja #456).
func TestHistoryAnswersTheSideItWasAsked(t *testing.T) {
now := time.Date(2026, 8, 4, 20, 0, 0, 0, time.UTC)
h, _ := historyHandler(now, ipc.Fact{Key: "water", Value: "выпил", Source: "tap:voice", Ts: now.Add(-time.Hour)})
his, ok := askHistory(h, "что я тебе говорил?")
if !ok || !strings.HasPrefix(his, "ты говорил") {
t.Errorf("reply = %q, ok = %v, want his side", his, ok)
}
hers, ok := askHistory(h, "что ты записала сегодня?")
if !ok || !strings.HasPrefix(hers, "я записала") {
t.Errorf("reply = %q, ok = %v, want her side", hers, ok)
}
// "отмечать" is on both verb lists, so his subject has to win.
if side, ok := historyAsks("что я отметил?"); !ok || side != historyAskedHim {
t.Errorf("historyAsks(что я отметил) = %v, %v", side, ok)
}
empty, _ := historyHandler(now)
none, ok := askHistory(empty, "что ты записала сегодня?")
if !ok || !strings.Contains(none, "не записывала") {
t.Errorf("empty reply = %q, ok = %v, want her side", none, ok)
}
}
// Nothing said is an answer of its own. Falling through would hand the question
// to recall, which answers it with an old note.
func TestHistorySaysWhenThereIsNothing(t *testing.T) {
now := time.Date(2026, 8, 4, 20, 0, 0, 0, time.UTC)
h, _ := historyHandler(now)
reply, ok := askHistory(h, "что я тебе говорил?")
if !ok || !strings.Contains(reply, "ничего") {
t.Fatalf("reply = %q, ok = %v", reply, ok)
}
}
// Five is what fits in one spoken breath; the rest are on /history.
func TestHistoryStopsAtFive(t *testing.T) {
now := time.Date(2026, 8, 4, 20, 0, 0, 0, time.UTC)
var facts []ipc.Fact
for i := 0; i < 12; i++ {
facts = append(facts, ipc.Fact{Key: "k", Value: "v", Source: "tap:voice", Ts: now.Add(-time.Minute)})
}
h, _ := historyHandler(now, facts...)
reply, _ := askHistory(h, "что ты записала?")
if got := strings.Count(reply, ";"); got != historyReadOut-1 {
t.Fatalf("reply = %q has %d separators, want %d", reply, got, historyReadOut-1)
}
}
-310
View File
@@ -1,310 +0,0 @@
// mavend/intake.go — the unified event intake envelope, wired (Vikunja #283).
//
// internal/event defines the envelope and the bounded in-memory journal. This
// file is the one place that FILLS it, and the reason it is one place is worth
// stating, because the alternative was eight patches:
//
// Every intake path in Maven already converges on three writes, and all three
// are ipc.CoreAPI methods —
//
// WriteFact ← POST /api/ambient, mavcaldav, mavpoll's zenmoney + wg reads,
// /api/signal presence probes, the RSS/crawl watermarks
// WriteNote ← the RSS poller, the page crawler, meeting transcripts,
// image descriptions
// CaptureTask ← the voice path, the web form, and the mail reader
//
// — so decorating that ONE interface with a publish covers the lot without a
// caller knowing about events at all. cmd/mavmaild, cmd/mavcaldav, cmd/mavpoll,
// cmd/mavweb and the in-core feed/crawl/capture/vision workers are unchanged:
// they call the same interface they always called, and it now also narrates.
//
// The exception is cmd/mavend/mail.go, which reaches past the interface to
// st.CaptureTask directly. It publishes explicitly; see mailIntake.ingest.
//
// # Production behaviour when nobody is watching
//
// A nil *event.Bus makes Publish a no-op, and newIntakeAPI with a nil bus
// returns the wrapped API unchanged, so there is not even a decorator on the
// call path. The journal is memory-only and is never consulted by the tick
// loop, the router, or delivery — nothing Maven says depends on it. It is a
// read surface (`/events`, `recent_events`) and an observation seam for the
// simulator.
