10 Commits

Author SHA1 Message Date
kami 9ac32c9e93 fix(plan-grounding): credit a file-writing stage's scope as will-exist
Session d038468a: architect's plans compiled clean (3x) but plan grounding
then rejected them. The scaffold_frontend_project stage runs `npm create vite`
(allowed_tools [file_write, shell], touches [frontend/]) to create frontend/ +
package.json at run time. PlanGrounder only credited declared writes/
expectedFiles, so the scaffolder's generated files were invisible — it
false-rejected all three: frontend/ "doesn't exist", verify stage has "no
manifest". That rejects exactly the plan the architect prompt asks for ("use
the real scaffolder, don't hand-write package.json").

Credit a file_write-capable stage's declared `touches` scope as populated by
run time: it satisfies the build-manifest prerequisite and any scope (its own
or a later stage's) that overlaps it. Keyed on file_write (create-intent), NOT
shell, so a read-only shell stage — log inspection, test runs, grep — creates
nothing and does not wrongly credit its scope. Runtime precondition handling
(#167/#170) remains the backstop for a build whose prerequisite genuinely
never appears.

Tests: scaffolder case (mirrors the session) grounds; read-only shell stage
does NOT; existing "missing prerequisite" reject still holds.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_015Ly2mMnt9TCZbvhcC1JfuV
2026-07-19 23:28:48 +04:00
kami b43ab77eee feat(server): REST /clarify route for headless clarification answers (#42)
Discovery-stage clarifications could only be answered over WebSocket
(ClientMessage.ClarificationResponse), so the curl-based headless QA
driver parked forever at discovery.

Add POST /sessions/{id}/clarify mirroring approveStageRoute. The server
resolves the live (stageId, requestId) from the session id via
SessionOrchestrator.pendingClarificationFor() — the newest still-live,
unanswered ClarificationRequestedEvent from the event log — so a curl
caller need not know the requestId. Empty answers = free-text skip.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
2026-07-19 23:18:47 +04:00
kami 95b16a5047 fix(weak-model-gates): stop three gates from stalling weak stage models
Diagnosed from session 508c8d58 (frontend freestyle run, WorkflowFailed):
three independent weak-model-hostile gates, none a model-capability problem.

- shell: split a collapsed single-string command line (["npm create vite …"])
  into tokens instead of rejecting it as a "collapsed array". The model
  reliably re-emits this shape; rejecting looped bootstrap_frontend until
  stage_loop_break. JSON-escape mangles (quotes/commas in argv[0]) stay rejected.
- recovery: a stage_loop_break route now gets a "Stuck-loop ticket", not the
  "Contract arbitration ticket". The arbitration prompt told the model to read
  and reconcile "the files named below" — but a tool-syntax loop names zero
  files, sending the recovery agent grepping the repo for 40+ turns until the
  repair ladder exhausted.
- plan lint: H3 (unreferenced_prompt_artifact) demoted from hard failure to
  soft finding, and seeds excluded from it. It word-matches artifact IDs in
  free prose and cannot tell a forgotten dep from a descriptive mention, so as
  a hard gate it burned architect retries on words it couldn't reword away
  (analysis/dod). Hard tier is now deterministic graph facts only (H1/H2).

Tests: ShellToolTest, PlanLinterTest, RecoveryRoutingTest green; detekt clean.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_015Ly2mMnt9TCZbvhcC1JfuV
2026-07-19 22:33:01 +04:00
kami 0a001c42c7 fix(toolintent): manifest gate defers to task affected_paths; scaffold-glob guidance
Two failed web-ui freestyle runs dead-ended on the write manifest. The
scaffold_frontend stage declared writes=[frontend/package.json,
frontend/vite.config.ts], so every other file the scaffold produced
(tsconfig, src/main.tsx, index.html, App.tsx) was BLOCKED as
PATH_OUTSIDE_MANIFEST with no agent-facing escape hatch — unlike WRITE_SCOPE,
which advertises task_update. Retry exhausted -> WorkflowFailed.

- ManifestContainmentRule: a write already inside the active task's
  affected_paths is allowed even when the stage manifest is narrower. The
  task scope is the agent-widenable, recorded authority (see WriteScopeRule);
  the stage manifest is a planner hint that defers to it. Block message now
  names the remedy (widen affected_paths via task_update).
- architect_freestyle prompt: a scaffold/generator stage must declare its
  `writes` as a covering directory glob (frontend/**), not enumerate files,
  and use ** not * — frontend/* does not cover frontend/src/main.tsx.

core:toolintent green (78 tests), detekt clean.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
2026-07-19 17:32:48 +04:00
kami 68c56b6af6 feat(freestyle): return grounding-rejected plan to architect for a bounded re-run
A plan that failed grounding used to dead-end — every gate rejection in
FreestyleDriver.lockAndRun was terminal, so a legitimate grounding catch
(e.g. a stage declaring a PROJECT build with no manifest) left the run stuck
with no retry.

lockAndRun is now a gate loop: on a grounding rejection with retries left it
re-runs the planning workflow from the architect stage (rerunArchitect), which
emits a corrected plan, then re-gates. Other gate failures — and grounding once
maxGroundingRetries is spent — stay terminal.

- FreestyleDriver: gate loop + rerunArchitect/maxGroundingRetries seams;
  groundPlan returns findings (String?) instead of Boolean; post-grounding
  tail extracted to lockAndRunGrounded.
- DefaultSessionOrchestrator.runFrom(startStage) + emitWorkflowStarted(startStage);
  run() delegates to it. Lets the re-run enter directly at architect.
- buildGroundingFeedbackEntry (ContextFeedback) injects the already-recorded
  PlanGroundingEvaluatedEvent findings into the architect's L1 context on re-run;
  wired in SessionOrchestratorExecution.
- Main: rerunArchitect lambda (rehydrate -> runFrom(architect) -> rehydrate).

The architect stage-entry approval gate already reuses a prior APPROVED decision
(alreadyApproved), so the re-run does not re-prompt the operator — added a
FreestyleApprovalGateTest regression guard proving runFrom(architect) with a
seeded approval emits no second request and runs straight through.

Tests: FreestyleDriverTest retry-then-lock + exhaustion->reject(source=grounding);
FreestyleApprovalGateTest reuse-approval guard.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
2026-07-19 03:00:35 +04:00
kami 1b58bc325e wip(freestyle/acr): grounding & edit-tool fixes + ACR-compiler experiment
This branch's uncommitted WIP, committed together (entangled at file level).
Distinct pieces of work:

Freestyle QA fixes (this session):
- FileEditTool: pre-validate replace anchor in validateRequest — reject a
  missing/ambiguous target BEFORE the approval gate, mirroring read/write's
  file-not-found / read-before-write pre-checks. Shared not-found/ambiguous
  messages between validate and execute so they can't drift.
- PlanGrounder: add `scanned` flag; when no RepoMapComputedEvent was recorded,
  repoMapPaths is "unknown" not "empty workspace" — skip scope grounding
  (which proves a path ABSENT) so real paths (apps/server/**) aren't falsely
  rejected. Build-manifest check still runs.
- FreestyleDriver: wire scanned=(repoMap!=null); on plan rejection emit a
  session-terminal WorkflowFailedEvent so a rejected run reads FAILED, not the
  COMPLETED-lie (last verdict was the planning-phase WorkflowCompleted).
- ServerModule: resolve project-memory workspace root from the session's bound
  workspace (sessionWorkspaceRoot) instead of boot-static pm.repoRoot(), fixing
  the workspace-binding divergence (correx vs empty scratch dir). Retire tracked
  in Vikunja #266.
- LaunchRegistrationRaceTest: join registered jobs before asserting launchCount
  — computeIfAbsent returns the Job immediately but the fire-and-forget launch
  body lagged awaitAll (the 49-vs-50 flake).

ACR concept-compiler experiment (pre-existing WIP on this branch):
- ExecutionPlanCompiler/Model/PlanLinter, #264 needs-seam (sessionArtifacts),
  LSP diagnostics subsystem (LspDiagnosticEvents/Runner/Lsp4j), BootWorkspace,
  config surface, workflow prompts/schemas, orchestrator advance-don't-rerun.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
2026-07-19 01:20:37 +04:00
kami 7b90944b61 feat(inference): pass [[models]] params through to llama-server (enables draft-MTP) (#243)
ModelConfig.params was loaded from config but never consumed — the spawn
command in DefaultModelManager was hardcoded. Thread it through: params (a
flag->value map) flattens to token order on ModelDescriptor.extraArgs and
appends to the llama-server argv. This engages Multi-Token Prediction
speculative decoding purely from config:

  [[models]]
  params = { "-md" = "/path/draft.gguf", "-ngld" = "99", "--spec-type" = "draft-mtp", "--spec-draft-n-max" = "4" }

Each entry stays a distinct argv token (no shell), so paths with spaces are safe.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
2026-07-18 14:28:26 +04:00
kami 6010f6b6c0 feat(server): bootstrap codebase-memory index at workspace open (#242)
codebase-memory search tools failed 9/9 ("project not found or not indexed")
because index_repository was never called for the repo. After MCP servers
mount, if one advertises index_repository, invoke it once with the workspace
root (repo_path) through the normal ToolExecutor path, on a background daemon
so a slow index doesn't block startup. "fast" mode to reach usable quickest.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
2026-07-18 14:17:00 +04:00
kami 0e1095e9ba feat(tools): clobber guard blocks file_write overwriting real code with elided stubs (#245)
A full file_write that shrinks a non-trivial existing file (>=30 non-blank
lines) by >60% into a stub with literal `...` placeholders is almost always
the model rewriting a file from memory instead of editing it — the incident
that silently broke SessionRoutes.kt (273->28 lines) in run f11afb08. Reject it
(recoverable) and steer to file_edit. Requires BOTH the hard shrink AND elision
markers, so dead-code refactors and new-file scaffolds pass untouched. Runs
before the write regardless of approval tier, so the auto-driver can't wave it
through.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
2026-07-18 14:05:53 +04:00
kami e25e9e46fd fix(kernel): stop compaction self-deadlocking long runs on re-entrant artifact Mutex
JournalCompactionService and TierContextSummarizer wrapped their event emit
in artifactStore.flushBefore { }. But emit -> SqliteEventStore.append already
calls flushBefore internally, re-acquiring CasArtifactStore's non-reentrant
Mutex -> the coroutine parks forever (no CPU, no thread, no exception, no
terminal event). Only fires once the journal crosses the compaction threshold,
i.e. exactly on long runs.

Emit directly; append()'s own flushBefore still fsyncs artifacts before the
referencing event is persisted, so durability ordering is preserved. Adds a
regression test with a lock-holding fake store (the prior fake took no lock,
which is why the deadlock escaped tests).

Vikunja #244.

Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LG7sGEbVJQncHJtsbPFJZm
2026-07-17 16:17:56 +04:00
79 changed files with 2106 additions and 217 deletions
+1
View File
@@ -21,6 +21,7 @@ All sources under `apps/server/src/`.
- `GET /metrics/tool-reliability` — per-model tool-call validity across the event log (`ToolReliabilityInspectionService`); groundwork for capability-aware routing
- Optional `[git]` transport creates `run/<sessionId>` from a server-local checkout and pushes it at terminal state; clients review with ordinary Git and never supply a remote URL as `cwd`.
- Repo-map L3 embeddings use bounded, recorded source descriptors (module/package, imports, leading purpose comment, symbols); raw file bodies are never embedded. Their versioned `repomap:v2` namespace forces a one-time re-embed when the semantic document format changes.
- At boot, `tools.workspace_root` is the authoritative tool jail and project-observation root. A configured `tools.working_dir` may only remain distinct when it is contained by that root; an outside value is clamped to `workspace_root`. Project memory and repo-map indexing are also rebound to `workspace_root`, so a stale `[project].root` cannot inject files from outside the session workspace.
### WebSocket protocol (`/ws`)
- **ServerMessage** (server → client): sealed hierarchy — `SessionMessage` (event-derived, carries `sequence` + `sessionSequence`) and `NonEventMessage` (control/infra). Variants include session lifecycle, approval requests, clarification requests, narration, proposed workflows, health/metrics pushes.
@@ -0,0 +1,35 @@
package com.correx.apps.server
import com.correx.core.config.ProjectConfig
import java.nio.file.Path
internal data class BootWorkspace(
val workspaceRoot: Path,
val workingDir: Path,
val workingDirWasClamped: Boolean,
)
internal fun resolveBootWorkspace(
explicitWorkspaceRoot: Path?,
explicitWorkingDir: Path?,
processWorkingDir: Path,
): BootWorkspace {
val workspaceRoot = (explicitWorkspaceRoot ?: explicitWorkingDir ?: processWorkingDir)
.toAbsolutePath()
.normalize()
val requestedWorkingDir = (explicitWorkingDir ?: workspaceRoot)
.toAbsolutePath()
.normalize()
val workingDirIsContained = requestedWorkingDir.startsWith(workspaceRoot)
return BootWorkspace(
workspaceRoot = workspaceRoot,
workingDir = requestedWorkingDir.takeIf { workingDirIsContained } ?: workspaceRoot,
workingDirWasClamped = !workingDirIsContained,
)
}
/** Keep repo-map observation and L3 project memory inside the authoritative boot workspace. */
internal fun ProjectConfig.boundToWorkspace(workspaceRoot: Path): ProjectConfig = copy(
root = workspaceRoot.toAbsolutePath().normalize().toString(),
)
@@ -83,6 +83,7 @@ import com.correx.core.events.types.SessionId
import com.correx.infrastructure.InfrastructureModule
import com.correx.infrastructure.inference.DefaultProviderRegistry
import com.correx.infrastructure.workflow.ExecutionPlanCompiler
import com.correx.infrastructure.workflow.Lsp4jDiagnosticsRunner
import com.correx.infrastructure.workflow.PlanLinter
import com.correx.infrastructure.inference.CapabilityAwareRoutingStrategy
import com.correx.infrastructure.inference.commons.ManagedInferenceRouter
@@ -296,6 +297,14 @@ fun main() {
})
}
val mcpTools = mountedMcpServers.flatMap { it.tools }
// Index the workspace into codebase-memory (#242) off the startup path — a fast index makes its
// search tools usable by the first session instead of failing "not indexed"; a slow index just
// means the first stage or two miss it, not a blocked boot.
if (mcpTools.any { it.name.endsWith("__index_repository") }) {
Thread {
runBlocking { bootstrapCodebaseIndex(mcpTools, workspaceRoot, log) }
}.apply { isDaemon = true; name = "mcp-index-bootstrap" }.start()
}
val extraTools = taskTools + toolOutputTool + mcpTools
val toolRegistry = InfrastructureModule.createToolRegistry(
buildToolConfig(
@@ -376,6 +385,7 @@ fun main() {
workspacePolicy = workspacePolicy,
workspaceToolRegistryProvider = wsToolRegistryProvider,
staticAnalysisRunner = ProcessStaticAnalysisRunner(),
lspDiagnosticsRunner = Lsp4jDiagnosticsRunner(),
contractAssertionEvaluator = FileSystemContractEvaluator(),
semanticReviewer = SemanticReviewerImpl(inferenceRouter),
)
@@ -456,6 +466,7 @@ fun main() {
maxClarificationRounds = maxClarificationRounds,
reviewBlockMinConfidence = reviewBlockMinConfidence,
reviewBlockRetryCap = reviewBlockRetryCap,
reviewLoopMaxCycles = reviewLoopMaxCycles,
defaultMaxRefinement = defaultMaxRefinement,
recoveryRouteBudget = recoveryRouteBudget,
intentRouteBudget = intentRouteBudget,
@@ -613,6 +624,20 @@ fun main() {
requestPlanApproval = { sid, planJson -> orchestrator.requestPlanApproval(sid, planJson) },
toolCapabilities = toolRegistry.all().associate { it.name to it.requiredCapabilities },
reflector = com.correx.apps.server.inference.CapabilityGapReflectorImpl(inferenceRouter),
// Return-to-architect: re-run the planning workflow from the architect stage so it emits a
// corrected plan after a grounding rejection. rehydrate before (architect needs the analyst's
// dod, evicted on the planning graph's completion) and after (the fresh execution_plan is
// evicted again when this re-run completes — lockAndRun's planContent must read it back).
rerunArchitect = { sid ->
orchestrator.rehydrate(sid)
val planningGraph = workflowRegistry.find("freestyle_planning")
?: error("freestyle_planning workflow not registered")
val result = orchestrator.runFrom(
sid, planningGraph, defaultOrchestrationConfig, com.correx.core.events.types.StageId("architect"),
)
orchestrator.rehydrate(sid)
result
},
)
// observability-spec §4: continuous health watch. Seed the monitor's last-status from the
// recorded system-session events so a restart doesn't re-emit a degraded already in the log.
@@ -0,0 +1,40 @@
package com.correx.apps.server
import com.correx.core.events.events.ToolRequest
import com.correx.core.events.types.SessionId
import com.correx.core.events.types.StageId
import com.correx.core.events.types.ToolInvocationId
import com.correx.core.tools.contract.Tool
import com.correx.core.tools.contract.ToolExecutor
import com.correx.core.tools.contract.ToolResult
import org.slf4j.Logger
import java.nio.file.Path
import java.util.UUID
/**
* Bootstraps the codebase-memory index for the boot workspace (#242): its search tools are dead on
* arrival ("project not found or not indexed") until `index_repository` runs once against the repo,
* and nothing in a workflow calls it. If a mounted MCP server advertises an `index_repository` tool
* we invoke it here, at working-dir open, with the workspace root — through the normal ToolExecutor
* path, so no special-casing.
*
* ponytail: single-workspace boot only, "fast" mode. When per-connection working dirs land, hang
* this off the WS-open hook as one entry in a bootstrap registry; one action doesn't earn a registry
* yet. "fast" skips similarity/semantic edges — quickest to ready; upgrade the mode if search recall
* proves thin.
*/
internal suspend fun bootstrapCodebaseIndex(mcpTools: List<Tool>, workspaceRoot: Path, log: Logger) {
val tool = mcpTools.firstOrNull { it.name.endsWith("__index_repository") } ?: return
val executor = tool as? ToolExecutor ?: return
val request = ToolRequest(
invocationId = ToolInvocationId(UUID.randomUUID().toString()),
sessionId = SessionId("boot"),
stageId = StageId("boot"),
toolName = tool.name,
parameters = mapOf("repo_path" to workspaceRoot.toString(), "mode" to "fast"),
)
when (val result = executor.execute(request)) {
is ToolResult.Success -> log.info("Indexed workspace into codebase-memory ({})", tool.name)
is ToolResult.Failure -> log.warn("codebase-memory index bootstrap failed: {}", result.reason)
}
}
@@ -380,10 +380,11 @@ class ServerModule(
// Record the repo map + seed prior-session memory before the run so stages
// see both in context.
projectMemory?.let { pm ->
val root = sessionWorkspaceRoot(sessionId)
runCatching {
pm.observeAndRecord(sessionId, pm.repoRoot())
pm.indexAndRecord(sessionId, pm.repoRoot())
pm.retrieveAndSeed(sessionId, pm.repoRoot())
pm.observeAndRecord(sessionId, root)
pm.indexAndRecord(sessionId, root)
pm.retrieveAndSeed(sessionId, root)
}
}
// Bind operator profile snapshot as an event so replay reads the recorded
@@ -416,7 +417,7 @@ class ServerModule(
val result = orchestrator.run(sessionId, graph, sessionConfig)
freestyleHandoff(sessionId, graph, result)
// Distil this run's decisions into durable project memory on completion.
projectMemory?.let { pm -> pm.persist(sessionId, pm.repoRoot()) }
projectMemory?.let { pm -> pm.persist(sessionId, sessionWorkspaceRoot(sessionId)) }
// Propose learned profile adaptations based on session journal (opt-in, never auto-applied).
operatorProfile?.let { profile ->
profileAdaptationService?.let { svc ->
@@ -498,6 +499,17 @@ class ServerModule(
* router chat triage, and replay read the recorded snapshot, never the live file
* (invariants #8/#9). Shared by the workflow path and the chat-session path.
*/
/**
* The session's bound workspace root — the same one the tool jail and [SessionWorkspaceBoundEvent]
* use. The repo-map/index/L3-memory pipeline MUST key off this, not [ProjectMemoryService.repoRoot]
* (a session-independent config/cwd default): when they diverge the repo map is computed for a
* different tree than the session operates in, so grounding "proves" real paths absent
* (session 5fe538f5, 2026-07-19). Falls back to the server default only when unbound.
*/
private fun sessionWorkspaceRoot(sessionId: SessionId): String =
runCatching { sessionRepository.getSession(sessionId).state.boundWorkspace?.workspaceRoot }
.getOrNull() ?: projectMemory?.repoRoot() ?: "."
suspend fun bindProjectProfile(sessionId: SessionId) {
val workspaceRoot = runCatching {
sessionRepository.getSession(sessionId).state.boundWorkspace?.workspaceRoot
@@ -1,5 +1,6 @@
package com.correx.apps.server.freestyle
import com.correx.core.events.events.ArtifactValidatedEvent
import com.correx.core.events.events.CapabilityGapDetectedEvent
import com.correx.core.events.events.CapabilityGapReflectedEvent
import com.correx.core.events.events.CapabilityGapVerdict
@@ -12,6 +13,7 @@ import com.correx.core.events.events.PlanGroundingVerdict
import com.correx.core.events.events.PlanLintCompletedEvent
import com.correx.core.events.events.ProjectProfileBoundEvent
import com.correx.core.events.events.RepoMapComputedEvent
import com.correx.core.events.events.WorkflowFailedEvent
import com.correx.infrastructure.workflow.PlanGrounder
import com.correx.core.tools.contract.ToolCapability
import com.correx.infrastructure.workflow.CapabilityGap
@@ -55,14 +57,28 @@ class FreestyleDriver(
// Vikunja #30 part 2: bounded LLM "are you sure?" pass over capability gaps, consulted before
// requestPlanApproval. Null = feature degrades to part-1 behavior (gaps recorded, never reflected).
private val reflector: CapabilityGapReflector? = null,
// Return-to-architect loop: on a grounding rejection, re-run the planning workflow from the
// architect stage so it emits a corrected plan (the grounding findings are injected into its
// context by buildGroundingFeedbackEntry). Null = no loop; grounding rejection is terminal.
private val rerunArchitect: (suspend (SessionId) -> WorkflowResult)? = null,
// Max grounding-driven architect re-runs before the plan is rejected for good.
private val maxGroundingRetries: Int = 2,
) {
@Suppress("ReturnCount") // sequential gate pipeline: each gate is a guard-return, same as the engines
suspend fun lockAndRun(sessionId: SessionId) {
// Return-to-architect loop: each pass compiles + gates the current execution_plan. A grounding
// rejection with budget left re-runs the architect (which emits a corrected plan) and loops;
// every other gate failure — and grounding once the budget is spent — is terminal.
var groundingRetries = 0
while (true) {
val json = planContent(sessionId) ?: run {
log.warn("freestyle: no execution_plan content for session={}", sessionId.value)
emitRejected(sessionId, "no execution_plan content produced by planning phase", "missing_content")
return
}
val graph = runCatching { compiler.compile(json, "freestyle-${sessionId.value}") }
val graph = runCatching {
compiler.compile(json, "freestyle-${sessionId.value}", sessionArtifacts(sessionId))
}
.getOrElse {
log.error("freestyle: plan failed to compile: {}", it.message)
emitRejected(sessionId, "plan failed to compile: ${it.message}", "compile")
@@ -83,9 +99,31 @@ class FreestyleDriver(
}
// Plan grounding (design 2026-07-15 seam 1) before lock: check the compiled plan against the
// session's recorded workspace facts (repo map + profile commands). A build stage aimed at a
// prerequisite nothing creates is doomed — reject now so it fails at stage 0, not after
// downstream files pile up. Deterministic + pure over recorded events (invariants #8/#9).
if (groundPlan(sessionId, graph)) return
// prerequisite nothing creates is doomed. Deterministic + pure over recorded events (#8/#9).
val groundingFailure = groundPlan(sessionId, graph)
if (groundingFailure != null) {
if (groundingRetries < maxGroundingRetries && rerunArchitect != null) {
groundingRetries++
log.info(
"freestyle: grounding returned plan to architect (attempt {}/{}) session={}: {}",
groundingRetries, maxGroundingRetries, sessionId.value, groundingFailure,
)
// Re-run the architect stage; it sees the recorded grounding findings via
// buildGroundingFeedbackEntry and emits a corrected plan. Then loop and re-gate.
rerunArchitect.invoke(sessionId)
continue
}
log.warn("freestyle: plan failed grounding for session={}: {}", sessionId.value, groundingFailure)
emitRejected(sessionId, "plan failed grounding: $groundingFailure", "grounding")
return
}
lockAndRunGrounded(sessionId, graph, json)
return
}
}
/** Post-grounding tail of [lockAndRun]: capability gaps, plan-approval, lock, phase-2 handoff. */
private suspend fun lockAndRunGrounded(sessionId: SessionId, graph: WorkflowGraph, json: String) {
// Capability-gap detector (Vikunja #30 part 1): advisory only — recorded, never blocking.
// A gap does not fail the gate and does not grant the missing tool (invariants #3/#4/#5).
val gaps = CapabilityGapDetector.detect(graph, toolCapabilities)
@@ -137,23 +175,33 @@ class FreestyleDriver(
*/
fun compiledGraph(sessionId: SessionId): WorkflowGraph? {
val json = planContent(sessionId) ?: return null
return runCatching { compiler.compile(json, "freestyle-${sessionId.value}") }
return runCatching { compiler.compile(json, "freestyle-${sessionId.value}", sessionArtifacts(sessionId)) }
.onFailure { log.error("freestyle: plan recompile for resume failed: {}", it.message) }
.getOrNull()
}
/** Artifact ids validated earlier in the session (e.g. planning-phase `dod`) for the #264 needs seam. */
private fun sessionArtifacts(sessionId: SessionId): Set<String> =
eventStore.read(sessionId)
.mapNotNull { (it.payload as? ArtifactValidatedEvent)?.artifactId?.value }
.toSet()
/**
* Grounds [graph] against recorded workspace facts and emits [PlanGroundingEvaluatedEvent].
* Returns true if the plan was rejected (caller must stop before lock). Missing repo map/profile
* (fresh session, no scan) grounds vacuously — an empty path set with the manifest-produced-by-plan
* check still catches the "build with nothing to build" case.
* Returns null when the plan grounds (PASS), else the findings summary — the caller decides
* whether to return the plan to architect or reject it. Missing repo map/profile (fresh session,
* no scan) grounds vacuously; the manifest-produced-by-plan check still catches "build with
* nothing to build".
*/
private suspend fun groundPlan(sessionId: SessionId, graph: WorkflowGraph): Boolean {
private suspend fun groundPlan(sessionId: SessionId, graph: WorkflowGraph): String? {
val events = eventStore.read(sessionId)
val repoMap = events.mapNotNull { it.payload as? RepoMapComputedEvent }.lastOrNull()
val profile = events.mapNotNull { it.payload as? ProjectProfileBoundEvent }.lastOrNull()
val paths = repoMap?.entries?.map { it.path }?.toSet().orEmpty()
val result = PlanGrounder.ground(graph, paths, profile?.commands.orEmpty())
// No RepoMapComputedEvent = no scan ran, so `paths` is unknown, not "empty workspace".
// Tell the grounder not to prove paths absent from a set it never observed (the false
// "apps/server/** doesn't exist" reject); the build-manifest check still runs.
val result = PlanGrounder.ground(graph, paths, profile?.commands.orEmpty(), scanned = repoMap != null)
eventStore.append(
NewEvent(
metadata = EventMetadata(
@@ -173,11 +221,8 @@ class FreestyleDriver(
),
),
)
if (result.verdict == PlanGroundingVerdict.PASS) return false
val summary = result.findings.joinToString("; ")
log.warn("freestyle: plan failed grounding for session={}: {}", sessionId.value, summary)
emitRejected(sessionId, "plan failed grounding: $summary", "grounding")
return true
if (result.verdict == PlanGroundingVerdict.PASS) return null
return result.findings.joinToString("; ")
}
private suspend fun emitPlanLint(sessionId: SessionId, candidateId: String, lint: PlanLintResult) {
@@ -307,6 +352,28 @@ class FreestyleDriver(
),
),
)
// A rejected plan ends the session — but the last workflow verdict on record was the
// planning phase's WorkflowCompleted, so the session read as SUCCESS (the "COMPLETED-lie").
// Emit a session-terminal WorkflowFailed so the run's true outcome is on the log. stageId is
// architect: the plan's producer and where a fix (or future return-to-architect loop) lands.
eventStore.append(
NewEvent(
metadata = EventMetadata(
eventId = EventId(UUID.randomUUID().toString()),
sessionId = sessionId,
timestamp = Clock.System.now(),
schemaVersion = 1,
causationId = null,
correlationId = null,
),
payload = WorkflowFailedEvent(
sessionId = sessionId,
stageId = StageId("architect"),
reason = "execution plan rejected ($source): $reason",
retryExhausted = false,
),
),
)
}
companion object {
@@ -0,0 +1,38 @@
package com.correx.apps.server.routes
import com.correx.apps.server.ServerModule
import com.correx.core.events.events.ClarificationAnswer
import com.correx.core.events.types.SessionId
import com.correx.core.utils.TypeId
import io.ktor.http.HttpStatusCode
import io.ktor.server.request.receive
import io.ktor.server.response.respond
import io.ktor.server.routing.Route
import io.ktor.server.routing.post
import kotlinx.serialization.Serializable
// REST parity for stage clarifications (WS already has ClientMessage.ClarificationResponse). Keyed by
// session — the server resolves the live pending (stageId, requestId) so a headless run (a script,
// `correx run`) can clear a discovery-stage clarification without a WebSocket. If the caller omits the
// answer for a question, its value is the empty string (free-text skip). Fixes Vikunja #42.
@Serializable
data class ClarifyStageRequest(val answers: List<ClarificationAnswer>)
internal fun Route.clarifyStageRoute(module: ServerModule) {
post("/clarify") {
val id = call.parameters["id"]
if (id == null) {
call.respond(HttpStatusCode.BadRequest, "Missing session id")
return@post
}
val sessionId: SessionId = TypeId(id)
val pending = module.orchestrator.pendingClarificationFor(sessionId)
if (pending == null) {
call.respond(HttpStatusCode.NotFound, "No pending clarification for session $id")
return@post
}
val answers = call.receive<ClarifyStageRequest>().answers
module.orchestrator.submitClarification(sessionId, pending.stageId, pending.requestId, answers)
call.respond(HttpStatusCode.OK)
}
}
@@ -100,6 +100,7 @@ fun Route.sessionRoutes(module: ServerModule) {
getSessionRoute(module)
cancelSessionRoute(module)
approveStageRoute(module)
clarifyStageRoute(module)
approveSourcesRoute(module)
undoSessionRoute(module)
resumeSessionRoute(module)
@@ -0,0 +1,61 @@
package com.correx.apps.server
import com.correx.core.config.ProjectConfig
import java.nio.file.Path
import kotlin.test.assertEquals
import kotlin.test.assertFalse
import kotlin.test.assertTrue
import org.junit.jupiter.api.Test
class BootWorkspaceTest {
@Test
fun `workspace root clamps an outside configured working directory`() {
val resolved = resolveBootWorkspace(
explicitWorkspaceRoot = Path.of("/tmp/audition"),
explicitWorkingDir = Path.of("/home/user/repo"),
processWorkingDir = Path.of("/home/user/repo"),
)
assertEquals(Path.of("/tmp/audition"), resolved.workspaceRoot)
assertEquals(Path.of("/tmp/audition"), resolved.workingDir)
assertTrue(resolved.workingDirWasClamped)
}
@Test
fun `working directory inside workspace root remains intact`() {
val resolved = resolveBootWorkspace(
explicitWorkspaceRoot = Path.of("/tmp/audition"),
explicitWorkingDir = Path.of("/tmp/audition/frontend"),
processWorkingDir = Path.of("/home/user/repo"),
)
assertEquals(Path.of("/tmp/audition"), resolved.workspaceRoot)
assertEquals(Path.of("/tmp/audition/frontend"), resolved.workingDir)
assertFalse(resolved.workingDirWasClamped)
}
@Test
fun `configured working directory supplies the root when workspace root is absent`() {
val resolved = resolveBootWorkspace(
explicitWorkspaceRoot = null,
explicitWorkingDir = Path.of("/tmp/configured"),
processWorkingDir = Path.of("/home/user/repo"),
)
assertEquals(Path.of("/tmp/configured"), resolved.workspaceRoot)
assertEquals(Path.of("/tmp/configured"), resolved.workingDir)
assertFalse(resolved.workingDirWasClamped)
}
@Test
fun `project memory root follows the authoritative workspace root`() {
val configured = ProjectConfig(
enabled = true,
root = "/home/user/repo",
)
val resolved = configured.boundToWorkspace(Path.of("/tmp/audition/../audition"))
assertEquals("/tmp/audition", resolved.root)
}
}
@@ -0,0 +1,47 @@
package com.correx.apps.server
import com.correx.core.approvals.Tier
import com.correx.core.events.events.ToolRequest
import com.correx.core.tools.contract.Tool
import com.correx.core.tools.contract.ToolCapability
import com.correx.core.tools.contract.ToolExecutor
import com.correx.core.tools.contract.ToolResult
import com.correx.core.tools.contract.ValidationResult
import kotlinx.coroutines.runBlocking
import kotlinx.serialization.json.JsonObject
import org.junit.jupiter.api.Test
import org.slf4j.LoggerFactory
import java.nio.file.Path
import kotlin.test.assertEquals
import kotlin.test.assertNull
class McpIndexBootstrapTest {
private val log = LoggerFactory.getLogger("test")
private class FakeTool(override val name: String) : Tool, ToolExecutor {
var seen: ToolRequest? = null
override val description = ""
override val parametersSchema = JsonObject(emptyMap())
override val tier = Tier.T2
override val requiredCapabilities = emptySet<ToolCapability>()
override fun validateRequest(request: ToolRequest) = ValidationResult.Valid
override suspend fun execute(request: ToolRequest): ToolResult {
