msd-core/gsd-core/workflows/verify-phase.md

Verify phase goal achievement through goal-backward analysis. Check that the codebase delivers what the phase promised, not just that tasks completed.

Executed by a verification subagent spawned from execute-phase.md.

<core_principle> Task completion ≠ Goal achievement

A task "create chat component" can be marked complete when the component is a placeholder. The task was done — but the goal "working chat interface" was not achieved.

Goal-backward verification:

1. What must be TRUE for the goal to be achieved?
2. What must EXIST for those truths to hold?
3. What must be WIRED for those artifacts to function?
4. What must TESTS PROVE for those truths to be evidenced?

Then verify each level against the actual codebase. </core_principle>

<required_reading> @/.claude/gsd-core/references/verification-patterns.md @/.claude/gsd-core/templates/verification-report.md </required_reading>

Load phase operation context:

_GSD_SHIM_NAME="gsd-tools.cjs"; _GSD_RUNTIME_ROOT="${RUNTIME_DIR:-$(git rev-parse --show-toplevel 2>/dev/null || pwd)}"; GSD_TOOLS="${_GSD_RUNTIME_ROOT}/gsd-core/bin/${_GSD_SHIM_NAME}"; if [ -f "$GSD_TOOLS" ]; then gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${_GSD_RUNTIME_ROOT}/.claude/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${_GSD_RUNTIME_ROOT}/.claude/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${_GSD_RUNTIME_ROOT}/.codex/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${_GSD_RUNTIME_ROOT}/.codex/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif command -v gsd-tools >/dev/null 2>&1; then GSD_TOOLS="$(command -v gsd-tools)"; gsd_run() { "$GSD_TOOLS" "$@"; }; elif [ -f "$HOME/.claude/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="$HOME/.claude/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${HERMES_HOME:-$HOME/.hermes}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${HERMES_HOME:-$HOME/.hermes}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${CURSOR_CONFIG_DIR:-$HOME/.cursor}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${CURSOR_CONFIG_DIR:-$HOME/.cursor}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${CODEX_HOME:-$HOME/.codex}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${CODEX_HOME:-$HOME/.codex}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${GEMINI_CONFIG_DIR:-$HOME/.gemini}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${GEMINI_CONFIG_DIR:-$HOME/.gemini}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${COPILOT_CONFIG_DIR:-$HOME/.copilot}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${COPILOT_CONFIG_DIR:-$HOME/.copilot}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${WINDSURF_CONFIG_DIR:-$HOME/.codeium/windsurf}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${WINDSURF_CONFIG_DIR:-$HOME/.codeium/windsurf}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${AUGMENT_CONFIG_DIR:-$HOME/.augment}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${AUGMENT_CONFIG_DIR:-$HOME/.augment}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${TRAE_CONFIG_DIR:-$HOME/.trae}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${TRAE_CONFIG_DIR:-$HOME/.trae}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${QWEN_CONFIG_DIR:-$HOME/.qwen}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${QWEN_CONFIG_DIR:-$HOME/.qwen}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${CODEBUDDY_CONFIG_DIR:-$HOME/.codebuddy}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${CODEBUDDY_CONFIG_DIR:-$HOME/.codebuddy}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${CLINE_CONFIG_DIR:-$HOME/.cline}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${CLINE_CONFIG_DIR:-$HOME/.cline}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${GROK_AGENTS_HOME:-$HOME/.agents}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${GROK_AGENTS_HOME:-$HOME/.agents}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${ANTIGRAVITY_CONFIG_DIR:-$HOME/.gemini/antigravity}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${ANTIGRAVITY_CONFIG_DIR:-$HOME/.gemini/antigravity}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${OPENCODE_CONFIG_DIR:-${XDG_CONFIG_HOME:-$HOME/.config}/opencode}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${OPENCODE_CONFIG_DIR:-${XDG_CONFIG_HOME:-$HOME/.config}/opencode}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; elif [ -f "${KILO_CONFIG_DIR:-${XDG_CONFIG_HOME:-$HOME/.config}/kilo}/gsd-core/bin/${_GSD_SHIM_NAME}" ]; then GSD_TOOLS="${KILO_CONFIG_DIR:-${XDG_CONFIG_HOME:-$HOME/.config}/kilo}/gsd-core/bin/${_GSD_SHIM_NAME}"; gsd_run() { node "$GSD_TOOLS" "$@"; }; else echo "ERROR: gsd-tools.cjs not found at $GSD_TOOLS and gsd-tools is not on PATH. Run: npx -y @opengsd/gsd-core@latest --claude --local" >&2; exit 1; fi; if [ -n "${CLAUDE_ENV_FILE:-}" ] && [ -n "${GSD_TOOLS:-}" ]; then printf "export PATH='%s':\"\$PATH\"\n" "${GSD_TOOLS%/*}" >> "$CLAUDE_ENV_FILE" 2>/dev/null || true; fi
INIT=$(gsd_run query init.phase-op "${PHASE_ARG}")
if [[ "$INIT" == @file:* ]]; then INIT=$(cat "${INIT#@file:}"); fi