//
// # What is deliberately NOT here
//
// No dispatch. An event is a report that something arrived, never an
// instruction to speak: "a feed item appeared" becoming a notification is the
// nag this repo refuses. Digestion may one day read the journal; it will still
// go through internal/loop's rules and the severity/presence routing table.
package main
import (
"context"
"encoding/json"
"log"
"strings"
"time"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/event"
"github.com/kami/maven/internal/ipc"
"github.com/kami/maven/internal/store"
)
// newEventBus builds the journal, or returns nil when the operator turned it
// off (a negative config.intake_journal). nil is the "behave exactly as before"
// value all the way down: no decorator, no ring, no /events rows.
func newEventBus(cfg *config.Config) *event.Bus {
if cfg == nil {
// No config at all is a test, not an operator decision. Saying "off"
// here was noise in every suite that passes nil.
return nil
}
if cfg.IntakeJournal < 0 {
log.Printf("intake journal: off (intake_journal < 0)")
return nil
}
n := cfg.IntakeJournal
if n == 0 {
n = config.DefaultIntakeJournal
}
log.Printf("intake journal: keeping the last %d intake events in memory", n)
return event.NewBus(n)
}
// intakeEventsFn is the daemonAPI.getEvents closure: the bus's ring rendered as
// the wire type. Returns nil for a nil bus, which the daemonAPI reports as an
// empty journal rather than an error.
func intakeEventsFn(bus *event.Bus) func(n int) []ipc.IntakeEvent {
if bus == nil {
return nil
}
return func(n int) []ipc.IntakeEvent {
evs := bus.Recent(n)
out := make([]ipc.IntakeEvent, 0, len(evs))
for _, e := range evs {
out = append(out, ipc.IntakeEvent{
Source: e.Source,
Kind: e.Kind,
EntityIDs: e.EntityIDs,
Title: e.Title,
Body: e.Body,
Priority: e.Priority,
OccurredAt: e.OccurredAt,
NoticedAt: e.NoticedAt,
})
}
return out
}
}
// intakeAPI decorates a CoreAPI, publishing one envelope per successful
// intake write. Embedding the interface means every other method passes
// through untouched, and a new CoreAPI method is inherited rather than
// silently dropped.
type intakeAPI struct {
ipc.CoreAPI
bus *event.Bus
now func() time.Time
}
// newIntakeAPI wraps api so its intake writes are journalled. A nil bus
// returns api itself — no decorator, no allocation, no behaviour change.
func newIntakeAPI(api ipc.CoreAPI, bus *event.Bus, now func() time.Time) ipc.CoreAPI {
if bus == nil || api == nil {
return api
}
if now == nil {
now = time.Now
}
return &intakeAPI{CoreAPI: api, bus: bus, now: now}
}
// WriteFact journals the fact after it lands. Order matters: an event is a
// report of something that HAPPENED, so a failed write publishes nothing.
func (a *intakeAPI) WriteFact(ctx context.Context, req ipc.WriteFactReq) (int64, error) {
id, err := a.CoreAPI.WriteFact(ctx, req)
if err != nil {
return id, err
}
if selfWrite(req) {
// Maven's own bookkeeping is not something that arrived. The feed
// watermark, the crawl hash, the praxis trace of an act she performed
// and a quiet-hours toggle he pressed all used to sit on a page headed
// "everything that arrived", and on a cold start a handful of feeds
// could evict real intake behind their marks.
return id, nil
}
// OccurredAt is req.Ts, not now: mavpoll's wg read carries the handshake
// instant and the ambient path carries the meeting's start. Flattening
// those to notice-time would make the journal lie about when things
// happened, which is the one thing it is for.
title := req.Key
if req.VoidsID != nil {
// A retraction is not a reading. Without this it published an envelope
// indistinguishable from a fresh value for the same key, on a page
// whose whole job is "what came in".
title = "отмена: " + req.Key
}
a.bus.Publish(event.Event{
Source: req.Source,
Kind: event.SourceKind(req.Source, event.KindFact),
Title: title,
Body: req.Value,
Priority: factPriority(req),
OccurredAt: req.Ts,
EntityIDs: entityIDs(req.Subject),
Payload: factPayload(req),
}, a.now())
return id, nil
}
// WriteNote journals a note. This is the RSS and crawler path, and also the
// meeting transcript and image description paths, which write their derived
// text as ordinary notes.
func (a *intakeAPI) WriteNote(ctx context.Context, ts time.Time, text string, embedding []float32, source string) (int64, error) {
id, err := a.CoreAPI.WriteNote(ctx, ts, text, embedding, source)
if err != nil {
return id, err
}
title, body := splitFirstLine(text)
a.bus.Publish(event.Event{
Source: source,
Kind: event.SourceKind(source, event.KindNote),
Title: title,
Body: body,
Priority: event.PriorityLow,
OccurredAt: ts,
}, a.now())
return id, nil
}
// CaptureTask journals a captured task, but only when a row was actually
// created. CaptureTask dedupes on normalised text among live rows, so a
// mailbox re-read after a restart must not refill the journal with tasks that
// were already there.
func (a *intakeAPI) CaptureTask(ctx context.Context, req ipc.CaptureTaskReq) (ipc.CaptureTaskResp, error) {
resp, err := a.CoreAPI.CaptureTask(ctx, req)
if err != nil || !resp.Created {
return resp, err
}
a.bus.Publish(publishableTask(store.Task{
CreatedTs: req.Ts,
Text: req.Text,
Source: req.Source,
Evidence: req.Evidence,
Status: req.Status,
Due: req.Due,
}, a.now()), a.now())
return resp, nil
}
// publishableTask is the task→envelope shape, shared with mail.go, which
// captures through the store directly rather than through the interface.