seen = request
return ToolResult.Success(request.invocationId, "indexed")
}
}
@Test
fun `calls index_repository with repo_path set to the workspace root`() = runBlocking {
val index = FakeTool("mcp__codebase-memory__index_repository")
bootstrapCodebaseIndex(listOf(FakeTool("mcp__x__search_code"), index), Path.of("/repo"), log)
assertEquals("/repo", index.seen?.parameters?.get("repo_path"))
}
@Test
fun `no-op when no index_repository tool is mounted`() = runBlocking {
val other = FakeTool("mcp__x__search_code")
bootstrapCodebaseIndex(listOf(other), Path.of("/repo"), log)
assertNull(other.seen)
}
}
@@ -6,9 +6,14 @@ import com.correx.core.artifacts.kind.JsonSchema
import com.correx.core.events.events.CapabilityGapDetectedEvent
import com.correx.core.events.events.CapabilityGapReflectedEvent
import com.correx.core.events.events.CapabilityGapVerdict
import com.correx.core.events.events.EventMetadata
import com.correx.core.events.events.ExecutionPlanLockedEvent
import com.correx.core.events.events.ExecutionPlanRejectedEvent
import com.correx.core.events.events.NewEvent
import com.correx.core.events.events.PlanLintCompletedEvent
import com.correx.core.events.events.RepoMapComputedEvent
import com.correx.core.events.events.RepoMapEntry
import com.correx.core.events.types.EventId
import com.correx.core.events.types.SessionId
import com.correx.core.kernel.execution.WorkflowResult
import com.correx.core.kernel.orchestration.CapabilityGapReflection
@@ -18,6 +23,8 @@ import com.correx.core.transitions.graph.WorkflowGraph
import com.correx.infrastructure.persistence.InMemoryEventStore
import com.correx.infrastructure.workflow.ExecutionPlanCompiler
import kotlinx.coroutines.runBlocking
import kotlinx.datetime.Clock
import java.util.UUID
import org.junit.jupiter.api.Assertions.assertEquals
import org.junit.jupiter.api.Assertions.assertFalse
import org.junit.jupiter.api.Assertions.assertTrue
@@ -471,4 +478,121 @@ class FreestyleDriverTest {
assertTrue(payloads.filterIsInstance<CapabilityGapReflectedEvent>().isEmpty())
assertEquals(1, payloads.filterIsInstance<ExecutionPlanLockedEvent>().size)
}
// "apply" is scoped to frontend/** — with a scan recorded whose only path is backend/, and no
// stage creating a frontend file, scope grounding fails (RETURN_TO_ARCHITECT). Passes lint.
private val groundingFailPlanJson = """
{
"goal": "plan scoped to a path that doesn't exist",
"stages": [
{ "id": "analyse", "prompt": "Analyse", "produces": "patch", "needs": [], "tools": [] },
{ "id": "apply", "prompt": "Apply", "produces": "patch", "needs": ["patch"], "tools": [],
"touches": ["frontend/**"] }
],
"edges": [
{ "from": "analyse", "to": "apply", "condition": { "type": "always_true" } },
{ "from": "apply", "to": "done", "condition": { "type": "always_true" } }
]
}
""".trimIndent()
// Records a scan (scanned=true) whose only path is backend/, so frontend/** grounds to nothing.
private suspend fun recordBackendScan(store: InMemoryEventStore, sessionId: SessionId) {
store.append(
NewEvent(
metadata = EventMetadata(
eventId = EventId(UUID.randomUUID().toString()),
sessionId = sessionId,
timestamp = Clock.System.now(),
schemaVersion = 1,
causationId = null,
correlationId = null,
),
payload = RepoMapComputedEvent(
sessionId = sessionId,
repoRoot = "/ws",
entries = listOf(RepoMapEntry(path = "backend/main.kt", score = 1.0)),
computedAt = Clock.System.now(),
),
),
)
}
@Test
fun `grounding failure returns plan to architect then locks once the re-run yields a grounded plan`(): Unit =
runBlocking {
val sessionId = SessionId("driver-grounding-retry-session")
val eventStore = InMemoryEventStore()
val compiler = ExecutionPlanCompiler(buildRegistry())
recordBackendScan(eventStore, sessionId)
var corrected = false
var rerunInvocations = 0
var runPhase2Invocations = 0
val driver = FreestyleDriver(
eventStore = eventStore,
compiler = compiler,
// Fails grounding until the architect re-run "fixes" it (flips to the unconstrained plan).
planContent = { if (corrected) validPlanJson else groundingFailPlanJson },
config = OrchestrationConfig(),
runPhase2 = { sid, graph, _ ->
runPhase2Invocations++
WorkflowResult.Completed(sid, graph.start)
},
rerunArchitect = { sid ->
rerunInvocations++
corrected = true
WorkflowResult.Completed(sid, com.correx.core.events.types.StageId("architect"))
},
)
driver.lockAndRun(sessionId)
assertEquals(1, rerunInvocations, "architect should be re-run exactly once")
val payloads = eventStore.read(sessionId).map { it.payload }
assertEquals(1, payloads.filterIsInstance<ExecutionPlanLockedEvent>().size, "corrected plan should lock")
assertEquals(1, runPhase2Invocations, "runPhase2 should run once on the corrected plan")
assertTrue(
payloads.filterIsInstance<ExecutionPlanRejectedEvent>().isEmpty(),
"no rejection once the re-run grounds",
)
}
@Test
fun `grounding failure that never resolves is rejected with source grounding after exhausting retries`(): Unit =
runBlocking {
val sessionId = SessionId("driver-grounding-exhaust-session")
val eventStore = InMemoryEventStore()
val compiler = ExecutionPlanCompiler(buildRegistry())
recordBackendScan(eventStore, sessionId)
var rerunInvocations = 0
var runPhase2Invocations = 0
val driver = FreestyleDriver(
eventStore = eventStore,
compiler = compiler,
planContent = { groundingFailPlanJson }, // never corrected
config = OrchestrationConfig(),
runPhase2 = { sid, graph, _ ->
runPhase2Invocations++
WorkflowResult.Completed(sid, graph.start)
},
rerunArchitect = { sid ->
rerunInvocations++
WorkflowResult.Completed(sid, com.correx.core.events.types.StageId("architect"))
},
maxGroundingRetries = 2,
)
driver.lockAndRun(sessionId)
assertEquals(2, rerunInvocations, "architect re-run should be capped at maxGroundingRetries")
assertEquals(0, runPhase2Invocations, "runPhase2 must not run when grounding never clears")
val payloads = eventStore.read(sessionId).map { it.payload }
assertTrue(payloads.filterIsInstance<ExecutionPlanLockedEvent>().isEmpty(), "never locks")
val rejected = payloads.filterIsInstance<ExecutionPlanRejectedEvent>().single()
assertEquals("grounding", rejected.source)
}
}
+1
View File
@@ -24,6 +24,7 @@ CORREX kernel team. Config schema changes affect all consumers — coordinate wi
- `ConfigHolder` is the shared mutable reference injected into consumers. Never read the file directly in domain code — always go through `ConfigHolder`.
- `CorrexConfigWriter` regenerates TOML from the in-memory model; round-tripping loses comments by design.
- `[git]` is opt-in server transport configuration (`enabled`, `remote`, `base_branch`, optional `author`); it is off by default.
- `[orchestration].review_loop_max_cycles` bounds review→rework cycles before recovery escalation; default `3`.
- `ModelConfig.contextSize` defaults to 24,576 tokens; explicit `context_size` remains the operator override for smaller local-model windows.
## Verification
@@ -217,6 +217,7 @@ object ConfigLoader {
private const val DEFAULT_MAX_CLARIFICATION_ROUNDS = 3
private const val DEFAULT_REVIEW_BLOCK_MIN_CONFIDENCE = 0.7
private const val DEFAULT_REVIEW_BLOCK_RETRY_CAP = 20
private const val DEFAULT_REVIEW_LOOP_MAX_CYCLES = 3
private const val DEFAULT_MAX_REFINEMENT = 3
private const val DEFAULT_RECOVERY_ROUTE_BUDGET = 2
private const val DEFAULT_INTENT_ROUTE_BUDGET = 2
@@ -716,6 +717,8 @@ object ConfigLoader {
reviewBlockMinConfidence =
asDouble(orchestrationSection["review_block_min_confidence"], DEFAULT_REVIEW_BLOCK_MIN_CONFIDENCE),
reviewBlockRetryCap = asInt(orchestrationSection["review_block_retry_cap"], DEFAULT_REVIEW_BLOCK_RETRY_CAP),
reviewLoopMaxCycles =
asInt(orchestrationSection["review_loop_max_cycles"], DEFAULT_REVIEW_LOOP_MAX_CYCLES),
defaultMaxRefinement = asInt(orchestrationSection["default_max_refinement"], DEFAULT_MAX_REFINEMENT),
recoveryRouteBudget = asInt(orchestrationSection["recovery_route_budget"], DEFAULT_RECOVERY_ROUTE_BUDGET),
intentRouteBudget = asInt(orchestrationSection["intent_route_budget"], DEFAULT_INTENT_ROUTE_BUDGET),
@@ -130,6 +130,8 @@ data class OrchestrationKnobs(
val maxClarificationRounds: Int = 3,
val reviewBlockMinConfidence: Double = 0.7,
val reviewBlockRetryCap: Int = 20,
/** Review→rework cycles before deterministic escalation to the recovery stage. */
val reviewLoopMaxCycles: Int = 3,
val defaultMaxRefinement: Int = 3,
val recoveryRouteBudget: Int = 2,
val intentRouteBudget: Int = 2,
@@ -98,6 +98,7 @@ object CorrexConfigWriter {
b.kv("max_clarification_rounds", cfg.orchestration.maxClarificationRounds)
b.kv("review_block_min_confidence", cfg.orchestration.reviewBlockMinConfidence)
b.kv("review_block_retry_cap", cfg.orchestration.reviewBlockRetryCap)
b.kv("review_loop_max_cycles", cfg.orchestration.reviewLoopMaxCycles)
b.kv("default_max_refinement", cfg.orchestration.defaultMaxRefinement)
b.kv("recovery_route_budget", cfg.orchestration.recoveryRouteBudget)
b.kv("intent_route_budget", cfg.orchestration.intentRouteBudget)
+1
View File
@@ -20,6 +20,7 @@ CORREX kernel team. This is the most cross-cutting module in the codebase — ch
- `JsonEventSerializer` / `EventSerializer` — serialize/deserialize `StoredEvent` to JSON.
- `EventDispatcher` — broadcasts events to in-process listeners.
- Domain event files: `ApprovalEvents`, `ArtifactEvents`, `ContextEvents`, `InferenceEvents`, `OrchestrationEvents`, `RouterEvents`, `SessionEvents`, `TaskEvents`, `ToolEvents`, `IntentEvents`, `RiskAssessedEvent`, `JournalCompactedEvent`, and many more — all payload definitions live here.
- `LspDiagnosticsCompletedEvent` records pulled language-server diagnostics or a graceful skip reason; replay consumes this observation and never contacts the server.
- Shared vocabulary: `IdentityTypes` (SessionId, TaskId, etc.), `Tier`, `TokenUsage`, `ToolReceipt`, `ToolRequest`, `RiskLevel`, `RetryPolicy`, `GrantScope`, `GrantLedger`.
## Work Guidance
@@ -0,0 +1,27 @@
package com.correx.core.events.events
import com.correx.core.events.types.SessionId
import com.correx.core.events.types.StageId
import kotlinx.serialization.SerialName
import kotlinx.serialization.Serializable
@Serializable
data class LspDiagnostic(
val path: String,
val line: Int,
val character: Int,
val severity: String,
val code: String? = null,
val message: String,
)
/** Recorded LSP 3.17 pull-diagnostic observation; replay never re-queries a language server. */
@Serializable
@SerialName("LspDiagnosticsCompleted")
data class LspDiagnosticsCompletedEvent(
val sessionId: SessionId,
val stageId: StageId,
val server: String?,
val diagnostics: List<LspDiagnostic>,
val skippedReason: String? = null,
) : EventPayload
@@ -16,6 +16,7 @@ import com.correx.core.events.events.BriefEchoMismatchEvent
import com.correx.core.events.events.BriefGroundingCheckedEvent
import com.correx.core.events.events.ConceptPromotedEvent
import com.correx.core.events.events.StaticAnalysisCompletedEvent
import com.correx.core.events.events.LspDiagnosticsCompletedEvent
import com.correx.core.events.events.ContractGateEvaluatedEvent
import com.correx.core.events.events.PlanLintCompletedEvent
import com.correx.core.events.events.ChatSessionStartedEvent
@@ -173,6 +174,7 @@ val eventModule = SerializersModule {
subclass(BriefGroundingCheckedEvent::class)
subclass(BriefEchoMismatchEvent::class)
subclass(StaticAnalysisCompletedEvent::class)
subclass(LspDiagnosticsCompletedEvent::class)
subclass(ContractGateEvaluatedEvent::class)
subclass(PlanLintCompletedEvent::class)
subclass(RiskAssessedEvent::class)
@@ -0,0 +1,23 @@
package com.correx.core.events.serialization
import com.correx.core.events.events.LspDiagnostic
import com.correx.core.events.events.LspDiagnosticsCompletedEvent
import com.correx.core.events.types.SessionId
import com.correx.core.events.types.StageId
import kotlin.test.Test
import kotlin.test.assertEquals
import kotlin.test.assertIs
class LspDiagnosticsCompletedEventSerializationTest {
@Test
fun `round-trips as polymorphic EventPayload`() {
val event = LspDiagnosticsCompletedEvent(
SessionId("s"), StageId("impl"), "tsserver",
listOf(LspDiagnostic("src/App.tsx", 1, 2, "error", "2322", "not assignable")),
)
val encoded = eventJson.encodeToString(com.correx.core.events.events.EventPayload.serializer(), event)
val decoded = eventJson.decodeFromString(com.correx.core.events.events.EventPayload.serializer(), encoded)
assertIs<LspDiagnosticsCompletedEvent>(decoded)
assertEquals("src/App.tsx", decoded.diagnostics.single().path)
}
}
+2
View File
@@ -19,6 +19,8 @@ CORREX kernel team. This is the integration point for all other `core/` modules.
- `ReplayOrchestrator` / `ReplayInferenceProvider` / `ReplayStrategy` — deterministic replay of a session from its event log. `ReplayInferenceProvider` returns recorded responses — no live LLM (Hard Invariant #8).
- `SubagentRunner` / `InSessionSubagentRunner` — runs sub-agent invocations within an active session.
- `StaticAnalysisRunner` / `ProcessStaticAnalysisRunner` — runs static analysis tools and records results as events.
- `LspDiagnosticsRunner` — injected pull-diagnostics seam; diagnostics are filtered to stage-written files, recorded, and enforced before build/review.
- Review→rework loops use the configured three-cycle default, then route accumulated notes to recovery once and fail if the fixed DoD still cannot be approved.
- `StageCheckpointReconciler` — reconciles checkpoint state across stage transitions.
- Capability-gated failures first retry in place when the stage holds the required tool; an unchanged-fingerprint gate-budget exhaustion routes to the recovery/intent-holder stage when one is available, so capability possession alone cannot cause a frozen owner loop to fail the workflow.
- Three repeated `REFERENCE_EXISTS` blocks for the same build prerequisite within one stage become a `workspace_precondition` gate failure, which is eligible for file-write recovery rather than remaining disconnected tool-call noise.
@@ -10,6 +10,8 @@ import com.correx.core.context.model.ContextLayer
import com.correx.core.context.model.EntryRole
import com.correx.core.events.events.FailureTicketOpenedEvent
import com.correx.core.events.events.InitialIntentEvent
import com.correx.core.events.events.PlanGroundingEvaluatedEvent
import com.correx.core.events.events.PlanGroundingVerdict
import com.correx.core.events.events.RefinementIterationEvent
import com.correx.core.events.events.RetryAttemptedEvent
import com.correx.core.events.events.StoredEvent
@@ -40,6 +42,35 @@ fun buildRetryFeedbackEntry(events: List<StoredEvent>, stageId: StageId): Contex
)
}
/**
* Feeds the deterministic plan-grounding findings back into the architect stage when the freestyle
* driver returned its plan for another attempt (grounding verdict != PASS). The findings are already
* recorded on [PlanGroundingEvaluatedEvent] (invariant #9), so this reads them rather than re-deriving.
* Gated to the plan-producing stage — "architect" in freestyle_planning, the same stage id the driver
* stamps on rejection. Last event wins: a re-run that grounds PASS clears the feedback automatically.
*/
fun buildGroundingFeedbackEntry(events: List<StoredEvent>, stageId: StageId): ContextEntry? {
if (stageId.value != "architect") return null
val latest = events.mapNotNull { it.payload as? PlanGroundingEvaluatedEvent }.lastOrNull() ?: return null
if (latest.verdict == PlanGroundingVerdict.PASS) return null
val content = "## Plan grounding feedback\n" +
"Your previous execution_plan was returned — it does not hold against the workspace facts:\n" +
latest.findings.joinToString("\n") { "- $it" } + "\n" +
"Emit a corrected plan that resolves every point above. Typical fixes: declare the manifest a " +
"build stage needs (have an earlier stage create it via `writes`/`expectedFiles`), narrow a " +
"stage's `touches` to paths that exist or that an earlier stage creates, or drop a build stage " +
"that has nothing to build. Do not repeat the identical plan."
return ContextEntry(
id = ContextEntryId(UUID.randomUUID().toString()),
layer = ContextLayer.L1,
content = content,
sourceType = "groundingFeedback",
sourceId = stageId.value,
tokenEstimate = content.length / 4,
role = EntryRole.SYSTEM,
)
}
/**
* Feeds the open failure ticket into the recovery stage's context. The recovery stage was entered
* by kernel routing (not a normal edge) precisely because an upstream write-less stage failed a gate
@@ -51,10 +82,24 @@ fun buildRecoveryTicketEntry(events: List<StoredEvent>, stageId: StageId): Conte
val ticket = events
.mapNotNull { it.payload as? FailureTicketOpenedEvent }
.lastOrNull { it.routeTo == stageId } ?: return null
val content = if (ticket.escalated) {
val intent = events.mapNotNull { it.payload as? InitialIntentEvent }.lastOrNull()?.intent
val content = if (ticket.gate == STAGE_LOOP_BREAK_GATE) {
// A stuck-loop route is NOT a cross-file contract dispute — the gate output names no files, it
// is the SAME action (often a malformed tool call) repeated until the loop-break tripped. The
// arbitration prompt (read/reconcile the named files) sends the model hunting for files that
// don't exist. Tell it plainly: the last action is futile, take a materially different one.
"## Stuck-loop ticket\n" +
"Stage '${ticket.stageId.value}' repeated the SAME failing action until it tripped the " +
"'${ticket.gate}' gate. Retrying that action again is futile — it will fail identically. The " +
"exact failure is below; it is a single stuck step, NOT a dispute between files, so do not go " +
"looking for files to reconcile. If it is a malformed tool call, fix the call's shape and " +
"continue the task; otherwise take a materially different route to the same goal. Serve the " +
"intent" + (intent?.let { " below" } ?: "") + ", then control returns to verification." +
(intent?.let { "\n### Intent (authoritative)\n$it" } ?: "") +
"\n### Gate output (the failing action)\n${ticket.evidence}"
} else if (ticket.escalated) {
// Tier 2: the owner loop couldn't settle it — a cross-file contract dispute. The arbiter holds
// the intent and reconciles ALL sides in one pass.
val intent = events.mapNotNull { it.payload as? InitialIntentEvent }.lastOrNull()?.intent
"## Contract arbitration ticket\n" +
"Stage '${ticket.stageId.value}' keeps failing the '${ticket.gate}' gate even after the " +
"file owners repaired their own layers — so this is NOT a bug in one file. The files named " +
@@ -15,6 +15,7 @@ import com.correx.core.events.events.OrchestrationResumedEvent
import com.correx.core.events.events.SteeringNoteAddedEvent
import com.correx.core.events.events.StoredEvent
import com.correx.core.events.events.TransitionExecutedEvent
import com.correx.core.events.events.WorkflowStartedEvent
import com.correx.core.events.orchestration.OrchestrationState
import com.correx.core.events.types.ApprovalDecisionId
import com.correx.core.events.types.ApprovalRequestId
@@ -130,15 +131,30 @@ class DefaultSessionOrchestrator(
sessionId: SessionId,
graph: WorkflowGraph,
config: OrchestrationConfig,
): WorkflowResult {
log.debug("[Orchestrator] session={} workflow={} start={}", sessionId.value, graph.id, graph.start.value)
emitWorkflowStarted(sessionId, graph, config)
): WorkflowResult = runFrom(sessionId, graph, config, graph.start)
val base = ExecutionContext(graph, sessionId, 0, graph.start, config, null, null)
/**
* Runs [graph] entering at [startStage] instead of [graph].start. Used by the freestyle
* return-to-architect loop to re-enter just the plan-producing stage (with grounding feedback
* already in its L1 context) without redoing discovery/analyst. [startStage] must be in [graph].
*/
suspend fun runFrom(
sessionId: SessionId,
graph: WorkflowGraph,
config: OrchestrationConfig,
startStage: StageId,
): WorkflowResult {
require(graph.stages.containsKey(startStage)) {
"startStage '${startStage.value}' is not a stage of workflow '${graph.id}'"
}
log.debug("[Orchestrator] session={} workflow={} start={}", sessionId.value, graph.id, startStage.value)
emitWorkflowStarted(sessionId, graph, config, startStage)
val base = ExecutionContext(graph, sessionId, 0, startStage, config, null, null)
val enriched = base.enrich()
// Execute the start stage before entering the step loop
return when (val result = enterStage(enriched, graph.start)) {
return when (val result = enterStage(enriched, startStage)) {
is StepResult.Continue -> step(result.ctx)
is StepResult.Terminal -> result.result
}
@@ -226,8 +242,8 @@ class DefaultSessionOrchestrator(
/**
* Delivers the operator's answers to a pending clarification raised by a stage. The waiting
* stage (parked in [requestClarificationIfNeeded]) completes and re-runs with the answers in
* context. If the server restarted while the clarification was pending there is no live
* stage (parked in [requestClarificationIfNeeded]) unparks and the run advances to the next
* stage with the answers in context. If the server restarted while the clarification was pending there is no live
* coroutine to complete, so the answers are recorded directly and the session resumed.
*/
suspend fun submitClarification(
@@ -280,10 +296,17 @@ class DefaultSessionOrchestrator(
)
}
// A back-edge re-enters a stage already transitioned into this run (e.g. reviewer→implementer).
// A back-edge re-enters any stage already visited this run (e.g. reviewer→implementer). The start
// stage is visited via WorkflowStarted rather than TransitionExecuted, so it must participate too.
// Top-level (not a member) to keep the orchestrator off the TooManyFunctions threshold.
internal fun isBackEdge(events: List<StoredEvent>, target: StageId): Boolean =
events.any { (it.payload as? TransitionExecutedEvent)?.to == target }
events.any {
when (val payload = it.payload) {
is WorkflowStartedEvent -> payload.startStageId == target
is TransitionExecutedEvent -> payload.to == target
else -> false
}
}
internal sealed class StepResult {
data class Continue(val ctx: EnrichedExecutionContext) : StepResult()
@@ -5,6 +5,7 @@ import com.correx.core.artifacts.ArtifactState
import com.correx.core.events.events.ApprovalDecisionResolvedEvent
import com.correx.core.events.events.ApprovalRequestedEvent
import com.correx.core.events.events.ArtifactValidatedEvent
import com.correx.core.events.events.FailureTicketOpenedEvent
import com.correx.core.events.events.RefinementIterationEvent
import com.correx.core.events.events.RetrySalvageDecidedEvent
import com.correx.core.events.events.SalvageDecision
@@ -135,6 +136,7 @@ internal tailrec suspend fun DefaultSessionOrchestrator.step(ctx: EnrichedExecut
* re-execute the same stage if attempts remain, else fail terminally with retryExhausted=true.
*/
@Suppress("LongMethod", "ReturnCount", "NestedBlockDepth")
internal suspend fun DefaultSessionOrchestrator.executeMove(