Extract from init JSON: phase_dir, phase_number, phase_name, has_plans, plan_count.

Then load phase details and list plans/summaries:

gsd_run query roadmap.get-phase "${phase_number}"
grep -E "^| ${phase_number}" .planning/REQUIREMENTS.md 2>/dev/null || true
ls "$phase_dir"/*-SUMMARY.md "$phase_dir"/*-PLAN.md 2>/dev/null || true

Load full milestone phases for deferred-item filtering (Step 9b):

gsd_run query roadmap.analyze

Extract phase goal from ROADMAP.md (the outcome to verify, not tasks), requirements from REQUIREMENTS.md if it exists, and all milestone phases from roadmap analyze (for cross-referencing gaps against later phases).

**Option A: Must-haves in PLAN frontmatter**

Use gsd-tools.cjs query verify handlers (or legacy gsd-tools) to extract must_haves from each PLAN:

for plan in "$PHASE_DIR"/*-PLAN.md; do
  MUST_HAVES=$(gsd_run query frontmatter.get "$plan" --field must_haves)
  echo "=== $plan ===" && echo "$MUST_HAVES"
done

Returns JSON: { truths: [...], artifacts: [...], key_links: [...], prohibitions: [...] }

Aggregate all must_haves across plans for phase-level verification.

Prohibitions (must_haves.prohibitions, ADR-550 D3 — the must-NOT sibling block): When a plan carries must_haves.prohibitions, extract each { statement, status, verification } item and route it by verification tier in verdict assembly (ADR-550 D4, "B-with-guard", 2026-06-12 maintainer decision). These are NEGATIVE checks (the must-NOT must NOT have happened), distinct from positive truths:

• judgment-tier → mode-dependent soft-gate. Interactive verify defers each item to the end-of-phase human checkpoint (human_verify_mode: end-of-phase). Autonomous verify records a NON-AUTHORITATIVE LLM-judge verdict + a prominent unverified-prohibition — human review recommended flag (autonomous completion reads "complete with N flagged prohibitions"). NEVER a silent pass; NEVER a hard halt of an AFK run.
• test-tier → FAIL CLOSED (accept-and-flag). Accept the verification: test value (the SPEC↔must_haves.prohibitions projection contract holds — no forced schema change later), but a well-formed test-tier item reaching verify with NO wired enforcement disposes as UNVERIFIED, flagged like an unresolved judgment item, NEVER green. The deterministic fail-closed default is dispositionForProhibition() in probe-core (status: 'unverified', flagged: true on empty enforcementEvidence). The real fail-first negative-test enforcement MECHANISM defers to a follow-up PR (#644's corpus is entirely judgment-tier; a contrived test-tier fixture here would be the gold-plating failure mode).