//
// Priority is high for a candidate with a due date and normal otherwise. That
// is the only place this file makes a judgement, and it is a display hint on a
// review page — nothing routes on it.
func publishableTask(t store.Task, now time.Time) event.Event {
occurred := t.CreatedTs
if occurred.IsZero() {
occurred = now
}
prio := event.PriorityNormal
if t.Due != nil {
prio = event.PriorityHigh
}
return event.Event{
Source: t.Source,
Kind: event.KindTask,
Title: t.Text,
Body: t.Evidence,
Priority: prio,
OccurredAt: occurred,
}
}
// selfWrite reports whether a fact write is Maven describing her own state
// rather than something arriving from outside. The store's fact kinds are
// 'self', 'env' and 'config'; 'config' is where every watermark and toggle
// lands, and the praxis trace is an audit record of an act she performed, which
// is the same class of thing under an 'env' kind.
func selfWrite(req ipc.WriteFactReq) bool {
switch req.Kind {
case "config", "system":
return true
}
return strings.HasPrefix(req.Source, "praxis:trace")
}
// factPriority is the attention hint for a fact write. Deliberately crude:
// a low-confidence inference (the ambient notification path writes below 1.0)
// is worth less attention than a read he or a credentialled poller made, and a
// retraction is a correction rather than news.
//
// Confidence is NOT recoverable from this, which is why the number itself goes
// into Payload: three display buckets must not be the only surviving trace of
// the distinction internal/calendar went out of its way to keep.
func factPriority(req ipc.WriteFactReq) string {
if req.VoidsID != nil {
return event.PriorityLow
}
if req.Confidence > 0 && req.Confidence < 1.0 {
return event.PriorityLow
}
return event.PriorityNormal
}
// factDetail is the fact-shaped Payload: the fields the envelope's own flat
// shape cannot carry, kept so a reader can tell an inference from a
// credentialled read, and "nobody said" from "certain".
type factDetail struct {
// FactKind — the fact's own kind ('self', 'env', 'config'), a different
// taxonomy from Event.Kind.
FactKind string `json:"fact_kind,omitempty"`
// Confidence — the number itself, so an inference stays distinguishable
// from a credentialled read. nil when the writer set none, which the ipc
// layer rejects today; the pointer keeps "nobody said" and "certain" from
// collapsing into each other the way the priority bucket does.
Confidence *float64 `json:"confidence,omitempty"`
// VoidsID — the fact this one retracts.
VoidsID *int64 `json:"voids_id,omitempty"`
}
func factPayload(req ipc.WriteFactReq) json.RawMessage {
d := factDetail{FactKind: req.Kind, VoidsID: req.VoidsID}
if req.Confidence != 0 {
c := req.Confidence
d.Confidence = &c
}
if d.FactKind == "" && d.Confidence == nil && d.VoidsID == nil {
return nil
}
b, err := json.Marshal(d)
if err != nil {
return nil
}
return b
}
// entityIDs turns a fact's free-text Subject into the EntityIDs slot when it
// already looks resolved. Intake runs BEFORE the fact enrichment worker
// resolves a subject against Nexus, so this is almost always empty — the slot
// exists for the paths that do know (the ecosystem acts), not for guessing.
func entityIDs(subject string) []string {
subject = strings.TrimSpace(subject)
if subject == "" || !strings.HasPrefix(subject, "entity:") {
return nil
}
return []string{strings.TrimPrefix(subject, "entity:")}
}
// splitFirstLine renders a note as title + body. Feed and crawl notes are
// written "headline\nsummary\nlink", so the first line is already the title.
func splitFirstLine(text string) (title, body string) {
text = strings.TrimSpace(text)
if i := strings.IndexByte(text, '\n'); i >= 0 {
return strings.TrimSpace(text[:i]), strings.TrimSpace(text[i+1:])
}
return text, ""
}
-287
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@@ -1,287 +0,0 @@
package main
import (
"context"
"encoding/json"
"errors"
"strings"
"testing"
"time"
"github.com/kami/maven/internal/config"
"github.com/kami/maven/internal/event"
"github.com/kami/maven/internal/ipc"
)
var intakeNow = time.Date(2026, 8, 1, 10, 0, 0, 0, time.UTC)
func intakeClock() time.Time { return intakeNow }
// failingAPI wraps the store adapter, failing the three intake writes on
// demand, so the "a failed write publishes nothing" invariant is testable.