ctx: EnrichedExecutionContext,
decision: TransitionDecision.Move,
@@ -154,10 +156,43 @@ internal suspend fun DefaultSessionOrchestrator.executeMove(
// terminal failure instead of looping forever.
if (isBackEdge(repositories.eventStore.read(ctx.sessionId), nextStageId)) {
val cycleKey = "${ctx.currentStageId.value}->${nextStageId.value}"
val maxIterations = ctx.graph.stages[nextStageId]?.maxRetries ?: tuning.defaultMaxRefinement
val reviewerRole = ctx.graph.stages[ctx.currentStageId]?.metadata?.get("role")?.lowercase()
val reviewLoop = reviewerRole in setOf("review", "reviewer")
val maxIterations = if (reviewLoop) {
tuning.reviewLoopMaxCycles
} else {
ctx.graph.stages[nextStageId]?.maxRetries ?: tuning.defaultMaxRefinement
}
val iteration = (orchestrationRepository.getState(ctx.sessionId).refinementIterations[cycleKey] ?: 0) + 1
emit(ctx.sessionId, RefinementIterationEvent(ctx.sessionId, cycleKey, iteration, maxIterations))
if (iteration > maxIterations) {
if (reviewLoop) {
val events = repositories.eventStore.read(ctx.sessionId)
val alreadyRecovered = events.mapNotNull { it.payload as? FailureTicketOpenedEvent }
.any { it.gate == REVIEW_LOOP_GATE && it.stageId == ctx.currentStageId }
val notes = ctx.graph.stages[ctx.currentStageId]?.produces
?.mapNotNull { artifactContentCache["${ctx.sessionId.value}:${it.name.value}"] }
?.joinToString("\n\n")
.orEmpty()
val reason = "review loop exhausted after exactly $maxIterations cycles. " +
"The fixed DoD was not approved. Accumulated review notes:\n" +
notes.ifBlank { "(review stage emitted no retained notes)" }
if (!alreadyRecovered) {
return routeToRecovery(
ctx,
ctx.currentStageId,
REVIEW_LOOP_GATE,
"review_convergence",
reason,
orchestrationRepository.getState(ctx.sessionId),
) ?: StepResult.Terminal(
failWorkflow(ctx.sessionId, ctx.currentStageId, reason, retryExhausted = true),
)
}
return StepResult.Terminal(
failWorkflow(ctx.sessionId, ctx.currentStageId, reason, retryExhausted = true),
)
}
return StepResult.Terminal(
failWorkflow(
ctx.sessionId,
@@ -179,6 +214,8 @@ internal suspend fun DefaultSessionOrchestrator.executeMove(
}
}
private const val REVIEW_LOOP_GATE = "review_loop"
@Suppress("ReturnCount")
internal suspend fun DefaultSessionOrchestrator.enterStage(
ctx: EnrichedExecutionContext,
@@ -224,11 +261,13 @@ internal suspend fun DefaultSessionOrchestrator.enterStage(
).outcome
when (result) {
is StageExecutionResult.Success -> {
if (requestClarificationIfNeeded(ctx.sessionId, stageId, ctx.graph)) {
// The stage raised open questions and the operator answered them; loop to
// re-run the stage with the answers injected (no failure-retry budget spent).
continue
}
// The stage may emit open questions in its artifact (discovery does). Park, let the
// operator answer, and record the answers — then ADVANCE, do not re-run the stage.
// A re-run restarts inference with no prior CoT, so the stage re-explores instead of
// converging (2026-07-18). The answers are recorded as ClarificationAnsweredEvents
// and injected into every later stage's L0 context (buildClarificationAnswerEntries),
// so the next stage (e.g. analyst) sees them without discovery running again.
requestClarificationIfNeeded(ctx.sessionId, stageId, ctx.graph)
compactionService?.let { svc ->
val journalState = decisionJournalRepository.getJournal(ctx.sessionId)
val journalText = DecisionJournalRenderer().render(journalState)
@@ -43,7 +43,10 @@ class JournalCompactionService(
}
val summaryArtifactId = artifactStore.put(summaryText.toByteArray(Charsets.UTF_8))
artifactStore.flushBefore {
// Emit directly, NOT inside flushBefore { }: append() already fsyncs artifacts before it
// persists the event, so wrapping the emit here re-acquires the (non-reentrant) artifact
// Mutex that flushBefore already holds → self-deadlock. Only surfaces on long runs, which
// are the ones that cross the compaction threshold.
emit(
JournalCompactedEvent(
sessionId = sessionId,
@@ -52,7 +55,6 @@ class JournalCompactionService(
lowSalienceOmittedCount = lowCount,
),
)
}
return true
}
}
@@ -0,0 +1,20 @@
package com.correx.core.kernel.orchestration
import com.correx.core.events.events.LspDiagnostic
import java.nio.file.Path
data class LspDiagnosticsRequest(
val workspaceRoot: Path,
val paths: List<String>,
)
data class LspDiagnosticsResult(
val server: String? = null,
val diagnostics: List<LspDiagnostic> = emptyList(),
val skippedReason: String? = null,
)
/** Nondeterministic LSP boundary. The orchestrator records its result before using it. */
fun interface LspDiagnosticsRunner {
suspend fun pull(request: LspDiagnosticsRequest): LspDiagnosticsResult
}
@@ -35,6 +35,8 @@ data class OrchestrationTuning(
val reviewBlockMinConfidence: Double = 0.7,
/** Pathological backstop: max review-driven retries before the stage is let through. */
val reviewBlockRetryCap: Int = 20,
/** Review→rework cycles before deterministic escalation to recovery. */
val reviewLoopMaxCycles: Int = 3,
/** Max review→refine cycles for a stage (freestyle default refinement budget). */
val defaultMaxRefinement: Int = 3,
/** Budget for routing a failed write-less stage to a recovery stage. */
@@ -31,6 +31,7 @@ data class OrchestratorEngines(
// Runs operator-configured static-analysis commands as a harness step (role-reliability §5).
// Null = no static-first step; a stage declaring `static_analysis` then no-ops with a warning.
val staticAnalysisRunner: StaticAnalysisRunner? = null,
val lspDiagnosticsRunner: LspDiagnosticsRunner? = null,
// Evaluates Gate 2 contract assertions against a stage's produced files (design §1). Null = no
// contract gate; the deterministic funnel then rests on produces-presence + static analysis only.
val contractAssertionEvaluator: ContractAssertionEvaluator? = null,
@@ -4,6 +4,7 @@ import com.correx.core.tools.process.ChildProcess
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.TimeoutCancellationException
import kotlinx.coroutines.async
import kotlinx.coroutines.coroutineScope
import kotlinx.coroutines.withContext
import kotlinx.coroutines.withTimeout
import java.nio.file.Path
@@ -26,23 +27,61 @@ class ProcessStaticAnalysisRunner(
withContext(Dispatchers.IO) {
val argv = command.trim().split(WHITESPACE).filter { it.isNotEmpty() }
if (argv.isEmpty()) return@withContext StaticAnalysisRunResult(EXIT_NOT_RUN, "empty command")
if (argv.first() == STATIC_FLOOR_COMMAND) return@withContext runStaticFloor(workingDir, argv)
runProcess(workingDir, argv, command)
}
@Suppress("ReturnCount")
private suspend fun runStaticFloor(workingDir: Path, argv: List<String>): StaticAnalysisRunResult {
val paths = argv.dropWhile { it != "--" }.drop(1)
if (paths.isEmpty()) return StaticAnalysisRunResult(0, "static floor skipped: no concrete files")
val checks = paths.mapNotNull { path -> checkerFor(path)?.let { it + path } }
if (checks.isEmpty()) {
return StaticAnalysisRunResult(0, "static floor skipped: no resolvable checker for ${paths.joinToString()}")
}
val outputs = mutableListOf<String>()
for (check in checks) {
val result = runProcess(workingDir, check, check.joinToString(" "))
outputs += "${check.joinToString(" ")}: ${result.output}".trim()
if (result.exitCode != 0) return StaticAnalysisRunResult(result.exitCode, outputs.joinToString("\n"))
}
val skipped = paths.size - checks.size
if (skipped > 0) outputs += "static floor skipped $skipped file(s) without a checker"
return StaticAnalysisRunResult(0, outputs.joinToString("\n"))
}
private fun checkerFor(path: String): List<String>? = when (path.substringAfterLast('.', "").lowercase()) {
"js", "mjs", "cjs" -> listOf("node", "--check")
"py" -> listOf("python3", "-m", "py_compile")
"sh", "bash" -> listOf("bash", "-n")
"rb" -> listOf("ruby", "-c")
else -> null
}
private suspend fun runProcess(
workingDir: Path,
argv: List<String>,
displayCommand: String,
): StaticAnalysisRunResult {
val process = runCatching {
ChildProcess.builder(argv, workingDir.toFile()).redirectErrorStream(true).start()
}.getOrElse {
return@withContext StaticAnalysisRunResult(EXIT_NOT_RUN, "failed to start '$command': ${it.message}")
return StaticAnalysisRunResult(EXIT_NOT_RUN, "failed to start '$displayCommand': ${it.message}")
}
runCatching {
return runCatching {
coroutineScope {
withTimeout(timeoutMs) {
val outputDeferred = async { process.inputStream.bufferedReader().use { it.readText() } }
val exit = process.waitFor()
StaticAnalysisRunResult(exit, outputDeferred.await())
}
}
}.getOrElse {
process.destroyForcibly()
val reason = if (it is TimeoutCancellationException) {
"static analysis '$command' timed out after ${timeoutMs}ms"
"static analysis '$displayCommand' timed out after ${timeoutMs}ms"
} else {
it.message ?: "error running '$command'"
it.message ?: "error running '$displayCommand'"
}
StaticAnalysisRunResult(EXIT_NOT_RUN, reason)
}
@@ -51,6 +90,7 @@ class ProcessStaticAnalysisRunner(
private companion object {
const val DEFAULT_TIMEOUT_MS = 300_000L
const val EXIT_NOT_RUN = -1
const val STATIC_FLOOR_COMMAND = "correx-static-floor"
val WHITESPACE = Regex("\\s+")
}
}
@@ -9,6 +9,8 @@ import com.correx.core.artifactstore.ArtifactStore
import com.correx.core.context.builder.ContextPackBuilder
import com.correx.core.context.model.ContextPack
import com.correx.core.events.events.ClarificationAnswer
import com.correx.core.events.events.ClarificationAnsweredEvent
import com.correx.core.events.events.ClarificationRequestedEvent
import com.correx.core.events.events.InferenceCompletedEvent
import com.correx.core.events.events.InferenceFailedEvent
import com.correx.core.events.events.InferenceStartedEvent
@@ -212,6 +214,7 @@ abstract class SessionOrchestrator(
internal val workspacePolicy: WorkspacePolicy? = engines.workspacePolicy
internal val worldProbe: WorldProbe = engines.worldProbe
internal val staticAnalysisRunner: StaticAnalysisRunner? = engines.staticAnalysisRunner
internal val lspDiagnosticsRunner: LspDiagnosticsRunner? = engines.lspDiagnosticsRunner
internal val contractAssertionEvaluator: ContractAssertionEvaluator? = engines.contractAssertionEvaluator
internal val planCompilationCheck: PlanCompilationCheck? = engines.planCompilationCheck
internal val semanticReviewer: SemanticReviewer? = engines.semanticReviewer
@@ -259,6 +262,22 @@ abstract class SessionOrchestrator(
fun liveClarificationRequestIds(): Set<String> =
pendingClarifications.keys.mapTo(mutableSetOf()) { it.value }
/**
* The clarification a headless caller should answer for this session: the newest still-live,
* unanswered request. Null if the session is not parked on a clarification. Lets a REST answer
* route resolve the (stageId, requestId) server-side so a script need only supply answer values —
* the WS path knows them because it received the [ClarificationRequestedEvent]; a curl caller does not.
*/
suspend fun pendingClarificationFor(sessionId: SessionId): ClarificationRequestedEvent? {
val live = liveClarificationRequestIds()
if (live.isEmpty()) return null
val events = eventStore.read(sessionId)
val answered = events.mapNotNull { it.payload as? ClarificationAnsweredEvent }
.mapTo(mutableSetOf()) { it.requestId }
return events.mapNotNull { it.payload as? ClarificationRequestedEvent }
.lastOrNull { it.requestId.value in live && it.requestId !in answered }
}
/** Public seam for out-of-band gates (e.g. freestyle plan review) that reuse the stage-approval flow. */
suspend fun requestPlanApproval(sessionId: SessionId, preview: String): Boolean =
requestStageApproval(sessionId, StageId("plan_review"), preview)
@@ -76,7 +76,7 @@ internal suspend fun SessionOrchestrator.repairArtifact(
if (eligible && bestCandidate != null && !isCancelled(sessionId)) {
emitArtifactRepairAttempted(sessionId, stageId, slot, unresolved.classification, "LLM")
val repaired = runArtifactRepairInference(
sessionId, stageId, slot, bestCandidate, stageConfig, effectives, timeoutMs,
sessionId, stageId, slot, bestCandidate, unresolved.detail, stageConfig, effectives, timeoutMs,
)
val reRun = repaired?.let { artifactExtractionPipeline.run(it, schema) }
if (reRun is ArtifactExtractionPipeline.ExtractionResult.Resolved) {
@@ -115,15 +115,18 @@ internal suspend fun SessionOrchestrator.runArtifactRepairInference(
stageId: StageId,
slot: TypedArtifactSlot,
bestCandidate: String,
validationError: String,
stageConfig: StageConfig,
effectives: RunEffectives,
timeoutMs: Long,
): String? {
val schema = slot.kind.deriveJsonSchema()
val schemaJson = Json.encodeToString(JsonSchema.serializer(), schema)
val prompt = "The previous output for the '${slot.name.value}' artifact was malformed and did not " +
"match the required schema.\n\nMalformed output:\n$bestCandidate\n\nReturn ONLY a single JSON " +
"object matching this schema. Do not add fields, prose, or code fences.\nSchema: $schemaJson"
val prompt = "The previous output for the '${slot.name.value}' artifact failed schema validation.\n\n" +
"Validation error:\n$validationError\n\nMalformed output:\n$bestCandidate\n\nFix ONLY what the " +
"validation error names — every field must sit at the level the schema defines; do not nest a " +
"top-level field inside another object. Return ONLY a single JSON object matching this schema. " +
"Do not add fields, prose, or code fences.\nSchema: $schemaJson"
val entry = ContextEntry(
id = ContextEntryId(UUID.randomUUID().toString()),
layer = ContextLayer.L2,
@@ -190,9 +190,13 @@ internal suspend fun SessionOrchestrator.buildClarificationAnswerEntries(session
/**
* If [stageId] just produced an LLM artifact carrying a non-empty `questions` array, park the
* run: record the questions (invariant #9 — observed at parse time), await the operator's
* answers, record them, and return true so the caller re-runs the stage with the answers in
* context. Bounded by [MAX_CLARIFICATION_ROUNDS] so a stage that keeps re-asking eventually
* proceeds. Returns false when there are no questions or the round budget is spent.
* answers, and record them. The caller then ADVANCES to the next stage the stage is not
* re-run. The answers are session-wide events, injected into every later stage's L0 context
* (see [buildClarificationAnswerEntries]), so the next stage acts on them directly; re-running
* the questioning stage only restarts inference with no prior reasoning and makes it re-explore.
* Bounded by [OrchestrationTuning.maxClarificationRounds] so retries can't re-park unboundedly.
* Returns true when it parked and collected answers, false when there are no questions or the
* round budget is spent.
*/
internal suspend fun SessionOrchestrator.requestClarificationIfNeeded(
@@ -229,6 +229,8 @@ internal suspend fun SessionOrchestrator.executeStage(
val agentInstructionsEntries = emptyList<ContextEntry>()
val retryFeedbackEntries = buildRetryFeedbackEntry(sessionEvents, stageId)
?.let { listOf(it) } ?: emptyList()
val groundingFeedbackEntries = buildGroundingFeedbackEntry(sessionEvents, stageId)
?.let { listOf(it) } ?: emptyList()
val recoveryTicketEntries = buildRecoveryTicketEntry(sessionEvents, stageId)
?.let { listOf(it) } ?: emptyList()
val vocabularyEntries = artifactKindRegistry
@@ -266,7 +268,8 @@ internal suspend fun SessionOrchestrator.executeStage(
systemPrompt + operatingGuidance + promotedConcepts + successfulPlanShapes + verifiedBaseline + intentEntries + profileEntries + projectProfileEntries + agentInstructionsEntries +
journalEntries + repoMapEntries + claimedTaskEntries +
needsEntries + schemaEntries + vocabularyEntries + promptEntries + steeringEntries +
clarificationEntries + retryFeedbackEntries + recoveryTicketEntries + remainingDeltaEntries,
clarificationEntries + retryFeedbackEntries + groundingFeedbackEntries + recoveryTicketEntries +
remainingDeltaEntries,
)
val contextPack = runCatching {
contextPackBuilder.build(
@@ -374,13 +377,30 @@ internal suspend fun SessionOrchestrator.executeStage(
continue
}
// emit_artifact is a meta-tool: the LLM calls it with the artifact's fields as arguments.
// Capture those arguments as the artifact content and exit the loop straight to validation
// (the post-loop capture honours this override instead of the empty assistant text).
// Validate those arguments INLINE, like any other tool call: a valid artifact captures and
// exits the loop; an invalid one is handed straight back into the SAME conversation as a
// tool-result error, so the model fixes it with its full context (and CoT) intact. Breaking
// the loop on a bad artifact would instead drop into a cold repair/retry that re-explores
// from scratch and tends to re-make the identical schema mistake (2026-07-18).
val emitCall = inferenceResult.response.toolCalls.firstOrNull { it.function.name == EMIT_ARTIFACT_TOOL }
if (emitCall != null && llmEmittedSlots.isNotEmpty()) {
llmArtifactOverride = emitCall.function.arguments
val emitSlot = llmEmittedSlots.first()
when (val res = artifactExtractionPipeline.run(emitCall.function.arguments, emitSlot.kind.deriveJsonSchema())) {
is ArtifactExtractionPipeline.ExtractionResult.Resolved -> {
llmArtifactOverride = res.canonicalJson.toString()
break
}
is ArtifactExtractionPipeline.ExtractionResult.Unresolved -> {
inferenceResult = pushBack(
"ERROR: your emit_artifact call for '${emitSlot.name.value}' did not match the " +
"schema: ${res.detail}. Call emit_artifact again with only that corrected. Every " +
"field must sit at the level the schema defines — do not nest a top-level field " +
"(e.g. ready, questions) inside another object.",
)
continue
}
}
}
// stage_complete is a meta-tool: the LLM calls it to signal the stage's goal is met.
// Skip tool dispatch — the loop exits and normal validation/transition follows
// (emitToolArtifacts + verifyProduces run on the success path after the loop).
@@ -199,6 +199,7 @@ internal suspend fun SessionOrchestrator.runPostStageGates(
{ runContractGate(sessionId, stageId, stageConfig, effectives) },
{ runPlanCompileGate(sessionId, stageId, stageConfig) },
{ runStaticAnalysis(sessionId, stageId, stageConfig, effectives) },
{ runLspDiagnostics(sessionId, stageId, stageConfig, effectives) },
{ runExecutionGate(sessionId, stageId, stageConfig, effectives, profileCommands) },
{ runReviewGate(sessionId, stageId, stageConfig, effectives) },
)
@@ -5,6 +5,7 @@ import com.correx.core.events.events.ReviewVerdict
import com.correx.core.events.events.ArtifactCreatedEvent
import com.correx.core.events.events.StaticAnalysisCompletedEvent
import com.correx.core.events.events.StaticAnalysisFinding
import com.correx.core.events.events.LspDiagnosticsCompletedEvent
import com.correx.core.events.events.ArtifactValidatedEvent
import com.correx.core.events.events.ArtifactValidatingEvent
import com.correx.core.events.types.SessionId
@@ -66,6 +67,55 @@ internal suspend fun SessionOrchestrator.runStaticAnalysis(
)
}
@Suppress("ReturnCount")
internal suspend fun SessionOrchestrator.runLspDiagnostics(
sessionId: SessionId,
stageId: StageId,
stageConfig: StageConfig,
effectives: RunEffectives,
): StageExecutionResult {
val runner = lspDiagnosticsRunner ?: return StageExecutionResult.Success(emptyList())
val workspaceRoot = effectives.policy?.workspaceRoot ?: return StageExecutionResult.Success(emptyList())
val stagePaths = stageWrittenPaths(sessionId, stageId)
val paths = if (stagePaths.isNotEmpty()) {
stagePaths
} else if (stageConfig.autoBuildGate) {
sessionWrittenPaths(sessionId)
} else {
emptyList()
}
if (paths.isEmpty()) return StageExecutionResult.Success(emptyList())
val result = runner.pull(LspDiagnosticsRequest(workspaceRoot, paths))
val plannedButUnwritten = stageConfig.writeManifest.filterNot { it in paths }
val diagnostics = result.diagnostics.filter { diagnostic ->
diagnostic.path in paths && plannedButUnwritten.none { planned ->
diagnostic.message.contains(planned.substringAfterLast('/'), ignoreCase = true)
}
}
emit(
sessionId,
LspDiagnosticsCompletedEvent(sessionId, stageId, result.server, diagnostics, result.skippedReason),
)
val errors = diagnostics.filter { it.severity.equals("error", ignoreCase = true) }
if (errors.isEmpty()) return StageExecutionResult.Success(emptyList())
val detail = errors.joinToString("\n") {
"- ${it.path}:${it.line + 1}:${it.character + 1} ${it.code.orEmpty()} ${it.message}".trim()
}
return StageExecutionResult.Failure(
"stage ${stageId.value} has LSP diagnostics in files it wrote. Fix these before proceeding:\n$detail",
retryable = true,
gate = "lsp_diagnostics",
)
}
internal fun SessionOrchestrator.sessionWrittenPaths(sessionId: SessionId): List<String> =
eventStore.read(sessionId)
.mapNotNull { it.payload as? com.correx.core.events.events.FileWrittenEvent }
.filter { it.postImageHash != null }
.map { it.path }
.distinct()
/**
* Gate 4 — execution (staged-verification §1/§2). A stage's [StageConfig.buildExpectation]
* (none/module/project/tests) resolves to the bound project profile's typecheck/build/test
@@ -76,6 +126,7 @@ internal suspend fun SessionOrchestrator.runStaticAnalysis(
* [StaticAnalysisCompletedEvent], invariant #9, so replay never re-runs it).
*/
@Suppress("ReturnCount")
internal suspend fun SessionOrchestrator.runExecutionGate(
sessionId: SessionId,
stageId: StageId,
@@ -93,6 +144,11 @@ internal suspend fun SessionOrchestrator.runExecutionGate(
stageConfig.autoBuildGate && sessionProducedBuildTarget(sessionId) -> BuildExpectation.PROJECT
else -> null
}
// LSP pull diagnostics are the compiler-front-end/typecheck gate. Keep PROJECT bundlers and
// TESTS as real commands, but do not invoke the profile's flat `typecheck` alias as well.
if (expectation == BuildExpectation.MODULE && lspDiagnosticsRunner != null) {
return StageExecutionResult.Success(emptyList())
}
val alias = expectation?.commandAlias ?: return StageExecutionResult.Success(emptyList())
val runner = staticAnalysisRunner
val workspaceRoot = effectives.policy?.workspaceRoot
@@ -69,13 +69,18 @@ internal suspend fun SessionOrchestrator.advanceStage(
// --- terminal state helpers ---
internal suspend fun SessionOrchestrator.emitWorkflowStarted(sessionId: SessionId, graph: WorkflowGraph, config: OrchestrationConfig) {
internal suspend fun SessionOrchestrator.emitWorkflowStarted(
sessionId: SessionId,
graph: WorkflowGraph,
config: OrchestrationConfig,
startStage: StageId = graph.start,
) {
emit(
sessionId,
WorkflowStartedEvent(
sessionId = sessionId,
workflowId = graph.id,
startStageId = graph.start,
startStageId = startStage,
retryPolicy = config.retryPolicy,
),
)
@@ -48,7 +48,9 @@ class TierContextSummarizer(
}
val summaryText = summarize(prompt)
val summaryArtifactId = artifactStore.put(summaryText.toByteArray(Charsets.UTF_8))
artifactStore.flushBefore {
// Emit directly, NOT inside flushBefore { }: append() already fsyncs artifacts before it
// persists the event, so wrapping the emit here re-acquires the (non-reentrant) artifact