Option B: Use Success Criteria from ROADMAP.md

If no must_haves in frontmatter (MUST_HAVES returns error or empty), check for Success Criteria:

PHASE_DATA=$(gsd_run query roadmap.get-phase "${phase_number}" --raw)

Parse the success_criteria array from the JSON output. If non-empty:

1. Use each Success Criterion directly as a truth (they are already written as observable, testable behaviors)
2. Derive artifacts (concrete file paths for each truth)
3. Derive key links (critical wiring where stubs hide)
4. Document the must-haves before proceeding

Success Criteria from ROADMAP.md are the contract — they override PLAN-level must_haves when both exist.

Option C: Derive from phase goal (fallback)

If no must_haves in frontmatter AND no Success Criteria in ROADMAP:

1. State the goal from ROADMAP.md
2. Derive truths (3-7 observable behaviors, each testable)
3. Derive artifacts (concrete file paths for each truth)
4. Derive key links (critical wiring where stubs hide)
5. Document derived must-haves before proceeding

For each observable truth, determine if the codebase enables it.

Status: ✓ VERIFIED (all supporting artifacts pass) | ✗ FAILED (artifact missing/stub/unwired) | ? UNCERTAIN (needs human)

For each truth: identify supporting artifacts → check artifact status → check wiring → determine truth status.

Example: Truth "User can see existing messages" depends on Chat.tsx (renders), /api/chat GET (provides), Message model (schema). If Chat.tsx is a stub or API returns hardcoded [] → FAILED. If all exist, are substantive, and connected → VERIFIED.

Use `gsd-tools.cjs query verify.artifacts` (or legacy gsd-tools) for artifact verification against must_haves in each PLAN:

for plan in "$PHASE_DIR"/*-PLAN.md; do
  ARTIFACT_RESULT=$(gsd_run query verify.artifacts "$plan")
  echo "=== $plan ===" && echo "$ARTIFACT_RESULT"
done

Parse JSON result: { all_passed, passed, total, artifacts: [{path, exists, issues, passed}] }

Artifact status from result:

• exists=false → MISSING
• issues not empty → STUB (check issues for "Only N lines" or "Missing pattern")
• passed=true → VERIFIED (Levels 1-2 pass)

Level 3 — Wired (manual check for artifacts that pass Levels 1-2):

grep -r "import.*$artifact_name" src/ --include="*.ts" --include="*.tsx"  # IMPORTED
grep -r "$artifact_name" src/ --include="*.ts" --include="*.tsx" | grep -v "import"  # USED

WIRED = imported AND used. ORPHANED = exists but not imported/used.

Exists	Substantive	Wired	Status
✓	✓	✓	✓ VERIFIED
✓	✓	✗	⚠️ ORPHANED
✓	✗	-	✗ STUB
✗	-	-	✗ MISSING

Export-level spot check (WARNING severity):

For artifacts that pass Level 3, spot-check individual exports:

• Extract key exported symbols (functions, constants, classes — skip types/interfaces)
• For each, grep for usage outside the defining file
• Flag exports with zero external call sites as "exported but unused"

This catches dead stores like setPlan() that exist in a wired file but are never actually called. Report as WARNING — may indicate incomplete cross-plan wiring or leftover code from plan revisions.

Use `gsd-tools.cjs query verify.key-links` (or legacy gsd-tools) for key link verification against must_haves in each PLAN:

for plan in "$PHASE_DIR"/*-PLAN.md; do
  LINKS_RESULT=$(gsd_run query verify.key-links "$plan")
  echo "=== $plan ===" && echo "$LINKS_RESULT"
done

Parse JSON result: { all_verified, verified, total, links: [{from, to, via, verified, detail}] }

Link status from result:

• verified=true → WIRED
• verified=false with "not found" → NOT_WIRED
• verified=false with "Pattern not found" → PARTIAL

Fallback patterns (if key_links not in must_haves):