type failingAPI struct {
ipc.CoreAPI
fail bool
}
func (f *failingAPI) WriteFact(ctx context.Context, req ipc.WriteFactReq) (int64, error) {
if f.fail {
return 0, errors.New("injected")
}
return f.CoreAPI.WriteFact(ctx, req)
}
func newIntakeTestAPI(t *testing.T) (ipc.CoreAPI, *event.Bus) {
t.Helper()
st := newTestStore(t)
bus := event.NewBus(32)
return newIntakeAPI(ipc.NewStoreAPI(st), bus, intakeClock), bus
}
func TestIntakeAPIWithoutBusIsTheBareAPI(t *testing.T) {
// The adoption invariant: with the journal off there is not even a
// decorator on the intake path, so production behaves exactly as before.
st := newTestStore(t)
bare := ipc.NewStoreAPI(st)
if got := newIntakeAPI(bare, nil, intakeClock); got != ipc.CoreAPI(bare) {
t.Errorf("newIntakeAPI with a nil bus returned a wrapper, want the bare API")
}
}
func TestNewEventBusOffWhenNegative(t *testing.T) {
if b := newEventBus(&config.Config{IntakeJournal: -1}); b != nil {
t.Error("intake_journal = -1 still built a bus")
}
if b := newEventBus(&config.Config{IntakeJournal: 4}); b == nil {
t.Error("intake_journal = 4 built no bus")
}
}
func TestIntakeJournalsAFactWrite(t *testing.T) {
api, bus := newIntakeTestAPI(t)
ctx := context.Background()
// The ambient path's shape: an env fact below full confidence, timestamped
// at the meeting's start rather than at notice time.
start := intakeNow.Add(2 * time.Hour)
if _, err := api.WriteFact(ctx, ipc.WriteFactReq{
Ts: start, Kind: "env", Key: "calendar_event_20260801_планёрка",
Value: "10:00-11:00 планёрка", Source: "ambient:notif", Confidence: 0.6,
}); err != nil {
t.Fatalf("WriteFact: %v", err)
}
got := bus.Recent(0)
if len(got) != 1 {
t.Fatalf("journal has %d entries, want 1", len(got))
}
e := got[0]
if e.Source != "ambient:notif" || e.Kind != event.KindFact {
t.Errorf("source/kind = %q/%q", e.Source, e.Kind)
}
if e.Title != "calendar_event_20260801_планёрка" {
t.Errorf("title = %q, want the fact key", e.Title)
}
if !e.OccurredAt.Equal(start) {
t.Errorf("occurred_at = %v, want the fact's Ts %v — the journal must not flatten intake to notice time", e.OccurredAt, start)
}
if e.Priority != event.PriorityLow {
t.Errorf("priority = %q, want %q for a sub-1.0 confidence read", e.Priority, event.PriorityLow)
}
}
func TestIntakeDoesNotJournalAFailedWrite(t *testing.T) {
st := newTestStore(t)
bus := event.NewBus(8)
api := newIntakeAPI(&failingAPI{CoreAPI: ipc.NewStoreAPI(st), fail: true}, bus, intakeClock)
if _, err := api.WriteFact(context.Background(), ipc.WriteFactReq{
Ts: intakeNow, Kind: "env", Key: "k", Value: "v", Source: "poll:zenmoney", Confidence: 1,
}); err == nil {
t.Fatal("expected the injected error")
}
if bus.Len() != 0 {
t.Errorf("journal has %d entries after a failed write, want 0 — an event reports something that happened", bus.Len())
}
}
func TestIntakeJournalsANoteAsTitlePlusBody(t *testing.T) {
api, bus := newIntakeTestAPI(t)
// The RSS shape: "headline\nsummary\nlink".
if _, err := api.WriteNote(context.Background(), intakeNow,
"Вышло ядро 6.19\nкраткое содержание\nhttps://example.org/a", nil, "rss:tech"); err != nil {
t.Fatalf("WriteNote: %v", err)
}
got := bus.Recent(1)
if len(got) != 1 {
t.Fatalf("journal has %d entries, want 1", len(got))
}
if got[0].Title != "Вышло ядро 6.19" {
t.Errorf("title = %q, want the headline", got[0].Title)
}
if got[0].Kind != event.KindNote {
t.Errorf("kind = %q, want %q", got[0].Kind, event.KindNote)
}
if got[0].Body == "" {
t.Error("body is empty, want the rest of the note")
}
}
func TestIntakeJournalsOnlyCreatedTasks(t *testing.T) {
api, bus := newIntakeTestAPI(t)
ctx := context.Background()
req := ipc.CaptureTaskReq{Text: "оплатить интернет", Source: "email:inbox", Status: "candidate", Ts: intakeNow}
if _, err := api.CaptureTask(ctx, req); err != nil {
t.Fatalf("CaptureTask: %v", err)
}
// Same text again: CaptureTask dedupes among live rows, and a re-read of a
// mailbox must not refill the journal.