// Mutex that flushBefore already holds → self-deadlock (same bug as JournalCompactionService).
emit(
ContextSummarizedEvent(
sessionId = sessionId,
@@ -58,7 +60,6 @@ class TierContextSummarizer(
entriesOmittedCount = freeformEntries.size,
),
)
}
return true
}
}
@@ -9,6 +9,9 @@ import com.correx.core.journal.model.DecisionKind
import com.correx.core.journal.model.DecisionRecord
import com.correx.core.utils.TypeId
import kotlinx.coroutines.runBlocking
import kotlinx.coroutines.sync.Mutex
import kotlinx.coroutines.sync.withLock
import kotlinx.coroutines.withTimeout
import org.junit.jupiter.api.Assertions.assertEquals
import org.junit.jupiter.api.Assertions.assertFalse
import org.junit.jupiter.api.Assertions.assertTrue
@@ -70,6 +73,30 @@ class JournalCompactionServiceTest {
assertEquals(fixedArtifactId, event.summaryArtifactId)
}
// Regression: append() flushes artifacts inside the SAME non-reentrant Mutex that flushBefore
// holds. If compaction wraps its emit in flushBefore, the emit->append->flushBefore re-acquires
// that Mutex and self-deadlocks. This store mirrors production locking so the deadlock is real;
// the fake above cannot catch it because its flushBefore takes no lock.
private fun reentrantHostileArtifactStore(): ArtifactStore = object : ArtifactStore {
val mutex = Mutex()
override suspend fun put(bytes: ByteArray) = fixedArtifactId
override suspend fun get(id: TypeId): ByteArray? = null
override suspend fun flushBefore(commit: suspend () -> Unit) = mutex.withLock { commit() }
}
@Test
fun `does not deadlock when emit re-enters the artifact store (as append does)`(): Unit = runBlocking {
val store = reentrantHostileArtifactStore()
val svc = JournalCompactionService(store, { "summary" }, tokenThreshold = { 100 })
val state = stateWithRecords(makeRecord(1, DecisionKind.INTENT))
// emit simulates SqliteEventStore.append: it flushes artifacts inside the store mutex.
withTimeout(2000) {
svc.compactIfNeeded(SessionId("s1"), state, renderedTokenEstimate = 500) {
store.flushBefore { /* persist event row */ }
}
}
}
@Test
fun `only HIGH-salience records are included in the summarize prompt`(): Unit = runBlocking {
val capturedPrompts = mutableListOf<String>()
@@ -51,4 +51,21 @@ class ProcessStaticAnalysisRunnerTest {
val result = runner.run(dir, " ")
assertTrue(result.exitCode != 0, "exit: ${result.exitCode}")
}
@Test
fun `static floor skips an unsupported filetype without failing`() = runBlocking {
val dir = createTempDirectory("sa-skip")
dir.resolve("Main.kt").writeText("fun main() = Unit")
val result = runner.run(dir, "correx-static-floor -- Main.kt")
assertEquals(0, result.exitCode)
assertTrue(result.output.contains("skipped"), "output: ${result.output}")
}
@Test
fun `static floor checks javascript syntax without project dependencies`() = runBlocking {
val dir = createTempDirectory("sa-js")
dir.resolve("broken.js").writeText("const = ;")
val result = runner.run(dir, "correx-static-floor -- broken.js")
assertTrue(result.exitCode != 0, "exit: ${result.exitCode}")
}
}
@@ -19,8 +19,11 @@ import java.nio.file.Path
* workspace but outside the declared set is scope creep — the dominant local-implementer
* failure that tests do not catch — and is raised as PATH_OUTSIDE_MANIFEST → BLOCK.
*
* Empty manifest = unrestricted (workspace containment still applies via
* [PathContainmentRule]). Out-of-workspace targets are that rule's concern, not this one.
* A write already inside the active task's affected_paths is allowed even if the manifest is
* narrower: those paths are the agent-widenable, recorded authority (see [WriteScopeRule]), and
* the stage manifest is a planner hint that defers to them. Empty manifest = unrestricted
* (workspace containment still applies via [PathContainmentRule]). Out-of-workspace targets are
* that rule's concern, not this one.
* Path resolution goes through WorldProbe (symlink-safe) and the facts are recorded as
* observations, so replay reads them back rather than re-globbing (invariant #9).
*/
@@ -36,6 +39,14 @@ class ManifestContainmentRule : ToolCallRule {
val matchers = input.writeManifest.map {
FileSystems.getDefault().getPathMatcher("glob:$it")
}
// The active task's affected_paths are the agent-widenable, recorded authority (see
// WriteScopeRule). A write already inside that scope is not manifest scope-creep — the
// stage manifest is a narrower planner hint that must defer to it, otherwise a too-tight
// manifest becomes an unrecoverable dead-end (the escape hatch is task_update affected_paths).
val taskScope = input.session.activeTask?.scope.orEmpty()
val taskMatchers = taskScope.map {
FileSystems.getDefault().getPathMatcher("glob:${it.removePrefix("./")}")
}
val issues = mutableListOf<ValidationIssue>()
val observations = mutableListOf<ToolCallObservation>()
@@ -48,7 +59,9 @@ class ManifestContainmentRule : ToolCallRule {
val resolvedReal = input.probe.resolveReal(resolvedInput)
val inWorkspace = resolvedReal.startsWith(workspaceReal)
val relative = if (inWorkspace) workspaceReal.relativize(resolvedReal).toString() else raw
val inManifest = inWorkspace && matchers.any { it.matches(Path.of(relative)) }
val relPath = Path.of(relative)
val inManifest = inWorkspace && matchers.any { it.matches(relPath) }
val inTaskScope = inWorkspace && taskMatchers.any { it.matches(relPath) }
observations += ToolCallObservation(
ruleCode = RULE_CODE,
@@ -57,14 +70,21 @@ class ManifestContainmentRule : ToolCallRule {
"relative" to relative,
"inWorkspace" to inWorkspace.toString(),
"inManifest" to inManifest.toString(),
"inTaskScope" to inTaskScope.toString(),
),
)
if (inWorkspace && !inManifest) {
if (inWorkspace && !inManifest && !inTaskScope) {
val remedy = if (taskScope.isEmpty()) {
" Claim a task whose affected_paths cover this path (task_update), then retry."
} else {
" If this path is genuinely part of the task, widen its affected_paths via " +
"task_update (note why), then retry."
}
issues += ValidationIssue(
code = "PATH_OUTSIDE_MANIFEST",
message = "Tool '${input.request.toolName}' writes '$raw' outside the stage's " +
"declared manifest ${input.writeManifest}",
"declared manifest ${input.writeManifest}.$remedy",
severity = ValidationSeverity.ERROR,
)
disposition = maxAction(disposition, RiskAction.BLOCK)
@@ -24,7 +24,8 @@ class ManifestContainmentRuleTest {
override fun resolveReal(path: Path): Path = path.toAbsolutePath().normalize()
}
private fun input(pathArg: String, manifest: List<String>) = ToolCallAssessmentInput(
private fun input(pathArg: String, manifest: List<String>, taskScope: List<String> = emptyList()) =
ToolCallAssessmentInput(
request = ToolRequest(
ToolInvocationId("i"), SessionId("s"), StageId("st"), "file_write",
mapOf("path" to pathArg, "mode" to "0644"),
@@ -34,6 +35,8 @@ class ManifestContainmentRuleTest {
probe = FakeProbe(),
paramRoles = mapOf("path" to ParamRole.PATH),
writeManifest = manifest,
session = if (taskScope.isEmpty()) SessionContext()
else SessionContext(activeTask = ActiveTask("t1", taskScope)),
)
@Test
@@ -67,6 +70,34 @@ class ManifestContainmentRuleTest {
assertEquals("false", r.observations.single().facts["inManifest"])
}
@Test
fun `write outside manifest but inside task scope is allowed`() {
// The scaffold dead-end: manifest lists only two files, but the claimed task's
// affected_paths cover the whole subtree. The recorded task scope wins.
val r = rule.assess(
input(
"/work/project/frontend/src/main.tsx",
manifest = listOf("frontend/package.json", "frontend/vite.config.ts"),
taskScope = listOf("frontend/**"),
),
)
assertEquals(RiskAction.PROCEED, r.disposition)
assertTrue(r.issues.isEmpty())
val facts = r.observations.single().facts
assertEquals("false", facts["inManifest"])
assertEquals("true", facts["inTaskScope"])
}
@Test
fun `write outside both manifest and task scope is blocked with widen remedy`() {
val r = rule.assess(
input("/work/project/apps/x.kt", manifest = listOf("core/**"), taskScope = listOf("frontend/**")),
)
assertEquals(RiskAction.BLOCK, r.disposition)
assertEquals("PATH_OUTSIDE_MANIFEST", r.issues.single().code)
assertTrue(r.issues.single().message.contains("task_update"))
}
@Test
fun `relative path arg is resolved against the workspace before matching`() {
val r = rule.assess(input("core/a/B.kt", listOf("core/**")))
+1 -1
View File
@@ -14,7 +14,7 @@ Maintained alongside the features they describe. Any agent shipping a significan
- `decisions/` — ADRs (adr-NNNN-*.md). Append-only. Never delete or retroactively alter a decided ADR; write a superseding one instead.
- `qa/` — QA run plans (QA-*.md). Each maps to a shipped feature or an explicitly pending controlled audition. `TEMPLATE.md` is the canonical shape. `ENV.md` describes the required live environment. `README.md` explains the QA process.
- `specs/` — feature specs by date-slug. Inputs for planned or in-flight work.
- `schemas/` — canonical JSON schemas for structured outputs (analysis, brief_echo, design, execution_plan, impl_plan). Shared across the router and validator.
- `schemas/` — canonical JSON schemas for structured outputs (analysis, discovery brief, DoD, brief_echo, design, execution_plan, impl_plan). Shared across the router and validator.
- `epics/`, `modules/`, `diagrams/`, `design/`, `reviews/`, `visual/` — supporting reference material.
**⚠️ STALE / DO NOT TRUST FOR STATUS:**
+150
View File
@@ -0,0 +1,150 @@
# Correx — Catch-up for a ~2-month-old memory
**If your last memory of Correx is the epic-13/epic-14 era (mid-May 2026), read this.**
Back then the project was a *skeleton*: epics 014 had landed the module structure
(events → sessions → transitions → validation → approvals → artifacts → context →
tools → inference → kernel → infra → interfaces → router). It compiled and replayed,
but the orchestration loop was thin and mostly unproven against real model runs.
Two months and ~250 feature commits later, the architecture is the *same* (all 9 Hard
Invariants still hold; the event log is still the only source of truth), but nearly the
entire *behavioral* layer — how a session actually drives a model through real work —
was built and hardened by live QA. This document groups the major additions. It is a
map, not a changelog; the dated files in `docs/plans/` are the real changelog.
Work is no longer tracked as "epics." It's tracked as **plans** (`docs/plans/`) and a
**Vikunja backlog** (project_id 4).
---
## The single biggest correction: the TUI is now Go
The Kotlin TUI (Mosaic, then tamboui) was **retired**. The interactive terminal UI is
now a **Go / Bubble Tea** app at `apps/tui-go` — a WS client of the server. `apps/cli`
(Clikt, Kotlin) and `apps/server` (Ktor) are the only Gradle app modules; the old
`apps/desktop` / `apps/worker` stubs were deleted. If you remember tamboui, forget it.
## New whole subsystems (did not meaningfully exist at epic-14)
**Native task tracking (`core:tasks`).** A dependency-aware work graph: `task_decompose`
splits a goal into a DEPENDS_ON graph in one approval; tasks have claim gates
(dependency-hard-gate, cite-before-claim, duplicate-title guard), per-task history,
markdown export, a full REST surface, a `correx task` CLI, a TUI task board with
readiness, and **git-driven status** (a commit mention → IN_PROGRESS, a closing keyword
→ DONE, idempotent). The execution loop is now *tasked* — it replaced the old linear
role_pipeline.
**Plane-2 tool-call intent validation (`core:toolintent`).** An anti-hallucination /
safety layer that assesses every tool call *before* it runs and records
`ToolCallAssessedEvent`: path-containment, read-before-write, reference-must-exist,
write-scope adherence, stale-write, exec-interpreter and network-host rules, and a
per-session egress allowlist. This is the layer that stops an agent citing files it
never read or writing outside its declared scope.
**Compression pipeline (`infrastructure:compression`).** A staged, replay-safe context
compressor: level policy → fact sheet + strict allocation → tier summarizer → token
pruning + embedding relevance + ToMe merge → static-doc pruning (CLAUDE.md/AGENTS.md).
Distinct from the required/optional *bucket* rework in `core:context`.
**Staged verification & review gates.** Stage output passes a gate ladder instead of
being trusted: build gate, plan-compile gate, contract/execution gate, and a
semantic-review gate (`core:critique`, with structured `CritiqueFinding` + per-model
calibration). Per-gate retry budgets with progress-aware charging and hybrid salvage;
static-first reviewer framing; capability-gap reflection; brief echo-back gate.
**Research workflow.** `WebSearchTool` (local SearXNG), `WebFetchTool` (bounded fetch),
deterministic HTML→markdown extraction, a research workflow graph, batch source-fetch
approval, and dedicated `SourceFetched` / `LowQualityExtraction` events. On by default.
**Cross-session repo memory (L3 + repo-map + project profile).** `RepoMapIndexer`
(symbols for Kotlin, GDScript, C#/Godot-Mono, markdown headings), `RepoKnowledgeRetriever`
with recency fallback, L3 ANN retrieval (`in_memory` or `turbovec` sidecar) recorded as
environment observations, `ProjectMemoryService`/`Distiller`, and `ProjectProfile`
(per-repo standing context at `.correx/project.toml`) injected as L0. Note: this is
*repo-scoped* memory — the "cross-session memory" anti-feature (conversational recall)
is still deliberately out.
**Git run-branch transport (the "Gitea transport") — SHIPPED.** The server owns a Git
checkout; each run pushes to a run branch (`GitRunBranchTransport`, `RunBranchPushedEvent`);
`GitTaskSync`/`GitCommandCommitReader` drive task status from commits. "gitea" is just
the configured remote name; the transport is plain Git.
**Observability & replay tooling (Epic 15, largely shipped).** Event-stream inspector
(`correx events`, `/sessions/{id}/events`), session replay + determinism digest,
causation-graph DOT export, metrics as a replayable projection (`correx stats`),
event-sourced health checks (EventStore latency, llama-server liveness, disk watermark,
ROCm/VRAM probe), and correlation-structured MDC logging.
**Model lifecycle management (`[[models]]`).** Correx spawns/owns the llama-server
process: per-stage model selection, manual swap + pin, resource telemetry, VRAM gauge.
(The autonomous *residency scheduler* is still unbuilt — see below.)
**Workspace scoping & undo.** `WorkspaceResolver` trust pipeline + `allowed_workspace_roots`,
per-session workspace-scoped tools/policy, client→server workspace handshake, crash-safe
atomic file writes with pre/post-image captured to CAS (`FileWrittenEvent`), and a
`FileMutationReverser` undo primitive (server endpoint + CLI). Agents can also READ
outside `workspace_root` via an operator approval prompt (writes stay jailed).
**Approvals & grants.** Cross-session grant scopes (PROJECT/GLOBAL) + revoke,
grant-aware approval engine, risk rationale surfaced to the operator; approval gates now
block indefinitely instead of auto-rejecting on timeout, and steering actually affects
the run.
**Router interaction layer.** Beyond CHAT+STEERING: grounded system prompts, triage
directive (no bare refusals), structured **workflow proposals** from triage, a
**clarification-question loop** (analyst asks, operator answers, producer-exit rehydrate
on reconnect), **rubber-duck idea board** (capture/feed/promote to project profile), and
grounded **narration** (pinned narration model, latency/token metrics surfaced).
**Freestyle / execution-plan engine.** Two-phase planning→execution driver,
`ExecutionPlanCompiler` + `ExecutionPlanLockedEvent`, post-plan operator approval gate,
freestyle graph re-routing (deterministic override), soft-lock steering preemption,
plan grounding + positive-pattern mining + a stage-prompt audition rig.
**Decision journal (`core:journal`).** Decision-journal projection injected into stage
context, salience-aware compaction (`JournalCompactionService`, CAS-rendered).
**Personalization (`core:config`).** `OperatorProfile` + `ProfileLoader` bound at start
and surfaced into L0; propose-only `ProfileAdaptationService`.
**Native MCP host.** The server mounts external stdio MCP servers as first-class Correx
tools (inherit tier / receipt / replay). `codebase-memory-mcp` is installed and granted
per code-intel stage.
**Recovery loop.** Failed write-less stages route to recovery instead of futile retry;
tier-2 intent-holder arbiter; remaining-delta pinning; failure-ticket routing +
review-gate RECOVER + return-to-sender; structured package-404 recovery evidence;
stage-global repeated-failure loop breaker.
**Godot / game-dev support.** GDScript + C#/Godot-Mono symbol extraction in the repo
map, and a structural `.tscn`/`.tres` scene validator.
## Refactors & hardening you'll notice
- `DefaultSessionOrchestrator` god-class decomposed into per-concern extensions;
`DomainEventMapper`'s god-`when` split per-domain. Detekt baseline ratcheted 120 → 90.
- Persistence hardened: sequences assigned atomically inside INSERT, reads serialized
with the append transaction, slow WS clients no longer stall the kernel.
- Tool results bounded + framed, full output spilled to CAS with a `tool_output`
retrieval tool; `glob`/`grep` search tools; web_fetch SSRF fix; interruptible shell
timeouts with process-tree kill; shell allowlist validates every command position.
- Config: orchestration loop/threshold/budget constants moved to `[orchestration]`;
operator-tunable sampling knobs (top_k/min_p/repeat_penalty) per stage.
## Still planned / deliberately NOT built (don't assume these exist)
- Full **remote always-on / thin-client** deployment topology. Its Git *transport*
shipped (above); the hosting topology itself is not yet stood up.
- Full router **context isolation** (persistent conversation history, session-scoped
boundaries). CHAT+STEERING works; the isolation layer is deferred.
- Autonomous GPU **residency scheduling** (lifecycle *is* built; idle-eviction policy
is not).
- Still explicitly out: parallel agent execution, conversational cross-session memory,
three-critic ensemble, fine-tuning, streaming inference.
## Where to look now
- `CLAUDE.md` — current session guide, Module Map, invariants.
- `docs/plans/` — the real changelog of intent since epic-14 (dated files).
- Vikunja project 4 — live backlog. `scripts/ctx.py <query>` — ranked file/symbol lookup.
+9
View File
@@ -135,6 +135,10 @@ backend = "in_memory" # or "turbovec"
# schema_path = "schemas/review_report.json"
# llm_emitted = true
#
# Review loops escalate to the synthesized recovery stage after this many review→rework cycles.
# [orchestration]
# review_loop_max_cycles = 3
#
# The bundled examples/workflows/review_loop.toml uses this kind: the reviewer emits a
# review_report whose `verdict` field gates the implementer↔reviewer loop via
# artifact_field_equals transitions. See docs/schemas/review_report.json for the schema.
@@ -143,3 +147,8 @@ backend = "in_memory" # or "turbovec"
id = "execution_plan"
schema_path = "schemas/execution_plan.json"
llm_emitted = true
[[artifacts]]
id = "dod"
schema_path = "schemas/dod.json"
llm_emitted = true
+15 -1
View File
@@ -1,6 +1,20 @@
{
"type": "object",
"properties": {
"brief": {
"type": "object",
"properties": {
"what": { "type": "string" },
"why": { "type": "string" },
"who": { "type": "array", "items": { "type": "string" } },
"scope": { "type": "array", "items": { "type": "string" } },
"non_goals": { "type": "array", "items": { "type": "string" } },
"constraints": { "type": "array", "items": { "type": "string" } },
"assumptions": { "type": "array", "items": { "type": "string" } }
},
"required": ["what", "why", "who", "scope", "non_goals", "constraints", "assumptions"],
"additionalProperties": false
},
"ready": {
"type": "boolean",
"description": "true when the request is clear and grounded enough to plan; false when you are raising questions"
@@ -33,6 +47,6 @@
}
}
},
"required": ["ready", "questions"],
"required": ["brief", "ready", "questions"],
"additionalProperties": false
}
+24
View File
@@ -0,0 +1,24 @@
{
"type": "object",
"properties": {
"summary": { "type": "string" },
"criteria": {
"type": "array",
"minItems": 1,
"items": {
"type": "object",
"properties": {
"id": { "type": "string" },
"statement": { "type": "string" },
"part": { "type": "string" },
"verified_by": { "type": "string", "description": "one of: gate, reviewer" }
},
"required": ["id", "statement", "part", "verified_by"],
"additionalProperties": false
}
},
"out_of_scope": { "type": "array", "items": { "type": "string" } }
},
"required": ["summary", "criteria", "out_of_scope"],
"additionalProperties": false
}
+4
View File
@@ -14,6 +14,10 @@
"produces": { "type": "string" },
"kind": { "type": "string" },
"tools": { "type": "array", "items": { "type": "string" } }
,"writes": { "type": "array", "items": { "type": "string" } }
,"touches": { "type": "array", "items": { "type": "string" } }
,"build_expectation": { "type": "string", "description": "one of: none, module, project, tests" }
,"semantic_review": { "type": "boolean" }
},
"required": ["id", "prompt", "produces"]
}
+1
View File
@@ -22,6 +22,7 @@ Each TOML file in `workflows/` is a valid workflow loadable by the server. Keep
- Add a new workflow example when a major new workflow type ships.
- Prompts referenced by TOML files go in `workflows/prompts/`.
- Freestyle architect prompts specify stage constraints, boundaries, and verification goals; they do not prescribe an exact resulting file list when the authoritative intent leaves implementation details open.
- Freestyle discovery emits a structured comprehension brief; the analyst emits the addressable `dod` artifact used as the fixed implementation/review rubric.
- Do not add configs/plugins/stages stubs speculatively — populate when there is real content.
## Verification
+5
View File
@@ -19,6 +19,11 @@ id = "analysis"
schema_path = "schemas/analysis.json"
llm_emitted = true
[[artifacts]]
id = "dod"
schema_path = "schemas/dod.json"
llm_emitted = true
[[artifacts]]
id = "design"
schema_path = "schemas/design.json"
+5 -4
View File
@@ -12,7 +12,7 @@ allowed_tools = ["file_read", "list_dir", "shell"]
token_budget = 16384
max_retries = 2
# analyst writes no files, but it owns task framing: task_search/task_context (read-only) find
# analyst writes no files, but it owns task framing and the fixed definition of done:
# existing work; task_create (T2, approval-gated — a task is an event-log entry, not a file write)
# opens a single task; task_decompose (T2, one approval for the whole graph) splits a goal with
# dependency seams into parent + DEPENDS_ON-linked children. Either way the analysis names the task
@@ -20,7 +20,8 @@ max_retries = 2
[[stages]]
id = "analyst"
prompt = "prompts/analyst_freestyle.md"