Pattern	Check	Status
Component → API	fetch/axios call to API path, response used (await/.then/setState)	WIRED / PARTIAL (call but unused response) / NOT_WIRED
API → Database	Prisma/DB query on model, result returned via res.json()	WIRED / PARTIAL (query but not returned) / NOT_WIRED
Form → Handler	onSubmit with real implementation (fetch/axios/mutate/dispatch), not console.log/empty	WIRED / STUB (log-only/empty) / NOT_WIRED
State → Render	useState variable appears in JSX ({stateVar} or {stateVar.property})	WIRED / NOT_WIRED

Record status and evidence for each key link.

If REQUIREMENTS.md exists: ```bash grep -E "Phase ${PHASE_NUM}" .planning/REQUIREMENTS.md 2>/dev/null || true ```

For each requirement: parse description → identify supporting truths/artifacts → status: ✓ SATISFIED / ✗ BLOCKED / ? NEEDS HUMAN.

**Decision coverage validation gate (issue #2492).**

After requirements coverage, also check that each trackable CONTEXT.md <decisions> entry shows up somewhere in the shipped artifacts (plans, SUMMARY.md, files modified by the phase, or recent commit subjects on the phase branch).

This gate is non-blocking / warning only by deliberate asymmetry with the plan-phase translation gate. The plan-phase gate already blocked at translation time, so by the time verification runs every decision has either been translated or explicitly deferred. This gate's job is to surface decisions that were translated but vanished during execution — that's a soft signal because "honors a decision" is a fuzzy substring heuristic, and we don't want a paraphrase miss to fail an otherwise good phase.

Skip if workflow.context_coverage_gate is explicitly set to false (absent key = enabled). Also skip cleanly when CONTEXT.md is missing or has no <decisions> block.

GATE_CFG=$(gsd_run query config-get workflow.context_coverage_gate 2>/dev/null || echo "true")
if [ "$GATE_CFG" != "false" ]; then
  # Discover the phase CONTEXT.md via glob expansion rather than `ls | head`
  # (review F17 / ShellCheck SC2012). Globs preserve filenames containing
  # spaces and avoid an extra subprocess.
  CONTEXT_PATH=""
  for f in "${PHASE_DIR}"/*-CONTEXT.md; do
    [ -e "$f" ] && CONTEXT_PATH="$f" && break
  done
  DECISION_RESULT=$(gsd_run query check.decision-coverage-verify "${PHASE_DIR}" "${CONTEXT_PATH}")
fi

The handler returns JSON { skipped, blocking: false, total, honored, not_honored: [...], message }.

Reporting: Append the handler's message (a ### Decision Coverage section) to VERIFICATION.md regardless of outcome — even when all decisions are honored, recording the count helps reviewers spot drift over time. Set decision_coverage in the verification result to {honored, total, not_honored: [...]} so downstream tooling can read it.

Status impact: none. The decision gate does NOT influence the gaps_found / human_needed / passed decision tree in determine_status. Its findings are warnings the user reviews and may act on by re-opening the phase or by acknowledging the decision was abandoned intentionally.

**Run the project's test suite and CLI commands to verify behavior, not just structure.**

Static checks (grep, file existence, wiring) catch structural gaps but miss runtime failures. This step runs actual tests and project commands to verify the phase goal is behaviorally achieved.

This follows Anthropic's harness engineering principle: separating generation from evaluation, with the evaluator interacting with the running system rather than inspecting static artifacts.