resp, err := api.CaptureTask(ctx, req)
if err != nil {
t.Fatalf("CaptureTask (repeat): %v", err)
}
if resp.Created {
t.Fatal("store did not dedupe; the test cannot check what it means to")
}
if bus.Len() != 1 {
t.Errorf("journal has %d entries, want 1 — a deduped capture must not publish", bus.Len())
}
if got := bus.Recent(1)[0]; got.Kind != event.KindTask || got.Title != "оплатить интернет" {
t.Errorf("entry = %+v, want the captured task", got)
}
}
func TestIntakeEventsFnRendersNewestFirst(t *testing.T) {
api, bus := newIntakeTestAPI(t)
ctx := context.Background()
for _, key := range []string{"a", "b", "c"} {
if _, err := api.WriteFact(ctx, ipc.WriteFactReq{
Ts: intakeNow, Kind: "env", Key: key, Value: "1", Source: "poll:zenmoney", Confidence: 1,
}); err != nil {
t.Fatalf("WriteFact %s: %v", key, err)
}
}
fn := intakeEventsFn(bus)
got := fn(2)
if len(got) != 2 || got[0].Title != "c" || got[1].Title != "b" {
t.Errorf("intakeEventsFn(2) = %+v, want the two newest, newest first", got)
}
if intakeEventsFn(nil) != nil {
t.Error("intakeEventsFn(nil) returned a closure, want nil so daemonAPI reports an empty journal")
}
}
func TestDaemonAPIRecentEventsEmptyWithoutABus(t *testing.T) {
d := &daemonAPI{CoreAPI: ipc.UnimplementedCoreAPI{}}
got, err := d.RecentEvents(context.Background(), 10)
if err != nil {
t.Fatalf("RecentEvents with no journal errored: %v", err)
}
if len(got) != 0 {
t.Errorf("got %d events, want none", len(got))
}
}
// Maven's own bookkeeping is not intake. The feed watermark, the crawl hash,
// the praxis trace of an act she performed and the quiet-hours toggle he
// pressed all landed on a page headed "everything that arrived", and on a cold
// start a handful of feeds could evict real intake behind their marks.
func TestIntakeSkipsHerOwnBookkeeping(t *testing.T) {
api, bus := newIntakeTestAPI(t)
ctx := context.Background()
for _, req := range []ipc.WriteFactReq{
{Ts: intakeNow, Kind: "config", Key: "rss:latest:tech", Value: "2026-08-01T09:00:00Z", Source: "poll:rss", Confidence: 1.0},
{Ts: intakeNow, Kind: "config", Key: "crawl:hash:kernel", Value: "deadbeef", Source: "poll:crawl", Confidence: 1.0},
{Ts: intakeNow, Kind: "config", Key: "quiet_hours", Value: "true", Source: "tap:voice", Confidence: 1.0},
{Ts: intakeNow, Kind: "env", Key: "praxis:list_attention", Value: "ok", Source: "praxis:trace", Confidence: 1.0},
} {
if _, err := api.WriteFact(ctx, req); err != nil {
t.Fatalf("WriteFact(%s): %v", req.Key, err)
}
}
if n := bus.Len(); n != 0 {
t.Fatalf("journalled %d bookkeeping writes, want 0: %+v", n, bus.Recent(0))
}
// A real arrival under the same decorator still lands.
if _, err := api.WriteFact(ctx, ipc.WriteFactReq{
Ts: intakeNow, Kind: "env", Key: "spend_today", Value: "1200",
Source: "poll:zenmoney", Confidence: 1.0,
}); err != nil {
t.Fatal(err)
}
if bus.Len() != 1 {
t.Fatalf("a real intake write was dropped: %+v", bus.Recent(0))
}
}
// Confidence is the distinction between an inference and a credentialled read,
// and the three-value priority bucket cannot carry it: unset and 1.0 land in
// the same bucket, and 0.6 is gone entirely once mapped. Payload keeps it.