produces = [{ name = "analysis", kind = "analysis" }]
needs = ["discovery"]
produces = [{ name = "dod", kind = "dod" }]
allowed_tools = ["file_read", "list_dir", "shell", "task_search", "task_context", "task_create", "task_decompose"]
token_budget = 16384
max_retries = 2
@@ -30,7 +31,7 @@ id = "architect"
requires_approval = true
inject_artifact_kinds = true
prompt = "prompts/architect_freestyle.md"
needs = ["analysis"]
needs = ["dod"]
produces = [{ name = "execution_plan", kind = "execution_plan" }]
token_budget = 16384
max_retries = 2
@@ -47,7 +48,7 @@ id = "analyst-to-architect"
from = "analyst"
to = "architect"
condition_type = "artifact_validated"
condition_artifact_id = "analysis"
condition_artifact_id = "dod"
[[transitions]]
id = "architect-to-done"
+29 -27
View File
@@ -1,33 +1,35 @@
You are the **Analyst** in freestyle mode. Understand the user's goal (in the decision history
above) and the code it touches. Read-only: `file_read` (also lists a directory's entries when
given a directory path), `ls`, `grep`, `cat`, `find`.
You are the **Analyst** in freestyle mode. Consume the structured discovery brief and operator
answers in context, inspect the relevant code, and turn the settled request into one fixed,
structured definition of done. Read-only tools: `file_read`, `list_dir`, `shell`, `task_search`,
and `task_context`.
Before deriving requirements, check for existing work: `task_search` for related, duplicate, or
blocking tasks and `task_context` to load any the goal names. Fold what you find into the
analysis rather than re-deriving it; flag a duplicate instead of restating it.
Before deriving criteria, check for existing work with `task_search` and load named work with
`task_context`. Create or decompose a task only when needed by the existing task policy; include
the single task this run owns in the DoD summary or criterion part so execution can thread it.
Then frame the work as a task (per the task policy):
- If a task already covers this work, name its id (e.g. `auth-142`) in the analysis.
- If the goal is a single coherent unit one run can carry to review, `task_create` one and name its
id.
- If the goal has **dependency seams** (a thing that must land before another) or **independent
review/handoff points** (a piece worth shipping or reviewing on its own), `task_decompose` it into
a parent epic + `DEPENDS_ON`-linked children — one approval for the whole graph. A session works
one task at a time, so the children are claimed by *later* runs as they unblock; don't over-split.
- After decomposing, **name in the analysis the single task this run will work** — the one already
ready (no unmet dependency, e.g. the scaffold). Leave the blocked siblings for future runs.
Emit the `dod` artifact once. Its criteria are the complete acceptance contract for this run:
Either way later stages thread the named task through the plan; the rest wait to be claimed.
- Give every criterion a stable id (`c1`, `c2`, …), a checkable statement, and its feature area.
- Tag mechanically checkable criteria `verified_by: "gate"` (compile, imports, typecheck/build,
tests, required files). The reviewer must not adjudicate these.
- Tag semantic or UX criteria `verified_by: "reviewer"`.
- Copy discovery `brief.non_goals` into `out_of_scope`; this is a hard review boundary.
- Cover the entire in-scope brief now. Later stages may not silently add criteria.
Produce the `analysis` artifact by calling the **`emit_artifact`** tool with these fields:
- `summary`: the goal in your own words.
- `requirements`: concrete, checkable requirements, one per line.
- `affected_areas`: files/modules likely involved, one per line.
Call `emit_artifact` with a JSON object matching this shape:
`{"summary": string, "criteria": [{"id": string, "statement": string, "part": string,
"verified_by": "gate" | "reviewer"}], "out_of_scope": [string]}`.
Call `emit_artifact` once you have read enough — do not write the JSON as a plain message.
Example:
```json
{
"summary": "Deliver the bounded validation gate for task gate-42.",
"criteria": [
{"id":"c1","statement":"The project typecheck passes before completion","part":"terminal gate","verified_by":"gate"},
{"id":"c2","statement":"The operator sees the recorded diagnostic","part":"workflow UX","verified_by":"reviewer"}
],
"out_of_scope": ["Changing the workflow topology"]
}
```
Always produce the analysis — this is your single exit. Open questions and operator forks are the
**Discovery** stage's job, and it has already run before you: any ambiguity or contradiction the
user needed to resolve was raised and answered upstream, and those answers are in the decision
history above. Treat the request as settled, ground your requirements in what you actually read,
and do not ask the user anything. Do not design or plan yet.
Do not ask questions; discovery owns clarification. Do not design or implement.
@@ -7,8 +7,8 @@ message; call `emit_artifact` and nothing else.
## Inputs available to you
- `analysis` artifact — structured findings from the analyst stage (goal, constraints,
risks, open questions).
- `dod` artifact — the fixed acceptance contract from the analyst. Every implementation and
review stage must consume it and must not widen it.
- Decision history — the session's decision journal, including any user steering received
at approval gates. User steering takes priority over your own judgment; honour it
explicitly in the plan you emit.
@@ -48,7 +48,7 @@ Emit a JSON object that validates against the `execution_plan` schema:
## Rules
**goal** — one sentence, derived from the analysis artifact and any user steering.
**goal** — one sentence, derived from the DoD artifact and any user steering.
**stages** — ordered list; each stage must:
- Have a unique `id` in `snake_case`.
@@ -60,6 +60,8 @@ Emit a JSON object that validates against the `execution_plan` schema:
llm-emitted kind.
- Declare `needs`: every upstream artifact id the stage's prompt references. Every id in
`needs` must be `produces`d by a strictly earlier stage.
- Every implementation and review stage must include the session-scoped `dod` artifact in
`needs`. The compiler also enforces this seam.
- Include `tools` per stage as it needs them, using only names from this set:
`file_read`, `file_write`, `file_edit`, `list_dir`, `shell`, `task_context`, `task_update`,
`task_search`. Stages that write or edit files take the file set
@@ -101,7 +103,12 @@ Emit a JSON object that validates against the `execution_plan` schema:
always pass the template/preset arg the generator requires (`-- --template react-ts`) since
there's no prompt to fall back on. `file_write` is the fallback when no generator fits the
stack. Only bare remote runners (`npx`, `bunx`, `pnpx`) stay blocked — they execute arbitrary
remote code; reach them via `npm create` instead.
remote code; reach them via `npm create` instead. A scaffold/generator stage emits an
open-ended file set (a whole `frontend/src/**` tree, not two named files), so declare its
`writes` as the covering directory glob — `["frontend/**"]`, **not** an enumerated
`["frontend/package.json", "frontend/vite.config.ts"]`. A too-narrow `writes` becomes the
stage's write manifest and blocks every file the generator legitimately produces. Use `**`
(recursive), not `*` (one level) — `frontend/*` does not cover `frontend/src/main.tsx`.
- **Every stage prompt must describe its exact JSON output structure when using a
structured kind.** The model that runs the stage never sees the raw JSON schema — it only sees
the kind's name (e.g. `analysis`, `research_report`, `review_report`) and the prompt you write
@@ -141,12 +148,15 @@ Emit a JSON object that validates against the `execution_plan` schema:
`field`: `"verdict"`, `value`: `"approved"`, `operator`: `"eq"``to: "done"`
- `"type": "artifact_field_equals"`, `artifact_id`: reviewer's produces id,
`field`: `"verdict"`, `value`: `"approved"`, `operator`: `"neq"``to: "<implement_stage_id>"`
- A reviewer prompt must use only DoD rows tagged `verified_by: reviewer`: approve iff every such
row is met and no `out_of_scope` item was introduced. It must cite failed criterion ids and may
not invent new requirements. Criteria tagged `gate` are already decided upstream.
- Every stage except the first must have an inbound edge from an earlier stage; every
stage must have an outbound edge. Unreachable stages fail to compile.
## Constraints
- Do not add stages, roles, or tools not justified by the analysis artifact.
- Do not add stages, roles, or tools not justified by the DoD artifact.
- Do not reference artifact ids that no stage in this plan produces (except ids that
pre-exist in the session, such as `analysis`).
- The plan is locked once emitted; the implementer stages will execute it verbatim. Be
+40 -5
View File
@@ -22,24 +22,47 @@ Two checks, both grounded in what you actually read:
endpoint.
Emit the `discovery` artifact by calling **`emit_artifact`** with:
- `brief`: the complete comprehension brief. Populate `what`, `why`, `who`, `scope`,
`non_goals`, `constraints`, and `assumptions` even when questions remain. Use assumptions for
reasonable, visible defaults instead of parking on micro-decisions.
- `ready`: `true` when the request is clear and grounded enough to hand to the analyst; `false`
when you are raising questions.
- `questions`: the open questions (empty when `ready` is true). Batch **all** of them into this
one list — do not ask one at a time. Each entry is an object:
- `prompt` (required): the question, in full.
- `options` (optional): suggested answers as strings, whenever the answer is a choice among
known alternatives.
- `options` (**required whenever the answer is a choice among known alternatives** — and it
almost always is: stack, library, endpoint, layout, priority are all choices among things you
can name). Provide 24 concrete prefilled answers as strings. An open-ended question with no
`options` is only acceptable when no candidate set exists at all. Empty `options` on a
choice-question is a defect — enumerate the real candidates you found in the repo.
- `multiSelect` (optional, default false): true if more than one option may apply.
- `header` (optional): a 12 word label (e.g. "Scope", "Stack", "Endpoint").
**Default to proceeding.** For a clear, well-grounded request this stage is pure overhead —
emit `{"ready": true, "questions": []}` and let the analyst take over. Only ask when a genuine
**Default to proceeding.** First inspect enough of the repository to enumerate the whole question
surface, then ask every genuine operator-only question in one batch. For a clear, well-grounded
request, proceed with visible assumptions. Do not raise one question, re-enter, and discover
another question that the same initial inspection could have exposed.
**Converge once answered.** If the decision history above already contains the operator's answers
to your questions, you are done vetting — emit the brief with `ready: true` and empty `questions`.
Do NOT re-explore the repo hunting for new questions after the operator has answered; fold their
answers into the brief and hand off. You get **one** clarification round: ask everything up front,
then commit. Endless re-inspection is a failure, not diligence.
fork or contradiction blocks planning. Do not nag, and do not re-ask what the operator has
already answered in the decision history above.
Example (needs input):
```json
{
"brief": {
"what": "Build a browser client for the existing session API.",
"why": "Operators need a visual session surface.",
"who": ["operators"],
"scope": ["browser session client"],
"non_goals": ["server protocol redesign"],
"constraints": ["reuse the existing endpoint"],
"assumptions": []
},
"ready": false,
"questions": [
{"prompt": "Which frontend stack should the UI target?",
@@ -52,5 +75,17 @@ Example (needs input):
Example (clear — the common case):
```json
{ "ready": true, "questions": [] }
{
"brief": {
"what": "Add the requested deterministic validation gate.",
"why": "Prevent invalid output from reaching review.",
"who": ["workflow authors", "operators"],
"scope": ["gate execution and recorded verdict"],
"non_goals": ["workflow topology redesign"],
"constraints": ["replay uses recorded observations"],
"assumptions": ["existing event-store contracts remain authoritative"]
},
"ready": true,
"questions": []
}
```
@@ -12,4 +12,7 @@ data class ModelDescriptor(
val idleTimeoutMs: Long = 60_000L,
val contextSize: Int = 24_576,
val capabilities: Set<CapabilityScore> = emptySet(),
/** Extra llama-server CLI args (already flattened to token order), e.g. draft-MTP speculative
* decoding: `-md <draft.gguf> -ngld 99 --spec-type draft-mtp --spec-draft-n-max 4`. */
val extraArgs: List<String> = emptyList(),
)
@@ -66,7 +66,7 @@ class DefaultModelManager(
"--ctx-size", descriptor.contextSize.toString(),
"--host", host,
"--port", port.toString(),
)
) + descriptor.extraArgs
val lp = LlamaProcess(command, logFile)
lp.start()
lp
@@ -170,6 +170,10 @@ object InfrastructureModule {
residencyMode = ResidencyMode.PERSISTENT,
contextSize = config.contextSize,
capabilities = parseCapabilitiesFromConfig(config.capabilities),
// [[models]] `params` (a flag->value map) passes straight through to llama-server, e.g.
// draft-MTP speculative decoding. Flatten to token order; each stays a distinct argv entry
// (no shell), so paths with spaces are safe.
extraArgs = config.params.flatMap { (flag, value) -> listOf(flag, value) },
)
private fun parseCapabilitiesFromConfig(capsMap: Map<String, Double>): Set<CapabilityScore> {
@@ -42,6 +42,27 @@ class InfrastructureModuleModelTest {
assertEquals(0.8, codingScore!!.score)
}
@Test
fun `modelConfigToDescriptor flattens params into extraArgs for llama-server`() {
val config = ModelConfig(
id = "mtp-model",
modelPath = "/models/main.gguf",
params = linkedMapOf(
"-md" to "/models/draft.gguf",
"-ngld" to "99",
"--spec-type" to "draft-mtp",
"--spec-draft-n-max" to "4",
),
)
val descriptor = InfrastructureModule.modelConfigToDescriptor(config)
assertEquals(
listOf("-md", "/models/draft.gguf", "-ngld", "99", "--spec-type", "draft-mtp", "--spec-draft-n-max", "4"),
descriptor.extraArgs,
)
}
@Test
fun `modelConfigToDescriptor handles empty capabilities`() {
val config = ModelConfig(
@@ -154,6 +154,12 @@ class FileEditTool(
) ->
ValidationResult.Invalid("Missing 'target' or 'replacement' parameter for 'replace' operation.")
// Anchor validity is checkable now, so reject a bad target BEFORE the approval gate
// fires — mirroring read/write's file-exists / read-before-write pre-checks. Without
// this the operator is prompted to approve an edit that then dies "Target not found"
// at execute time. Recoverable: the model corrects the anchor and retries.
operation == "replace" -> validateReplaceAnchor(path, pathString, request)
operation == "patch" && !request.parameters.containsKey("patch") ->
ValidationResult.Invalid("Missing 'patch' parameter for 'patch' operation.")
@@ -177,6 +183,29 @@ class FileEditTool(
private fun isPathAllowed(path: Path): Boolean =
PathJail.isContained(path, normalizedAllowedPaths)
/** Valid iff the replace target occurs exactly once. Same 0/>1 messaging as [replace] at execute. */
private fun validateReplaceAnchor(path: Path, pathString: String, request: ToolRequest): ValidationResult {
val target = request.parameters["target"] as? String ?: return ValidationResult.Valid
val content = Files.readString(path)
return when (val occurrences = content.split(target).size - 1) {
1 -> ValidationResult.Valid
0 -> ValidationResult.Invalid(targetNotFoundMessage(pathString, content, target))
else -> ValidationResult.Invalid(targetAmbiguousMessage(pathString, occurrences))
}
}
private fun targetNotFoundMessage(pathString: String, content: String, target: String): String =
buildString {
append("Target not found in $pathString")
nearestLine(content, target)?.let {
append(". Did you mean (whitespace/content may differ): $it ?")
}
}
private fun targetAmbiguousMessage(pathString: String, occurrences: Int): String =
"Target found $occurrences times in $pathString, expected exactly once — " +
"extend it with surrounding lines to make it unique."
private fun mapExceptionToValidationResult(e: Throwable): ValidationResult =
when (e) {
is InvalidPathException -> ValidationResult.Invalid("Invalid path format: ${e.message}")
@@ -270,18 +299,12 @@ class FileEditTool(
// always whitespace/content drift the model can correct from a nudge.
0 -> ToolResult.Failure(
invocationId = request.invocationId,
reason = buildString {
append("Target not found in $pathString")
nearestLine(currentContent, target)?.let {
append(". Did you mean (whitespace/content may differ): $it ?")
}
},
reason = targetNotFoundMessage(pathString, currentContent, target),
recoverable = true,
)
else -> ToolResult.Failure(
invocationId = request.invocationId,
reason = "Target found $occurrences times in $pathString, expected exactly once — " +
"extend it with surrounding lines to make it unique.",
reason = targetAmbiguousMessage(pathString, occurrences),
recoverable = true,
)
}
@@ -154,6 +154,15 @@ class FileWriteTool(
val originalContent = runCatching { Files.readString(path) }.getOrDefault("")
// Clobber guard (#245): a full overwrite that shrinks an existing non-trivial file to an
// elided stub (literal `...` placeholders) is almost always the model writing a file from
// memory instead of editing it — the incident that silently broke SessionRoutes.kt. Block it
// (recoverable) and force a targeted file_edit. Independent of approval tier because the
// auto-driver approves T2 writes without a human looking.
clobberReason(originalContent, content)?.let { reason ->
return@withContext ToolResult.Failure(request.invocationId, reason, recoverable = true)
}
val result = runCatching {
Files.createDirectories(path.parent)
AtomicFileWriter.write(path, content.toByteArray(Charsets.UTF_8))
@@ -180,6 +189,30 @@ class FileWriteTool(
}
}
/**
* Returns a rejection reason when [newContent] would overwrite a non-trivial existing file
* ([oldContent]) with a drastically-shrunk elided stub, else null. Requires BOTH a big shrink
* and elision markers so legitimate refactors that only shrink (dead-code removal) and new-file
* scaffolds that only elide (target didn't exist → oldContent is "") both pass untouched.
*/
private fun clobberReason(oldContent: String, newContent: String): String? {
val oldLines = oldContent.lines().count { it.isNotBlank() }
if (oldLines < MIN_GUARDED_LINES) return null
val newLines = newContent.lines().count { it.isNotBlank() }
val shrankHard = newLines < oldLines * MAX_SHRINK_RATIO
if (!shrankHard || !hasElisionMarker(newContent)) return null
return "Refusing full overwrite: this replaces $oldLines lines of existing code with a " +
"$newLines-line stub containing '...' placeholders. Use file_edit (operation 'replace') " +
"for a targeted change instead of rewriting the whole file from memory."
}
/** A line that is just an elision placeholder (`...`, `// ...`, `# ... existing code ...`). */
private fun hasElisionMarker(content: String): Boolean =
content.lineSequence().any { line ->
val t = line.trim().trim('/', '#', '*', '<', '!', '-', ' ')
t == "..." || t == "" || t.endsWith(" ...") || t.endsWith("")
}
private fun handleExecutionException(
e: Throwable,
invocationId: ToolInvocationId,
@@ -207,4 +240,9 @@ class FileWriteTool(
recoverable = false,
)
}
private companion object {
const val MIN_GUARDED_LINES = 30
const val MAX_SHRINK_RATIO = 0.4
}
}
@@ -95,6 +95,34 @@ class FileEditToolTest {
assertTrue((result as ValidationResult.Invalid).reason.contains("File not found"))
}
@Test
fun `validateRequest rejects a replace whose target is absent or ambiguous, before execute`(): Unit = runBlocking {
val tempDir = Files.createTempDirectory("file_edit_anchor")
val filePath = tempDir.resolve("test.txt")
Files.writeString(filePath, "alpha\nbeta\nbeta\n")
val tool = FileEditTool(allowedPaths = setOf(tempDir))
val absent = tool.validateRequest(
createRequest(mapOf("operation" to "replace", "path" to filePath.toString(),
"target" to "gamma", "replacement" to "x")),
)
assertTrue(absent is ValidationResult.Invalid)
assertTrue((absent as ValidationResult.Invalid).reason.contains("Target not found"))
val ambiguous = tool.validateRequest(
createRequest(mapOf("operation" to "replace", "path" to filePath.toString(),
"target" to "beta", "replacement" to "x")),
)
assertTrue(ambiguous is ValidationResult.Invalid)
assertTrue((ambiguous as ValidationResult.Invalid).reason.contains("expected exactly once"))
val unique = tool.validateRequest(
createRequest(mapOf("operation" to "replace", "path" to filePath.toString(),
"target" to "alpha", "replacement" to "x")),
)
assertEquals(ValidationResult.Valid, unique)
}
@Test
fun `validateRequest returns Invalid for missing parameters`(): Unit = runBlocking {
val tempDir = Files.createTempDirectory("file_edit_test")
@@ -132,6 +132,35 @@ class FileWriteToolTest {
assertEquals("hello", Files.readString(target))
}
@Test
fun `clobber guard blocks overwriting real code with an elided stub`(): Unit = runBlocking {
val tempDir = Files.createTempDirectory("file_write_clobber")
val target = tempDir.resolve("Routes.kt")
Files.writeString(target, (1..273).joinToString("\n") { "line $it = something()" })
val tool = FileWriteTool(allowedPaths = setOf(tempDir))
val stub = "fun routes() {\n // ... existing routes ...\n ...\n}"
val result = tool.execute(createRequest(mapOf("path" to target.toString(), "content" to stub)))
assertTrue(result is ToolResult.Failure)
result as ToolResult.Failure
assertTrue(result.recoverable)
assertTrue(result.reason.contains("file_edit"))
assertEquals(273, Files.readString(target).lines().size) // original untouched
}
@Test
fun `clobber guard allows a genuine shrink with no placeholders`(): Unit = runBlocking {
val tempDir = Files.createTempDirectory("file_write_shrink")
val target = tempDir.resolve("Routes.kt")
Files.writeString(target, (1..273).joinToString("\n") { "line $it = something()" })
val tool = FileWriteTool(allowedPaths = setOf(tempDir))
val trimmed = (1..40).joinToString("\n") { "kept $it = something()" }
val result = tool.execute(createRequest(mapOf("path" to target.toString(), "content" to trimmed)))
assertTrue(result is ToolResult.Success)
assertEquals(trimmed, Files.readString(target))
}
@Test
fun `write atomically overwrites an existing file and leaves no temp files`(): Unit = runBlocking {
val tempDir = Files.createTempDirectory("file_write_overwrite")
@@ -164,15 +164,30 @@ class ShellTool(
}
}
// argv[0] is the program name; embedded quotes/commas/whitespace mean the array collapsed into
// one string element and there is no real executable to run.