Step 1: Run test suite

# Resolve test command: project config > Makefile > language sniff
TEST_CMD=$(gsd_run query config-get workflow.test_command --default "" 2>/dev/null || true)
if [ -z "$TEST_CMD" ]; then
  if [ -f "Makefile" ] && grep -q "^test:" Makefile; then
    TEST_CMD="make test"
  elif [ -f "Justfile" ] || [ -f "justfile" ]; then
    TEST_CMD="just test"
  elif [ -f "package.json" ]; then
    TEST_CMD="npm test"
  elif [ -f "Cargo.toml" ]; then
    TEST_CMD="cargo test"
  elif [ -f "go.mod" ]; then
    TEST_CMD="go test ./..."
  elif [ -f "pyproject.toml" ] || [ -f "requirements.txt" ]; then
    TEST_CMD="python -m pytest -q --tb=short 2>&1 || uv run python -m pytest -q --tb=short"
  else
    TEST_CMD="false"
    echo "⚠ No test runner detected — skipping test suite"
  fi
fi
# Detect test runner and run all tests (timeout: 5 minutes)
TEST_EXIT=0
timeout 300 bash -c "$TEST_CMD" 2>&1
TEST_EXIT=$?
if [ "${TEST_EXIT}" -eq 0 ]; then
  echo "✓ Test suite passed"
elif [ "${TEST_EXIT}" -eq 124 ]; then
  echo "⚠ Test suite timed out after 5 minutes"
else
  echo "✗ Test suite failed (exit code ${TEST_EXIT})"
fi

Record: total tests, passed, failed, coverage (if available).

If any tests fail: Mark as behavioral_failures — these are BLOCKER severity regardless of whether static checks passed. A phase cannot be verified if tests fail.

Step 2: Run project CLI/commands from success criteria (if testable)

For each success criterion that describes a user command (e.g., "User can run mixtiq validate", "User can run npm start"):

1. Check if the command exists and required inputs are available:
   • Look for example files in templates/, fixtures/, test/, examples/, or testdata/
   • Check if the CLI binary/script exists on PATH or in the project
2. If no suitable inputs or fixtures exist: Mark as ? NEEDS HUMAN with reason "No test fixtures available — requires manual verification" and move on. Do NOT invent example inputs.
3. If inputs are available: run the command and verify it exits successfully.

# Only run if both command and input exist
if command -v {project_cli} &>/dev/null && [ -f "{example_input}" ]; then
  {project_cli} {example_input} 2>&1
fi

Record: command, exit code, output summary, pass/fail (or SKIPPED if no fixtures).

Step 3: Report

## Behavioral Verification

| Check | Result | Detail |
|-------|--------|--------|
| Test suite | {N} passed, {M} failed | {first failure if any} |
| {CLI command 1} | ✓ / ✗ | {output summary} |
| {CLI command 2} | ✓ / ✗ | {output summary} |

If all behavioral checks pass: Continue to scan_antipatterns. If any fail: Add to verification gaps with BLOCKER severity.

Extract files modified in this phase from SUMMARY.md, scan each:

Pattern	Search	Severity
TBD/FIXME/XXX without same-line issue #123, PR #123, #123, or DEF-* reference	grep -n -e TBD -e FIXME -e XXX	🛑 Blocker
TODO/HACK	grep -n -e TODO -e HACK	⚠️ Warning
Placeholder content	grep -n -iE "placeholder|coming soon|will be here"	🛑 Blocker
Empty returns	grep -n -E "return null|return \{\}|return \[\]|=> \{\}"	⚠️ Warning
Log-only functions	Functions containing only console.log	⚠️ Warning

Categorize: 🛑 Blocker (prevents goal) | ⚠️ Warning (incomplete) | ℹ️ Info (notable).

**Verify that tests PROVE what they claim to prove.**

This step catches test-level deceptions that pass all prior checks: files exist, are substantive, are wired, and tests pass — but the tests don't actually validate the requirement.

1. Identify requirement-linked test files

From PLAN and SUMMARY files, map each requirement to the test files that are supposed to prove it.

2. Disabled test scan

For ALL test files linked to requirements, search for disabled/skipped patterns:

grep -rn -E "it\.skip|describe\.skip|test\.skip|xit\(|xdescribe\(|xtest\(|@pytest\.mark\.skip|@unittest\.skip|#\[ignore\]|\.pending|it\.todo|test\.todo" "$TEST_FILE"

Rule: A disabled test linked to a requirement = requirement NOT tested.