func TestIntakeCarriesConfidenceAndFactKind(t *testing.T) {
api, bus := newIntakeTestAPI(t)
ctx := context.Background()
if _, err := api.WriteFact(ctx, ipc.WriteFactReq{
Ts: intakeNow, Kind: "env", Key: "calendar_event_x", Value: "18:00 планёрка",
Source: "ambient:notif", Confidence: 0.6,
}); err != nil {
t.Fatal(err)
}
if _, err := api.WriteFact(ctx, ipc.WriteFactReq{
Ts: intakeNow, Kind: "self", Key: "mood", Value: "ok", Source: "tap:web", Confidence: 1.0,
}); err != nil {
t.Fatal(err)
}
got := bus.Recent(0)
if len(got) != 2 {
t.Fatalf("journal has %d entries, want 2", len(got))
}
var relayed, stated factDetail
if err := json.Unmarshal(got[1].Payload, &relayed); err != nil {
t.Fatalf("payload: %v", err)
}
if relayed.Confidence == nil || *relayed.Confidence != 0.6 {
t.Errorf("confidence = %v, want 0.6 recoverable from the payload", relayed.Confidence)
}
if relayed.FactKind != "env" {
t.Errorf("fact_kind = %q, want env", relayed.FactKind)
}
// Both writes land in PriorityNormal or PriorityLow buckets that cannot be
// told apart from the outside; the payload is where the two numbers stay
// distinguishable.
if err := json.Unmarshal(got[0].Payload, &stated); err != nil {
t.Fatalf("payload: %v", err)
}
if stated.Confidence == nil || *stated.Confidence != 1.0 || stated.FactKind != "self" {
t.Errorf("payload = %+v, want confidence 1.0 and fact_kind self", stated)
}
}
// A retraction is not an observation. It used to publish an envelope
// indistinguishable from a fresh reading of the same key.
func TestIntakeMarksARetraction(t *testing.T) {
api, bus := newIntakeTestAPI(t)
ctx := context.Background()
id, err := api.WriteFact(ctx, ipc.WriteFactReq{
Ts: intakeNow, Kind: "env", Key: "weight", Value: "82", Source: "tap:web", Confidence: 1.0,
})
if err != nil {
t.Fatal(err)
}
if _, err := api.WriteFact(ctx, ipc.WriteFactReq{
Ts: intakeNow, Kind: "env", Key: "weight", Value: "81", Source: "tap:web",
Confidence: 1.0, VoidsID: &id,
}); err != nil {
t.Fatal(err)
}
e := bus.Recent(1)[0]
if e.Priority != event.PriorityLow {
t.Errorf("priority = %q, want low for a correction", e.Priority)
}
if !strings.HasPrefix(e.Title, "отмена:") {
t.Errorf("title = %q, want it marked as a retraction", e.Title)
}
var d factDetail
if err := json.Unmarshal(e.Payload, &d); err != nil {
t.Fatal(err)
}
if d.VoidsID == nil || *d.VoidsID != id {
t.Errorf("voids_id = %v, want %d", d.VoidsID, id)
}
}
-111
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@@ -1,111 +0,0 @@
package main
// Writing the wrapped-key blob (Vikunja #14).
//
// The blob is the only thing that opens the database on a cold-started box, so
// the two rules here are about not losing it.
//
// # It is rewritten on every assertion, so the write must be atomic
//
// mavweb calls StoreEncryptionKey after every successful assertion, not only
// after enrolment. os.WriteFile truncates in place: a power cut or an OOM kill
// between the truncate and the write left a zero-length blob and no previous
// contents, on the path of every routine step-up. Write to a temp file in the
// same directory, fsync it, rename over the target, then fsync the directory.
//
// # Only one authenticator can hold the cold-start key
//
// A blob is wrapped under one credential's PRF output and nothing else opens
// it. mavweb sends an empty allowCredentials list and the credential store
// keeps more than one passkey, so an unconditional rewrite meant the last
// authenticator to assert silently locked out every other one — including the
// backup hardware key enrolled for exactly the cold-start case. So: a blob
// that already opens under this secret and already wraps this key is left
// alone, a v1 blob is upgraded in place, and a v2 blob belonging to a
// different credential is refused rather than overwritten.
import (
"bytes"
"errors"
"fmt"
"os"
"path/filepath"
"github.com/kami/maven/internal/webauthn"
)
// errForeignBlob — the wrapped key on disk belongs to another credential.