private fun checkExecutable(argv: List<String>): ArgvParse =
if (argv[0].any { it == '"' || it == ',' || it.isWhitespace() }) {
// argv[0] is the program name. A single element carrying whitespace is the weak-model "whole
// command line in one string" collapse (["npm create vite@latest frontend"]) — split it into
// tokens so the denylist, allowlist and executor all see a real argv, instead of rejecting it and
// looping the stage on a call the model reliably re-emits. A JSON-escape mangle collapses
// differently — it leaves quotes/commas in argv[0] (["npm\",\"-v"]) — and stays rejected: there is
// no runnable program to recover. (Splitting on whitespace loses quoting of args with spaces —
// same ceiling as the `sh -c` join below; fine for agent shell use, not a general shell API.)
private fun checkExecutable(raw: List<String>): ArgvParse {
val argv = if (raw.size == 1 && raw[0].any { it.isWhitespace() } &&
raw[0].none { it == '"' || it == ',' }
) {
raw[0].trim().split(WHITESPACE_RE)
} else {
raw
}
return if (argv[0].any { it == '"' || it == ',' || it.isWhitespace() }) {
ArgvParse.Bad(
"argv[0] `${argv[0]}` is not a valid executable name — it looks like a collapsed array. " +
"Emit each token as a separate string element, e.g. [\"npm\", \"-v\"].",
)
} else ArgvParse.Ok(argv)
} else {
ArgvParse.Ok(argv)
}
}
override suspend fun execute(request: ToolRequest): ToolResult = withContext(Dispatchers.IO) {
validateRequest(request).run {
@@ -221,6 +236,7 @@ class ShellTool(
// (line 250 of 500) survives the head/tail window instead of being silently dropped.
const val SALIENCE_PATTERN = "error|fail|exception|panic|traceback|✗"
const val EMPTY_MSG = "Missing or empty 'argv' parameter. Expected a JSON array of strings."
val WHITESPACE_RE = Regex("\\s+")
val SHELL_BUILTINS = setOf("cd", "export", "source", ".", "pushd", "popd", "umask", "ulimit")
val SHELL_OPERATORS = setOf("&&", "||", "|", ">", ">>", "<", ";", "&", "2>", "2>&1")
// Operators that chain a new command (its following token is a command position); the rest
@@ -204,6 +204,15 @@ class ShellToolTest {
assertTrue((result as ValidationResult.Invalid).reason.contains("collapsed array"), result.reason)
}
@Test
fun `validateRequest splits a collapsed single-string command line into tokens`() {
// Repro: weak model emitted ["npm create vite@latest frontend"] — the whole command line as
// one whitespace-carrying element (no quotes/commas). Now split into tokens instead of
// rejected as a collapsed array, so the stage doesn't loop on a call the model keeps re-emitting.
val result = ShellTool().validateRequest(rawArgvRequest(listOf("npm create vite@latest frontend")))
assertTrue(result is ValidationResult.Valid, (result as? ValidationResult.Invalid)?.reason ?: "")
}
@Test
fun `execute runs a shell command line via sh -c`(): Unit = runBlocking {
// Repro: gemma called shell with a builtin/command-line ("cd apps && ..."). Now honoured
+3 -1
View File
@@ -15,7 +15,9 @@ Adapter for `core:transitions` and `core:inference` workflow interfaces. Depends
- `ExecutionPlanCompiler` converts the parsed `ExecutionPlanModel` into a runnable plan for `core:transitions`; compilation is deterministic given the same input model.
- `PlanLinter` enforces structural rules (e.g. unreachable stages are rejected); linting failures throw `WorkflowValidationException`.
- `PlanDerivedManifest` exposes the write manifest derived from a plan.
- For a plan with no explicit build expectation, `ExecutionPlanCompiler` marks every write-declaring stage for the runtime auto build gate; plans with no declared writes are not represented as compiler-verified.
- For a plan with no explicit build expectation, `ExecutionPlanCompiler` marks every write-declaring stage and the graph-terminal stage for the runtime auto build gate; plans with no declared writes are not represented as compiler-verified.
- When a plan declares a `dod` producer, freestyle implementation/review stages consume that session-scoped artifact; reviewer prompts are compiler-bound to its reviewer-owned criteria.
- `Lsp4jDiagnosticsRunner` uses LSP 3.17 pull diagnostics for registered languages and degrades to the static one-shot floor when a server is unavailable.
## Work Guidance
+2
View File
@@ -9,6 +9,8 @@ dependencies {
implementation(project(":core:events"))
implementation(project(":core:artifacts"))
implementation(project(":core:tools"))
implementation(project(":core:kernel"))
implementation("org.eclipse.lsp4j:org.eclipse.lsp4j:0.23.1")
implementation("com.fasterxml.jackson.dataformat:jackson-dataformat-toml:2.17.0")
implementation("com.fasterxml.jackson.module:jackson-module-kotlin:2.17.0")
testImplementation "org.junit.jupiter:junit-jupiter"
@@ -19,6 +19,8 @@ import java.nio.file.Path
private const val TERMINAL = "done"
private const val RECOVERY_STAGE = "recovery"
private const val DOD_ARTIFACT = "dod"
private const val STATIC_FLOOR_COMMAND = "correx-static-floor"
// Synthesized recovery stage prompt. Freestyle plans are LLM-emitted and never declare a recovery
// stage, but the kernel's retry-agency guard routes a write-less stage's unfixable gate failure to
@@ -85,7 +87,16 @@ class ExecutionPlanCompiler(
.disable(DeserializationFeature.FAIL_ON_UNKNOWN_PROPERTIES)
.build()
fun compile(planJson: String, workflowId: String): WorkflowGraph {
/**
* @param sessionArtifactIds artifact ids already produced earlier in the same freestyle session
* (e.g. the planning-phase `dod`). The execution plan never re-declares these, so they must be
* passed in for the cross-workflow `needs` seam (#264) to thread the DoD into impl/review stages.
*/
fun compile(
planJson: String,
workflowId: String,
sessionArtifactIds: Set<String> = emptySet(),
): WorkflowGraph {
val plan = runCatching { mapper.readValue<ExecutionPlanModel>(planJson) }
.getOrElse { throw WorkflowValidationException("Failed to parse execution_plan JSON: ${it.message}") }
if (plan.stages.isEmpty()) throw WorkflowValidationException("execution_plan has no stages")
@@ -115,10 +126,13 @@ class ExecutionPlanCompiler(
// FileWritten manifest — the plan's declared kinds don't reveal code-ness, but the written
// paths do — so a docs-only plan is left alone and a code plan is always gated.
val autoGateStages: Set<String> = if (declaredExpectations.values.all { it == BuildExpectation.NONE }) {
plan.stages.filter { it.writes.any { path -> path.isNotBlank() } }.map { it.id }.toSet()
val writing = plan.stages.filter { it.writes.any { path -> path.isNotBlank() } }.map { it.id }.toSet()
if (writing.isEmpty()) emptySet() else writing + terminalStageId(plan)
} else {
emptySet()
}
val sessionArtifacts =
plan.stages.mapNotNull { it.produces.takeIf(String::isNotBlank) }.toSet() + sessionArtifactIds
val stageMap = plan.stages.associate { s ->
// `produces` is the unique slot name referenced by needs/edges; `kind` selects the
@@ -137,7 +151,7 @@ class ExecutionPlanCompiler(
).sorted()
StageId(s.id) to StageConfig(
produces = listOf(TypedArtifactSlot(name = ArtifactId(s.produces), kind = kind)),
needs = s.needs.map { ArtifactId(it) }.toSet(),
needs = (s.needs + requiredSessionArtifacts(s, sessionArtifacts)).map { ArtifactId(it) }.toSet(),
// Every stage gets the full registered tool universe. The architect's per-stage
// `tools` pick was advisory and mis-scoped stages (e.g. an edit-shaped stage granted
// file_write but not file_edit → forced full-file rewrites; a repair stage unable to
@@ -146,6 +160,7 @@ class ExecutionPlanCompiler(
// architect's pick only when no universe was supplied (bare-constructor unit tests).
allowedTools = knownTools.ifEmpty { s.tools.toSet() },
writeManifest = writeManifest,
staticAnalysis = staticFloorCommands(writeManifest),
// Option A: the concrete (non-glob) subset of the declared writes are expected files
// the contract gate will require to exist. Globs (src/**) are write-permission scopes,
// not existence guarantees, so they are excluded here.
@@ -156,7 +171,7 @@ class ExecutionPlanCompiler(
semanticReview = s.semanticReview,
tokenBudget = DEFAULT_STAGE_TOKEN_BUDGET,
generationConfig = defaultStageGeneration,
metadata = mapOf("promptInline" to s.prompt),
metadata = mapOf("role" to s.role, "promptInline" to reviewerBoundPrompt(s, DOD_ARTIFACT in sessionArtifacts)),
)
}
// Inject a recovery stage unless the plan already declares one. Reached only by the kernel's
@@ -291,6 +306,31 @@ class ExecutionPlanCompiler(
private fun terminalStageId(plan: ExecutionPlanModel): String =
plan.edges.firstOrNull { it.to == TERMINAL }?.from ?: plan.stages.last().id
private fun requiredSessionArtifacts(stage: PlanStage, sessionArtifacts: Set<String>): List<String> =
if (
DOD_ARTIFACT in sessionArtifacts &&
stage.role.lowercase() in setOf("impl", "implementer", "review", "reviewer")
) {
listOf(DOD_ARTIFACT)
} else {
emptyList()
}
private fun reviewerBoundPrompt(stage: PlanStage, dodPresent: Boolean): String {
if (!dodPresent || stage.role.lowercase() !in setOf("review", "reviewer")) return stage.prompt
return stage.prompt + "\n\n" +
"The `dod` input artifact is your sole acceptance rubric. Judge only criteria tagged " +
"`verified_by: reviewer`; deterministic gates own `verified_by: gate`. Approve if and only if " +
"every reviewer criterion is met and no `out_of_scope` item was introduced. On rejection, " +
"cite the unmet criterion ids. Never add or imply criteria outside the DoD."
}
private fun staticFloorCommands(writeManifest: List<String>): List<String> {
return writeManifest.takeIf { it.isNotEmpty() }
?.let { listOf("$STATIC_FLOOR_COMMAND -- ${it.joinToString(" ")}") }
?: emptyList()
}
private fun isGlob(path: String): Boolean = path.any { it == '*' || it == '?' || it == '[' }
private fun validateReachability(
@@ -10,6 +10,7 @@ data class ExecutionPlanModel(
data class PlanStage(
val id: String = "",
val role: String = "",
val prompt: String = "",
val produces: String = "",
val kind: String? = null,
@@ -0,0 +1,142 @@
package com.correx.infrastructure.workflow
import com.correx.core.events.events.LspDiagnostic
import com.correx.core.kernel.orchestration.LspDiagnosticsRequest
import com.correx.core.kernel.orchestration.LspDiagnosticsResult
import com.correx.core.kernel.orchestration.LspDiagnosticsRunner
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.withContext
import org.eclipse.lsp4j.ClientCapabilities
import org.eclipse.lsp4j.DidOpenTextDocumentParams
import org.eclipse.lsp4j.DocumentDiagnosticParams
import org.eclipse.lsp4j.InitializeParams
import org.eclipse.lsp4j.InitializedParams
import org.eclipse.lsp4j.MessageActionItem
import org.eclipse.lsp4j.MessageParams
import org.eclipse.lsp4j.PublishDiagnosticsParams
import org.eclipse.lsp4j.ShowMessageRequestParams
import org.eclipse.lsp4j.TextDocumentIdentifier
import org.eclipse.lsp4j.TextDocumentItem
import org.eclipse.lsp4j.launch.LSPLauncher
import org.eclipse.lsp4j.services.LanguageClient
import java.nio.file.Files
import java.util.concurrent.CompletableFuture
import java.util.concurrent.TimeUnit
import kotlin.coroutines.cancellation.CancellationException
data class LspServerSpec(val id: String, val command: List<String>, val languageId: String)
class LspServerRegistry(
private val byExtension: Map<String, LspServerSpec> = defaults,
) {
fun serverFor(path: String): LspServerSpec? = byExtension[path.substringAfterLast('.', "").lowercase()]
companion object {
private val typescript = LspServerSpec(
"tsserver",
listOf("typescript-language-server", "--stdio"),
"typescriptreact",
)
private val rust = LspServerSpec("rust-analyzer", listOf("rust-analyzer"), "rust")
private val go = LspServerSpec("gopls", listOf("gopls"), "go")
private val clangd = LspServerSpec("clangd", listOf("clangd"), "cpp")
val defaults = mapOf(
"ts" to typescript.copy(languageId = "typescript"),
"tsx" to typescript,
"js" to typescript.copy(languageId = "javascript"),
"jsx" to typescript.copy(languageId = "javascriptreact"),
"rs" to rust,
"go" to go,
"c" to clangd.copy(languageId = "c"),
"cc" to clangd,
"cpp" to clangd,
"h" to clangd.copy(languageId = "c"),
"hpp" to clangd,
)
}
}
/** LSP 3.17 pull-diagnostics adapter. Missing servers degrade to the static one-shot floor. */
class Lsp4jDiagnosticsRunner(
private val registry: LspServerRegistry = LspServerRegistry(),
private val timeoutSeconds: Long = 30,
) : LspDiagnosticsRunner {
override suspend fun pull(request: LspDiagnosticsRequest): LspDiagnosticsResult = withContext(Dispatchers.IO) {
val groups = request.paths
.mapNotNull { path -> registry.serverFor(path)?.let { it to path } }
.groupBy({ it.first }, { it.second })
if (groups.isEmpty()) {
return@withContext LspDiagnosticsResult(skippedReason = "no language server registered for touched files")
}
val diagnostics = mutableListOf<LspDiagnostic>()
val skipped = mutableListOf<String>()
groups.forEach { (server, paths) ->
runCatching { diagnostics += pullFromServer(request, server, paths) }
.onFailure {
if (it is CancellationException) throw it
skipped += "${server.id}: ${it.message ?: it::class.simpleName}"
}
}
LspDiagnosticsResult(
server = groups.keys.joinToString(",") { it.id },
diagnostics = diagnostics,
skippedReason = skipped.takeIf { it.isNotEmpty() }?.joinToString("; "),
)
}
private fun pullFromServer(
request: LspDiagnosticsRequest,
spec: LspServerSpec,
paths: List<String>,
): List<LspDiagnostic> {
val process = ProcessBuilder(spec.command).directory(request.workspaceRoot.toFile()).start()
val stderrDrain = Thread.ofVirtual().start { process.errorStream.bufferedReader().use { it.readText() } }
val launcher = LSPLauncher.createClientLauncher(QuietLanguageClient, process.inputStream, process.outputStream)
val listening = launcher.startListening()
val server = launcher.remoteProxy
return try {
server.initialize(
InitializeParams().apply {
rootUri = request.workspaceRoot.toUri().toString()
capabilities = ClientCapabilities()
},
).get(timeoutSeconds, TimeUnit.SECONDS)
server.initialized(InitializedParams())
paths.flatMap { path ->
val file = request.workspaceRoot.resolve(path).normalize()
val uri = file.toUri().toString()
server.textDocumentService.didOpen(
DidOpenTextDocumentParams(TextDocumentItem(uri, spec.languageId, 1, Files.readString(file))),
)
val report = server.textDocumentService.diagnostic(
DocumentDiagnosticParams(TextDocumentIdentifier(uri)),
).get(timeoutSeconds, TimeUnit.SECONDS)
report.relatedFullDocumentDiagnosticReport.items.orEmpty().map { diagnostic ->
LspDiagnostic(
path = path,
line = diagnostic.range.start.line,
character = diagnostic.range.start.character,
severity = diagnostic.severity?.name?.lowercase() ?: "error",
code = diagnostic.code?.let { if (it.isLeft) it.left else it.right.toString() },
message = diagnostic.message,
)
}
}
} finally {
runCatching { server.shutdown().get(timeoutSeconds, TimeUnit.SECONDS) }
server.exit()
listening.cancel(true)
process.destroy()
stderrDrain.join(TimeUnit.SECONDS.toMillis(1))
}
}
private object QuietLanguageClient : LanguageClient {
override fun telemetryEvent(`object`: Any?) = Unit
override fun publishDiagnostics(diagnostics: PublishDiagnosticsParams) = Unit
override fun showMessage(messageParams: MessageParams) = Unit
override fun showMessageRequest(requestParams: ShowMessageRequestParams): CompletableFuture<MessageActionItem> =
CompletableFuture.completedFuture(null)
override fun logMessage(message: MessageParams) = Unit
}
}
@@ -35,14 +35,35 @@ object PlanGrounder {
graph: WorkflowGraph,
repoMapPaths: Set<String>,
profileCommands: Map<String, String>,
// False = no repo scan was recorded for this session, so [repoMapPaths] is "unknown", not
// "empty workspace". Scope grounding proves a path ABSENT, which an unknown set can't do —
// running it against a missing scan flags every real path as nonexistent (the apps/server
// "doesn't exist?!" false reject). Skip scope grounding then; the build-manifest check still
// runs (it degrades safely via manifestProducedByPlan). A recorded scan with 0 entries is a
// genuine greenfield workspace — scanned=true, so scope grounding still catches a missing scaffold.
scanned: Boolean = true,
): PlanGroundingResult {
val manifestInWorkspace = repoMapPaths.any(::isBuildManifest)
val manifestProducedByPlan = graph.stages.values
.flatMap { it.writeManifest + it.expectedFiles }
.any(::isBuildManifest)
val prerequisiteAvailable = manifestInWorkspace || manifestProducedByPlan
// Files any stage in the plan will create — the "will exist by run time" set for scope grounding.
// A stage that can WRITE files (`file_write`) POPULATES its declared `touches` scope at run time
// — including files a scaffolder (`npm create vite …`) generates but the plan never declares in
// `writes`/`expectedFiles` (the architect prompt tells the model to use the real scaffolder, not
// hand-write package.json). Keyed on file_write, NOT shell: a scaffold stage carries file_write
// for the files it authors, whereas a read-only shell stage (log inspection, test runs, grep)
// creates nothing and must not have its scope credited. Without this, grounding rejects every
// plan that follows the scaffolder guidance (the d038468a "frontend/ doesn't exist / no manifest"
// false reject). Runtime precondition handling (#167/#170) stays the backstop for a build whose
// prerequisite genuinely never materialises.
val writeScopes = graph.stages.values
.filter { "file_write" in it.effectiveAllowedTools }
.flatMap { it.touches }
.mapNotNull(::scopePrefix)
val prerequisiteAvailable = manifestInWorkspace || manifestProducedByPlan || writeScopes.isNotEmpty()
// Files/dirs any stage in the plan will create — the "will exist by run time" set for scope grounding.
val createdPaths = graph.stages.values.flatMap { it.expectedFiles + it.writeManifest }
val findings = graph.stages.entries.flatMap { (id, cfg) ->
@@ -60,8 +81,9 @@ object PlanGrounder {
// scope that matches NOTHING in the recorded repo map AND that no plan stage creates a file
// under is grounded on a directory that will never exist — the exact session-a35cf1e3
// "scoped to EXISTING frontend/ that isn't there" failure. Caught at stage 0, not stage 11.
if (scanned) {
cfg.touches
.filter { glob -> !scopeSatisfied(glob, repoMapPaths, createdPaths) }
.filter { glob -> !scopeSatisfied(glob, repoMapPaths, createdPaths, writeScopes) }
.forEach { glob ->
add(
"stage ${id.value}: scoped to '$glob' but nothing under it exists in the repo map " +
@@ -70,6 +92,7 @@ object PlanGrounder {
}
}
}
}
return PlanGroundingResult(
verdict = if (findings.isEmpty()) PlanGroundingVerdict.PASS else PlanGroundingVerdict.RETURN_TO_ARCHITECT,
@@ -77,8 +100,21 @@ object PlanGrounder {
)
}
/** True if any existing repo-map path or any plan-created path falls under the [glob] scope. */
private fun scopeSatisfied(glob: String, repoMapPaths: Set<String>, createdPaths: List<String>): Boolean {
/**
* True if the [glob] scope will be populated by run time: an existing repo-map path or a
* plan-created path falls under it, OR it overlaps a scaffold stage's scope ([writeScopes] —
* either direction, since a scaffolder under `frontend/src` also makes a `frontend/` scope non-empty
* and a scaffolder of `frontend/` covers `frontend/src`).
*/
private fun scopeSatisfied(
glob: String,
repoMapPaths: Set<String>,
createdPaths: List<String>,
writeScopes: List<String>,
): Boolean {
scopePrefix(glob)?.let { p ->
if (writeScopes.any { it == p || it.startsWith("$p/") || p.startsWith("$it/") }) return true
}
val matcher: PathMatcher = runCatching {
FileSystems.getDefault().getPathMatcher("glob:${glob.trimStart('/')}")
}.getOrElse { return true } // ponytail: an unparseable glob is not a grounding failure — don't block on it.
@@ -86,6 +122,11 @@ object PlanGrounder {
return repoMapPaths.any(::matches) || createdPaths.any(::matches)
}
// A scope glob reduced to its literal directory prefix (a "frontend" wildcard glob → "frontend"),
// or null when the glob has no literal prefix.
private fun scopePrefix(glob: String): String? =
glob.trimStart('/').substringBefore('*').trimEnd('/').ifEmpty { null }
private fun isBuildManifest(path: String): Boolean =
path.substringAfterLast('/').lowercase() in BUILD_MANIFEST_FILENAMES
@@ -37,14 +37,17 @@ object PlanLinter {
* planning phase, not by any plan stage. The architect prompt explicitly allows `needs` to
* reference these (notably `analysis`), so the linter must treat them as available producers.
*/
private val seedArtifacts = setOf("analysis")
private val seedArtifacts = setOf("analysis", "dod")
fun lint(graph: WorkflowGraph, seeds: Set<String> = seedArtifacts): PlanLintResult =
PlanLintResult(
hardFailures = unproducedNeeds(graph, seeds) +
trapStates(graph) +
// HARD = deterministic graph facts, provably broken regardless of wording. SOFT = heuristics
// (incl. H3's prose word-match, which cannot tell a forgotten dep from a descriptive mention)
// — they score the plan but must NOT block it, or a weak architect burns retries it can't
// reword its way out of.
hardFailures = unproducedNeeds(graph, seeds) + trapStates(graph),
softFindings = stageCount(graph) + fanOut(graph) + emptyBriefs(graph) + duplicateBriefs(graph) +
unreferencedPromptArtifacts(graph, seeds),
softFindings = stageCount(graph) + fanOut(graph) + emptyBriefs(graph) + duplicateBriefs(graph),
)
/** H1: a stage `needs` an artifact that neither a plan stage `produces` nor a seed provides. */
@@ -92,14 +95,21 @@ object PlanLinter {
}
/**
* H3: a stage's inline prompt mentions an artifact ID that is produced by the plan or
* provided by a seed, but the stage does not declare it in its `needs`. The stage will
* not have access to that artifact at runtime, so any reference in the prompt is a dangling
* assumption that will confuse or stall the model — force the architect to either add the
* artifact to `needs` or reword the prompt.
* H3 (SOFT): a stage's inline prompt word-matches a plan-produced artifact ID the stage does not
* declare in `needs` — possibly a dangling reference the model can't resolve at runtime. This is a
* prose heuristic, not a graph fact: it cannot distinguish a forgotten dependency from a
* descriptive mention ("unlike the `report` stage"), so it only penalises the plan's score and
* never blocks it. Seeds are excluded (see below); a genuine missing consumption is still caught
* structurally by H1 when the stage actually declares the `needs`.
*/
private fun unreferencedPromptArtifacts(graph: WorkflowGraph, seeds: Set<String>): List<PlanLintFinding> {
val produced = graph.stages.values.flatMap { it.produces }.map { it.name.value }.toSet() + seeds
// Only plan-PRODUCED artifacts are checked — a prompt that references a distinctly-named one
// (e.g. `server_api_analysis`) but omits it from `needs` is a real dangling dependency. Seed