• 🛑 BLOCKER if the disabled test is the only test proving that requirement
• ⚠️ WARNING if other active tests also cover the requirement

3. Circular test detection

Search for scripts/utilities that generate expected values by running the system under test:

grep -rn -E "writeFileSync|writeFile|fs\.write|open\(.*w\)" "$TEST_DIRS"

For each match, check if it also imports the system/service/module being tested. If a script both imports the system-under-test AND writes expected output values → CIRCULAR.

Circular test indicators:

• Script imports a service AND writes to fixture files
• Expected values have comments like "computed from engine", "captured from baseline"
• Script filename contains "capture", "baseline", "generate", "snapshot" in test context
• Expected values were added in the same commit as the test assertions

Rule: A test comparing system output against values generated by the same system is circular. It proves consistency, not correctness.

4. Expected value provenance (for comparison/parity/migration requirements)

When a requirement demands comparison with an external source ("identical to X", "matches Y", "same output as Z"):

• Is the external source actually invoked or referenced in the test pipeline?
• Do fixture files contain data sourced from the external system?
• Or do all expected values come from the new system itself or from mathematical formulas?

Provenance classification:

• VALID: Expected value from external/legacy system output, manual capture, or independent oracle
• PARTIAL: Expected value from mathematical derivation (proves formula, not system match)
• CIRCULAR: Expected value from the system being tested
• UNKNOWN: No provenance information — treat as SUSPECT

5. Assertion strength

For each test linked to a requirement, classify the strongest assertion:

Level	Examples	Proves
Existence	toBeDefined(), != null	Something returned
Type	typeof x === 'number'	Correct shape
Status	code === 200	No error
Value	toEqual(expected), toBeCloseTo(x)	Specific value
Behavioral	Multi-step workflow assertions	End-to-end correctness

If a requirement demands value-level or behavioral-level proof and the test only has existence/type/status assertions → INSUFFICIENT.

6. Coverage quantity

If a requirement specifies a quantity of test cases (e.g., "30 calculations"), check if the actual number of active (non-skipped) test cases meets the requirement.

Reporting — add to VERIFICATION.md:

### Test Quality Audit

| Test File | Linked Req | Active | Skipped | Circular | Assertion Level | Verdict |
|-----------|-----------|--------|---------|----------|----------------|---------|

**Disabled tests on requirements:** {N} → {BLOCKER if any req has ONLY disabled tests}
**Circular patterns detected:** {N} → {BLOCKER if any}
**Insufficient assertions:** {N} → {WARNING}

Impact on status: Any BLOCKER from test quality audit <20><><EFBFBD> overall status = gaps_found, regardless of other checks passing.

**First: determine if this is an infrastructure/foundation phase.**

Infrastructure and foundation phases — code foundations, database schema, internal APIs, data models, build tooling, CI/CD, internal service integrations — have no user-facing elements by definition. For these phases:

• Do NOT invent artificial manual steps (e.g., "manually run git commits", "manually invoke methods", "manually check database state").
• Mark human verification as N/A with rationale: "Infrastructure/foundation phase — no user-facing elements to test manually."
• Set human_verification: [] and do not produce a human_needed status solely due to lack of user-facing features.
• Only add human verification items if the phase goal or success criteria explicitly describe something a user would interact with (UI, CLI command output visible to end users, external service UX).

How to determine if a phase is infrastructure/foundation:

• Phase goal or name contains: "foundation", "infrastructure", "schema", "database", "internal API", "data model", "scaffolding", "pipeline", "tooling", "CI", "migrations", "service layer", "backend", "core library"
• Phase success criteria describe only technical artifacts (files exist, tests pass, schema is valid) with no user interaction required
• There is no UI, CLI output visible to end users, or real-time behavior to observe

If the phase IS infrastructure/foundation: auto-pass UAT — skip the human verification items list entirely. Log:

## Human Verification

N/A — Infrastructure/foundation phase with no user-facing elements.
All acceptance criteria are verifiable programmatically.