// Refusing is the point: overwriting would lock that authenticator out.
var errForeignBlob = errors.New("wrapped key belongs to a different credential")
// wrapKeyToFile wraps key under secret and persists it at path, unless the
// blob already there says not to. Reports whether it wrote anything.
func wrapKeyToFile(path string, key, secret []byte) (wrote bool, err error) {
existing, err := os.ReadFile(path)
switch {
case err == nil:
plain, version, uerr := webauthn.UnwrapKey(existing, secret)
switch {
case uerr == nil && version == webauthn.BlobV2 && bytes.Equal(plain, key):
// Already wrapped under this secret, around this key. The
// common case on every assertion after the first.
return false, nil
case uerr != nil && version == webauthn.BlobV2:
return false, fmt.Errorf("%w: %s does not open under this assertion's PRF output, so another passkey holds the cold-start key; delete it deliberately to re-wrap", errForeignBlob, path)
}
// A v1 blob (upgrade it), or a v2 blob wrapping a stale key under
// this same secret (the key was rotated). Both are rewrites.
case errors.Is(err, os.ErrNotExist):
// First wrap.
default:
return false, fmt.Errorf("read wrapped key: %w", err)
}
blob, err := webauthn.WrapKey(key, secret)
if err != nil {
return false, fmt.Errorf("wrap encryption key: %w", err)
}
if err := writeFileAtomic(path, blob, 0o600); err != nil {
return false, fmt.Errorf("write wrapped key: %w", err)
}
return true, nil
}
// writeFileAtomic writes data to path so that a reader sees either the whole
// new file or the whole old one, never a truncated blob.
func writeFileAtomic(path string, data []byte, perm os.FileMode) error {
dir := filepath.Dir(path)
f, err := os.CreateTemp(dir, filepath.Base(path)+".tmp*")
if err != nil {
return err
}
tmp := f.Name()
defer os.Remove(tmp) // no-op once the rename succeeded
if err := f.Chmod(perm); err != nil {
f.Close()
return err
}
if _, err := f.Write(data); err != nil {
f.Close()
return err
}
if err := f.Sync(); err != nil {
f.Close()
return err
}
if err := f.Close(); err != nil {
return err
}
if err := os.Rename(tmp, path); err != nil {
return err
}
// The rename itself needs to reach the disk, or a crash can resurrect the
// old directory entry pointing at a file that is gone.
d, err := os.Open(dir)
if err != nil {
return err
}
defer d.Close()
return d.Sync()
}
-187
View File
@@ -1,187 +0,0 @@
package main
import (
"bytes"
"errors"
"os"
"path/filepath"
"testing"
"github.com/kami/maven/internal/webauthn"
)
func wrapPath(t *testing.T) string {
t.Helper()
return filepath.Join(t.TempDir(), "db_key.wrapped")
}
// The first wrap writes a v2 blob that opens under the same secret.
func TestWrapKeyToFileWritesAnOpenableBlob(t *testing.T) {
path := wrapPath(t)
key := bytes.Repeat([]byte{1}, 32)
secret := bytes.Repeat([]byte{2}, 32)
wrote, err := wrapKeyToFile(path, key, secret)
if err != nil || !wrote {
t.Fatalf("wrapKeyToFile = %v, %v; want a write", wrote, err)
}
blob, err := os.ReadFile(path)
if err != nil {
t.Fatalf("read blob: %v", err)
}
plain, version, err := webauthn.UnwrapKey(blob, secret)
if err != nil || version != webauthn.BlobV2 || !bytes.Equal(plain, key) {
t.Fatalf("UnwrapKey = %x, %v, %v", plain, version, err)
}
if fi, err := os.Stat(path); err != nil || fi.Mode().Perm() != 0o600 {
t.Fatalf("mode = %v (%v), want 0600", fi.Mode().Perm(), err)
}
}
// A blob that already wraps this key under this secret is left alone. Without
// this every assertion rewrote the one file that opens the database.
func TestWrapKeyToFileSkipsAnIdenticalBlob(t *testing.T) {
path := wrapPath(t)
key := bytes.Repeat([]byte{3}, 32)
secret := bytes.Repeat([]byte{4}, 32)
if _, err := wrapKeyToFile(path, key, secret); err != nil {
t.Fatalf("first wrap: %v", err)
}
before, err := os.ReadFile(path)
if err != nil {
t.Fatalf("read: %v", err)
}
wrote, err := wrapKeyToFile(path, key, secret)
if err != nil {
t.Fatalf("second wrap: %v", err)
}
if wrote {
t.Error("rewrote a blob that already opens under this secret")
}
after, _ := os.ReadFile(path)
if !bytes.Equal(before, after) {
t.Error("the blob changed on a no-op wrap")
}
}
// Two enrolled authenticators, two PRF secrets, one blob. The second must not
// silently lock the first one out — the backup passkey enrolled for exactly
// the cold-start case is the one thing that used to stop working.