// IDs (`analysis`, `dod`) are EXCLUDED: they double as ordinary words, so a prose mention
// ("refine the analysis", "meets the DoD") is not a dependency signal — flagging it just churns
// architect retries on a false positive the model cannot word around. (A stage that genuinely
// consumes a seed still declares it in `needs`; H1 keeps that path honest.)
val produced = graph.stages.values.flatMap { it.produces }.map { it.name.value }.toSet() - seeds
return graph.stages.entries.flatMap { (id, stage) ->
val prompt = briefOf(stage)
val needIds = stage.needs.map { it.value }.toSet()
@@ -499,6 +499,63 @@ class ExecutionPlanCompilerTest {
graph.stages[StageId("entry")]!!.autoBuildGate,
"implementation stages must not defer compiler coverage to a terminal verifier",
)
assertTrue(graph.stages[StageId("entry")]!!.staticAnalysis.single().contains("src/main.tsx"))
assertTrue(graph.stages[StageId("views")]!!.staticAnalysis.single().contains("src/App.tsx"))
}
@Test
fun `non-writing review terminal receives the auto build gate`() {
val planned = """
{
"goal": "implement then review",
"stages": [
{ "id": "impl", "role": "implementer", "prompt": "write code", "produces": "code",
"kind": "react_entry", "writes": ["src/main.tsx"] },
{ "id": "review", "role": "reviewer", "prompt": "review against dod", "produces": "verdict",
"kind": "react_component", "needs": ["code"] }
],
"edges": [
{ "from": "impl", "to": "review", "condition": { "type": "always_true" } },
{ "from": "review", "to": "done", "condition": { "type": "always_true" } }
]
}
""".trimIndent()
val graph = codeCompiler.compile(planned, "wf")
assertTrue(graph.stages.getValue(StageId("review")).autoBuildGate)
// No dod in session → nothing to thread (execution plan never re-produces it).
assertTrue(graph.stages.getValue(StageId("review")).needs.none { it.value == "dod" })
// Planning-phase dod present in the session → threaded into impl + review needs (#264 seam).
val withDod = codeCompiler.compile(planned, "wf", sessionArtifactIds = setOf("dod"))
assertTrue(withDod.stages.getValue(StageId("review")).needs.any { it.value == "dod" })
assertTrue(withDod.stages.getValue(StageId("impl")).needs.any { it.value == "dod" })
}
@Test
fun `implementation and review consume dod only when the plan produces it`() {
val planned = """
{
"goal": "define, implement, and review",
"stages": [
{ "id": "analyst", "role": "analyst", "prompt": "define dod", "produces": "dod",
"kind": "react_component" },
{ "id": "impl", "role": "implementer", "prompt": "write code", "produces": "code",
"kind": "react_entry", "writes": ["src/main.tsx"] },
{ "id": "review", "role": "reviewer", "prompt": "review", "produces": "verdict",
"kind": "react_component", "needs": ["code"] }
],
"edges": [
{ "from": "analyst", "to": "impl", "condition": { "type": "always_true" } },
{ "from": "impl", "to": "review", "condition": { "type": "always_true" } },
{ "from": "review", "to": "done", "condition": { "type": "always_true" } }
]
}
""".trimIndent()
val graph = codeCompiler.compile(planned, "wf-with-dod")
assertTrue(graph.stages.getValue(StageId("impl")).needs.any { it.value == "dod" })
assertTrue(graph.stages.getValue(StageId("review")).needs.any { it.value == "dod" })
}
@Test
@@ -28,6 +28,7 @@ class FreestylePlanningWorkflowTest {
private val registry = DefaultArtifactKindRegistry().apply {
register(llmKind("discovery"))
register(llmKind("analysis"))
register(llmKind("dod"))
register(llmKind("execution_plan"))
}
@@ -64,7 +65,7 @@ class FreestylePlanningWorkflowTest {
"architect must produce execution_plan",
)
assertTrue(architect.needs.map { it.value }.contains("analysis"), "architect needs analysis")
assertTrue(architect.needs.map { it.value }.contains("dod"), "architect needs the fixed DoD")
val analystToArchitect = graph.transitions.first { it.from == StageId("analyst") }
assertEquals(StageId("architect"), analystToArchitect.to)
@@ -0,0 +1,22 @@
package com.correx.infrastructure.workflow
import kotlin.test.Test
import kotlin.test.assertEquals
import kotlin.test.assertNull
class LspServerRegistryTest {
private val registry = LspServerRegistry()
@Test
fun `registry maps language extensions to servers`() {
assertEquals("tsserver", registry.serverFor("src/App.tsx")?.id)
assertEquals("rust-analyzer", registry.serverFor("src/main.rs")?.id)
assertEquals("gopls", registry.serverFor("cmd/main.go")?.id)
assertEquals("clangd", registry.serverFor("src/main.cpp")?.id)
}
@Test
fun `unknown extension falls through`() {
assertNull(registry.serverFor("README.md"))
}
}
@@ -65,6 +65,13 @@ class PlanGrounderTest {
assertTrue(r.findings.single().contains("frontend/**"))
}
@Test
fun `scanned=false skips scope grounding — a missing scan can't prove a path absent`() {
val g = graph("impl" to StageConfig(touches = listOf("frontend/**", "apps/server/**")))
val r = PlanGrounder.ground(g, repoMapPaths = emptySet(), profileCommands = cmds, scanned = false)
assertEquals(PlanGroundingVerdict.PASS, r.verdict)
}
@Test
fun `a scope satisfied by an existing repo path grounds`() {
val g = graph("impl" to StageConfig(touches = listOf("frontend/**")))
@@ -82,6 +89,34 @@ class PlanGrounderTest {
assertEquals(PlanGroundingVerdict.PASS, r.verdict)
}
@Test
fun `a file-writing scaffold stage grounds its own scope, a later scoped stage, and a build`() {
// Repro session d038468a: scaffold stage runs `npm create vite` (file_write + shell) scoped to
// frontend/, creating package.json + the tree at run time — invisible to declared writes/
// expectedFiles. Grounding must credit that scope, or it false-rejects a plan that follows the
// "use the real scaffolder" guidance (frontend/ "doesn't exist", verify stage has "no manifest").
val g = graph(
"scaffold" to StageConfig(allowedTools = setOf("shell", "file_write"), touches = listOf("frontend/")),
"design" to StageConfig(touches = listOf("frontend/**")),
"verify" to StageConfig(buildExpectation = BuildExpectation.PROJECT),
)
val r = PlanGrounder.ground(g, repoMapPaths = emptySet(), profileCommands = cmds)
assertEquals(PlanGroundingVerdict.PASS, r.verdict, "findings: ${r.findings}")
}
@Test
fun `a read-only shell stage does NOT credit its scope (no file_write, creates nothing)`() {
// A stage with shell for log inspection / test runs — not scaffolding — writes nothing, so its
// scope must not satisfy a build's manifest prerequisite. Keeps the credit keyed on create-intent.
val g = graph(
"inspect" to StageConfig(allowedTools = setOf("shell"), touches = listOf("logs/")),
"verify" to StageConfig(buildExpectation = BuildExpectation.PROJECT),
)
val r = PlanGrounder.ground(g, repoMapPaths = emptySet(), profileCommands = cmds)
assertEquals(PlanGroundingVerdict.RETURN_TO_ARCHITECT, r.verdict)
assertTrue(r.findings.any { it.contains("verify") && it.contains("no build manifest") })
}
@Test
fun `NONE expectation never grounds`() {
val g = graph("impl" to StageConfig(buildExpectation = BuildExpectation.NONE))
@@ -107,7 +107,23 @@ class PlanLinterTest {
}
@Test
fun `a prompt mentioning another stage's artifact not in needs is a hard failure`() {
fun `a prompt using a seed name as an ordinary word is not a failure`() {
// Repro: architect burned 3 retries because briefs mentioning "analysis"/"dod" as prose kept
// tripping H3 on the seed IDs — words the model cannot reword away.
val g = graph(
stages = mapOf(
"a" to stage(produces = listOf("scope"), prompt = "refine the analysis and meet the dod"),
"b" to stage(needs = listOf("scope"), prompt = "build"),
),
edges = listOf("a" to "b", "b" to "done"),
start = "a",
)
val result = PlanLinter.lint(g)
assertTrue(result.passed, "seed names in prose must not fire H3, hard=${result.hardFailures}")
}
@Test
fun `a prompt mentioning another stage's artifact not in needs is a soft finding, not a block`() {
val g = graph(
stages = mapOf(
"a" to stage(produces = listOf("plan"), prompt = "write the plan artifact"),
@@ -117,8 +133,8 @@ class PlanLinterTest {
start = "a",
)
val result = PlanLinter.lint(g)
assertFalse(result.passed)
val h = result.hardFailures.single { it.code == "unreferenced_prompt_artifact" }
assertTrue(result.passed, "H3 is a prose heuristic — it scores but must not block the plan")
val h = result.softFindings.single { it.code == "unreferenced_prompt_artifact" }
assertEquals("b", h.stageId)
assertTrue(h.detail.contains("plan"))
}
+1 -1
View File
@@ -2,7 +2,7 @@
## Purpose
End-to-end integration tests that wire multiple core modules together without live LLM or network. Covers: `SessionOrchestrator` full flows, tool-call gate, freestyle approval gate, clarification loop, steering preemption, graph reroute, artifact injection, workspace-scoped tool registry, validation pipeline integration, critique calibration wiring, session rehydration, repo-map reuse, and subagent runner seam.
End-to-end integration tests that wire multiple core modules together without live LLM or network. Covers: `SessionOrchestrator` full flows, tool-call gate, freestyle approval gate, terminal-review gate ordering, bounded review-loop recovery, clarification loop, steering preemption, graph reroute, artifact injection, workspace-scoped tool registry, validation pipeline integration, critique calibration wiring, session rehydration, repo-map reuse, and subagent runner seam.
## Ownership
@@ -52,14 +52,14 @@ import kotlinx.coroutines.withTimeout
import kotlinx.coroutines.yield
import org.junit.jupiter.api.Assertions.assertEquals
import org.junit.jupiter.api.Assertions.assertNotNull
import org.junit.jupiter.api.Assertions.assertTrue
import org.junit.jupiter.api.Test
/**
* Integration test for the producer-exit clarification loop: a stage whose produced artifact
* Integration test for the producer-exit clarification handoff: a stage whose produced artifact
* carries an unanswered `questions` array parks its run, surfaces a [ClarificationRequestedEvent],
* and on operator answer re-runs the same stage with the answers in context — without consuming the
* failure-retry budget (retry maxAttempts is 1 here). Bounded at three rounds.
* and on operator answer the run ADVANCES to the next stage with the answers in context — the
* questioning stage is not re-run (a re-run would restart inference with no prior reasoning and
* make the stage re-explore; 2026-07-18). The answers reach later stages as session-wide events.
*/
class ClarificationLoopTest {
@@ -147,7 +147,7 @@ class ClarificationLoopTest {
private val config = OrchestrationConfig(retryPolicy = RetryPolicy(maxAttempts = 1, backoffMs = 0))
@Test
fun `open questions park the stage, the answer re-runs it, then the workflow completes`():
fun `open questions park the stage, the answer advances to the next stage`():
Unit = runBlocking {
val sessionId = SessionId("clarify-happy")
val orchestrator = orchestrator(listOf(withQuestions, clean))
@@ -177,14 +177,48 @@ class ClarificationLoopTest {
)
assertNotNull(
events.find { it.payload is WorkflowCompletedEvent },
"Workflow should complete after the clarification re-run produced a clean analysis",
"Workflow should complete once the operator answered and the run advanced",
)
}
@Test
fun `clarification rounds are capped so a stuck stage still proceeds`(): Unit = runBlocking {
val sessionId = SessionId("clarify-cap")
// Always returns questions: without a cap this would loop forever.
fun `pendingClarificationFor resolves the live request server-side, then clears once answered`():
Unit = runBlocking {
// Backs the REST /clarify route (#42): a headless caller has no ClarificationRequestedEvent,
// so the server must resolve (stageId, requestId) from just the session id, and stop
// resolving it once answered.
val sessionId = SessionId("clarify-rest")
val orchestrator = orchestrator(listOf(withQuestions, clean))
val runJob = launch { orchestrator.run(sessionId, graph(), config) }
val pending = withTimeout(5_000) {
var p: ClarificationRequestedEvent? = null
while (p == null) {
p = orchestrator.pendingClarificationFor(sessionId)
if (p == null) yield()
}
p
}
assertEquals(analystStage, pending.stageId)
assertEquals("Which stack?", pending.questions.single().prompt)
orchestrator.submitClarification(
sessionId, pending.stageId, pending.requestId,
listOf(ClarificationAnswer(questionId = "stack", value = "React")),
)
runJob.join()
assertEquals(
null, orchestrator.pendingClarificationFor(sessionId),
"Answered clarification must no longer resolve as pending",
)
}
@Test
fun `a stage that emits questions parks once and is never re-run`(): Unit = runBlocking {
val sessionId = SessionId("clarify-no-rerun")
// Provider ALWAYS returns questions. Under the old re-run loop this would park up to the
// round cap; under the advance-don't-re-run contract it parks exactly once, then proceeds.
val orchestrator = orchestrator(listOf(withQuestions))
val runJob = launch { orchestrator.run(sessionId, graph(), config) }
@@ -207,10 +241,10 @@ class ClarificationLoopTest {
runJob.join()
val rounds = eventStore.read(sessionId).count { it.payload is ClarificationRequestedEvent }
assertEquals(3, rounds, "Clarification must be capped at three rounds")
assertEquals(1, rounds, "Questioning stage must park exactly once (no re-run)")
assertNotNull(
eventStore.read(sessionId).find { it.payload is WorkflowCompletedEvent },
"Workflow should proceed once the clarification cap is reached",
"Workflow should advance to completion after the single answered clarification",
)
}
}
@@ -144,6 +144,42 @@ class FreestyleApprovalGateTest {
start = analystStage,
)
/** Seeds a prior architect-gate request + resolved decision (the retry/resume situation). */
private suspend fun seedArchitectDecision(sessionId: SessionId, outcome: ApprovalOutcome) {
val requestId = com.correx.core.events.types.ApprovalRequestId("seeded-req-${outcome.name}")
eventStore.append(
com.correx.testing.fixtures.EventFixtures.newEvent(
com.correx.core.events.types.EventId("seed-req-${outcome.name}"),
sessionId,
ApprovalRequestedEvent(
requestId = requestId,
tier = Tier.T2,
validationReportId = com.correx.core.events.types.ValidationReportId("vr"),
riskSummaryId = null,
sessionId = sessionId,
stageId = architectStage,
projectId = null,
toolName = null,
),
),
)
eventStore.append(
com.correx.testing.fixtures.EventFixtures.newEvent(
com.correx.core.events.types.EventId("seed-dec-${outcome.name}"),
sessionId,
com.correx.core.events.events.ApprovalDecisionResolvedEvent(
decisionId = com.correx.core.events.types.ApprovalDecisionId("seeded-dec-${outcome.name}"),
requestId = requestId,
outcome = outcome,
status = ApprovalStatus.COMPLETED,
tier = Tier.T2,
resolutionTimestamp = Clock.System.now(),
reason = null,
),
),
)
}
private val analysisSummary = """{"summary":"open questions: feasibility of X, timeline for Y"}"""
private val executionPlanJson = """{"plan":"step 1: do A, step 2: do B"}"""
@@ -274,6 +310,52 @@ class FreestyleApprovalGateTest {
runJob.join()
}
@Test
fun `runFrom architect reuses a prior APPROVED decision and does not re-prompt on grounding retry`(): Unit =
runBlocking {
// Return-to-architect loop (FreestyleDriver.rerunArchitect): a grounding-rejected plan re-runs
// the architect via runFrom(architect). The operator already approved the analyst→architect
// gate on the first pass, so the re-run must NOT re-park — the seeded APPROVED decision below
// stands in for that first approval; the gate must reuse it.
val sessionId = SessionId("freestyle-gate-rerun")
seedArchitectDecision(sessionId, ApprovalOutcome.APPROVED)
// Provider always yields the execution plan — we enter at architect, not analyst.
val router = object : com.correx.core.inference.InferenceRouter {
override suspend fun route(stageId: StageId, requiredCapabilities: Set<ModelCapability>) =
MockInferenceProvider(fixedResponse = executionPlanJson)
}
val orchestrator = DefaultSessionOrchestrator(
repositories = repositories,
engines = OrchestratorEngines(
transitionResolver = TransitionFixtures.simpleResolver(),
contextPackBuilder = ContextFixtures.simpleBuilder(),
inferenceRouter = router,
validationPipeline = ValidationPipeline(validators = listOf(cyclePolicyMissingValidator())),
approvalEngine = DefaultApprovalEngine(),
riskAssessor = DefaultRiskAssessor(),
),
retryCoordinator = DefaultRetryCoordinator(eventStore),
artifactStore = NoopArtifactStore(),
decisionJournalRepository = decisionJournalRepository,
)
val config = OrchestrationConfig(retryPolicy = RetryPolicy(maxAttempts = 1, backoffMs = 0))
orchestrator.runFrom(sessionId, freestyleGraph(), config, architectStage)
val architectRequests = eventStore.read(sessionId)
.mapNotNull { it.payload as? ApprovalRequestedEvent }
.count { it.stageId == architectStage && it.toolName == null }
assertTrue(
architectRequests == 1,
"gate must reuse the prior approval, not re-prompt: got $architectRequests",
)
assertNotNull(
eventStore.read(sessionId).find { it.payload is WorkflowCompletedEvent },
"architect should run straight through on the reused approval",
)
}
@Test
fun `approval resumes workflow and architect produces execution plan`(): Unit = runBlocking {
val sessionId = SessionId("freestyle-gate-2")
@@ -11,6 +11,9 @@ import com.correx.core.approvals.model.DomainApprovalRequest
import com.correx.core.artifacts.DefaultArtifactReducer
import com.correx.core.events.EventDispatcher
import com.correx.core.events.events.FailureTicketOpenedEvent
import com.correx.core.events.events.StaticAnalysisCompletedEvent
import com.correx.core.events.events.TransitionExecutedEvent
import com.correx.core.events.events.WorkflowCompletedEvent
import com.correx.core.events.events.WorkflowFailedEvent
import com.correx.core.events.execution.RetryPolicy
import com.correx.core.events.types.ProviderId
@@ -424,6 +427,7 @@ class RecoveryRoutingTest {
private fun buildMultiToolOrchestrator(
staticOutput: String = "App.tsx: TS2322 type mismatch",
provider: InferenceProvider = StageRoutingProvider(),
staticExitCode: Int = 1,
): Pair<DefaultSessionOrchestrator, InMemoryEventStore> {
val eventStore = InMemoryEventStore()
val shell = ShellTool(allowedExecutables = setOf("true"), workingDir = workspace)
@@ -471,7 +475,7 @@ class RecoveryRoutingTest {
workspacePolicy = WorkspacePolicy(workspace),
// Gate names the file impl wrote, so route-to-owner can resolve the author from the manifest.
staticAnalysisRunner = StaticAnalysisRunner { _, _ ->
StaticAnalysisRunResult(exitCode = 1, output = staticOutput)
StaticAnalysisRunResult(exitCode = staticExitCode, output = staticOutput)
},
approvalEngine = object : ApprovalEngine {
override fun evaluate(
@@ -498,6 +502,84 @@ class RecoveryRoutingTest {
return orchestrator to eventStore
}
@Test
fun `non-writing review terminal records static analysis before workflow completion`(): Unit = runBlocking {
val (orchestrator, eventStore) = buildMultiToolOrchestrator(
staticOutput = "static floor clean",
staticExitCode = 0,
)
val sessionId = SessionId("review-terminal-static-floor")
val graph = WorkflowGraph(
id = "freestyle-review-terminal",
stages = mapOf(
StageId("impl") to StageConfig(
allowedTools = setOf("file_write"),
writeManifest = listOf("App.tsx"),
),
StageId("review") to StageConfig(
allowedTools = setOf("shell"),
staticAnalysis = listOf("correx-static-floor -- App.tsx"),
autoBuildGate = true,
metadata = mapOf("role" to "reviewer"),
),
),
transitions = setOf(
TransitionEdge(TransitionId("impl->review"), StageId("impl"), StageId("review")) { true },
TransitionEdge(TransitionId("review->done"), StageId("review"), StageId("done")) { true },
),
start = StageId("impl"),
)
orchestrator.run(sessionId, graph, OrchestrationConfig())
val payloads = eventStore.read(sessionId).map { it.payload }
val staticIndex = payloads.indexOfFirst {
it is StaticAnalysisCompletedEvent && it.stageId == StageId("review")
}
val completedIndex = payloads.indexOfFirst { it is WorkflowCompletedEvent }
assertTrue(staticIndex >= 0, "the non-writing review terminal must execute its static floor")
assertTrue(completedIndex > staticIndex, "static analysis must be durably recorded before completion")
}
@Test
fun `review loop routes to recovery after exactly three back edges and never emits a fourth`(): Unit =
runBlocking {
val (orchestrator, eventStore) = buildMultiToolOrchestrator()
val sessionId = SessionId("review-loop-convergence")
val graph = WorkflowGraph(
id = "review-loop-convergence",
stages = mapOf(
StageId("impl") to StageConfig(allowedTools = setOf("file_write")),
StageId("review") to StageConfig(
allowedTools = setOf("shell"),
metadata = mapOf("role" to "reviewer"),
),
StageId("recovery") to StageConfig(
allowedTools = setOf("shell", "file_write"),
metadata = mapOf("role" to "recovery"),
),
),
transitions = setOf(
TransitionEdge(TransitionId("impl->review"), StageId("impl"), StageId("review")) { true },
TransitionEdge(TransitionId("review->impl"), StageId("review"), StageId("impl")) { true },
),
start = StageId("impl"),
)
val result = orchestrator.run(sessionId, graph, OrchestrationConfig())
assertTrue(result is WorkflowResult.Failed)
val payloads = eventStore.read(sessionId).map { it.payload }
val reviewBackEdges = payloads.filterIsInstance<TransitionExecutedEvent>()
.filter { it.from == StageId("review") && it.to == StageId("impl") }
assertEquals(3, reviewBackEdges.size, "the fourth rejected review must not enter rework")
val ticket = payloads.filterIsInstance<FailureTicketOpenedEvent>()
.single { it.gate == "review_loop" }
assertEquals(StageId("review"), ticket.stageId)
assertEquals(StageId("recovery"), ticket.routeTo)
assertTrue(payloads.any { it is WorkflowFailedEvent })
}
@Test
fun `write-less gate failure routes the ticket to the file's author (route-to-owner)`(): Unit = runBlocking {
val (orchestrator, eventStore) = buildMultiToolOrchestrator()
@@ -45,6 +45,10 @@ class LaunchRegistrationRaceTest {
}.awaitAll()
}
// computeIfAbsent returns the Job as soon as it's created; the launched body (which
// increments launchCount) runs independently on `scope`. Join the registered jobs so the
// increments have happened before we assert — otherwise launchCount races the launch bodies.
registry.values.forEach { it.join() }
assertEquals(1, launchCount.get(), "mapping lambda must execute exactly once")
assertEquals(1, registry.size, "registry must contain exactly one entry")
scope.cancel()
@@ -69,6 +73,9 @@ class LaunchRegistrationRaceTest {
}.awaitAll()
}
// Join the launched bodies before asserting: computeIfAbsent returns the Job immediately,
// but the increment runs on `scope` independently and may lag awaitAll (the 49-vs-50 flake).
registry.values.forEach { it.join() }
assertEquals(50, launchCount.get(), "each distinct key must execute its lambda")
assertEquals(50, registry.size, "registry must contain 50 entries")
scope.cancel()