func TestWrapKeyToFileRefusesAnotherCredentialsBlob(t *testing.T) {
path := wrapPath(t)
key := bytes.Repeat([]byte{5}, 32)
phone := bytes.Repeat([]byte{6}, 32)
yubikey := bytes.Repeat([]byte{7}, 32)
if _, err := wrapKeyToFile(path, key, phone); err != nil {
t.Fatalf("first wrap: %v", err)
}
before, _ := os.ReadFile(path)
wrote, err := wrapKeyToFile(path, key, yubikey)
if !errors.Is(err, errForeignBlob) {
t.Fatalf("wrapKeyToFile = %v, %v; want errForeignBlob", wrote, err)
}
after, _ := os.ReadFile(path)
if !bytes.Equal(before, after) {
t.Fatal("the second authenticator overwrote the first one's blob")
}
if _, _, err := webauthn.UnwrapKey(after, phone); err != nil {
t.Fatalf("the first authenticator can no longer open the blob: %v", err)
}
}
// A v1 blob is the pre-#14 format. It is upgraded in place rather than
// refused, because that is the only way off a format that protects nothing.
func TestWrapKeyToFileUpgradesALegacyBlob(t *testing.T) {
path := wrapPath(t)
key := bytes.Repeat([]byte{8}, 32)
secret := bytes.Repeat([]byte{9}, 32)
// A v1 blob is a v2 blob with the magic stripped and the v1 info string;
// the package writes no v1, so build one the only way a test can: wrap
// v2 under a public key, then hand the file a body with no magic. What
// matters here is only that UnwrapKey classifies it as v1.
v2, err := webauthn.WrapKey(key, secret)
if err != nil {
t.Fatalf("WrapKey: %v", err)
}
legacy := v2[7:] // drop the magic
if err := os.WriteFile(path, legacy, 0o600); err != nil {
t.Fatalf("write legacy blob: %v", err)
}
if _, version, _ := webauthn.UnwrapKey(legacy, secret); version != webauthn.BlobV1 {
t.Fatalf("fixture is not read as v1 (got %v)", version)
}
wrote, err := wrapKeyToFile(path, key, secret)
if err != nil || !wrote {
t.Fatalf("wrapKeyToFile = %v, %v; want the legacy blob upgraded", wrote, err)
}
blob, _ := os.ReadFile(path)
if _, version, err := webauthn.UnwrapKey(blob, secret); err != nil || version != webauthn.BlobV2 {
t.Fatalf("after upgrade: version %v, err %v", version, err)
}
}
// A rotated at-rest key under the same credential is a rewrite, not a no-op.
func TestWrapKeyToFileRewritesARotatedKey(t *testing.T) {
path := wrapPath(t)
secret := bytes.Repeat([]byte{10}, 32)
old := bytes.Repeat([]byte{11}, 32)
fresh := bytes.Repeat([]byte{12}, 32)
if _, err := wrapKeyToFile(path, old, secret); err != nil {
t.Fatalf("first wrap: %v", err)
}
wrote, err := wrapKeyToFile(path, fresh, secret)
if err != nil || !wrote {
t.Fatalf("wrapKeyToFile = %v, %v; want the rotated key written", wrote, err)
}
blob, _ := os.ReadFile(path)
plain, _, err := webauthn.UnwrapKey(blob, secret)
if err != nil || !bytes.Equal(plain, fresh) {
t.Fatalf("blob still wraps the old key (%v)", err)
}
}
// The write never truncates the target in place, so a crash mid-write cannot
// leave a zero-length blob where the only copy of the wrapped key was.
func TestWriteFileAtomicLeavesNoTempFilesAndReplacesWhole(t *testing.T) {
dir := t.TempDir()
path := filepath.Join(dir, "db_key.wrapped")
if err := os.WriteFile(path, bytes.Repeat([]byte{0xaa}, 67), 0o600); err != nil {
t.Fatalf("seed: %v", err)
}
// Hold the old inode. A rename gives it a new one; a truncating write
// would keep it.
oldInfo, err := os.Stat(path)
if err != nil {
t.Fatalf("stat: %v", err)
}
want := bytes.Repeat([]byte{0xbb}, 67)
if err := writeFileAtomic(path, want, 0o600); err != nil {
t.Fatalf("writeFileAtomic: %v", err)
}
got, err := os.ReadFile(path)
if err != nil || !bytes.Equal(got, want) {
t.Fatalf("content = %x (%v)", got, err)
}
newInfo, err := os.Stat(path)
if err != nil {
t.Fatalf("stat: %v", err)
}
if os.SameFile(oldInfo, newInfo) {
t.Error("the target was written in place, not renamed over")
}
entries, err := os.ReadDir(dir)
if err != nil {
t.Fatalf("readdir: %v", err)
}
if len(entries) != 1 {
t.Errorf("directory holds %d entries, want just the blob (a temp file leaked)", len(entries))
}
}

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