If the phase IS user-facing: Only flag items that genuinely require a human. Do not invent steps.

Always needs human (user-facing phases only): Visual appearance, user flow completion, real-time behavior (WebSocket/SSE), external service integration, performance feel, error message clarity.

Needs human if uncertain (user-facing phases only): Complex wiring grep can't trace, dynamic state-dependent behavior, edge cases.

Format each as: Test Name → What to do → Expected result → Why can't verify programmatically.

Classify status using this decision tree IN ORDER (most restrictive first):

1. IF any truth FAILED, artifact MISSING/STUB, key link NOT_WIRED, blocker found, or test quality audit found blockers (disabled requirement tests, circular tests): → gaps_found

2. IF any must_haves.prohibitions item disposes as flagged-unverified (ADR-550 D4):

   • test-tier, fail-closed (no wired enforcement — dispositionForProhibition() returns status: 'unverified', flagged: true): → gaps_found (never green; the unwired test-tier item is an unverified gap).
   • judgment-tier, autonomous run (non-authoritative LLM-judge verdict): emit the unverified-prohibition — human review recommended flag and classify → human_needed (autonomous completion reads "complete with N flagged prohibitions"; never a silent pass, never a hard halt).
   • judgment-tier, interactive run: route to the end-of-phase human checkpoint → human_needed.

3. IF the previous step produced ANY human verification items: → human_needed (even if all truths VERIFIED and score is N/N)

4. IF all checks pass AND no human verification items AND no flagged prohibitions: → passed

passed is ONLY valid when no human verification items AND no flagged prohibitions exist. A prohibition (must-NOT) can never be silently absorbed into a passed verdict — that is the core failure mode ADR-550 D4 forbids.

Score: verified_truths / total_truths

Before reporting gaps, cross-reference each gap against later phases in the milestone using the full roadmap data loaded in load_context (from `roadmap analyze`).

For each potential gap identified in determine_status:

1. Check if the gap's failed truth or missing item is covered by a later phase's goal or success criteria
2. Match criteria: The gap's concern appears in a later phase's goal text, success criteria text, or the later phase's name clearly suggests it covers this area
3. If a clear match is found → move the gap to a deferred list with the matching phase reference and evidence text
4. If no match in any later phase → keep as a real gap

Important: Be conservative. Only defer a gap when there is clear, specific evidence in a later phase. Vague or tangential matches should NOT cause deferral — when in doubt, keep it as a real gap.

Deferred items do NOT affect the status determination. Recalculate after filtering:

• If gaps list is now empty and no human items exist → passed
• If gaps list is now empty but human items exist → human_needed
• If gaps list still has items → gaps_found

Include deferred items in VERIFICATION.md frontmatter (deferred: section) and body (Deferred Items table) for transparency. If no deferred items exist, omit these sections.

If gaps_found:

1. Cluster related gaps: API stub + component unwired → "Wire frontend to backend". Multiple missing → "Complete core implementation". Wiring only → "Connect existing components".

2. Generate plan per cluster: Objective, 2-3 tasks (files/action/verify each), re-verify step. Keep focused: single concern per plan.

3. Order by dependency: Fix missing → fix stubs → fix wiring → fix test evidence → verify.

```bash REPORT_PATH="$PHASE_DIR/${PHASE_NUM}-VERIFICATION.md" ```

Fill template sections: frontmatter (phase/timestamp/status/score), goal achievement, artifact table, wiring table, requirements coverage, anti-patterns, human verification, gaps summary, fix plans (if gaps_found), metadata.

See ~/.claude/gsd-core/templates/verification-report.md for complete template.

Return status (`passed` | `gaps_found` | `human_needed`), score (N/M must-haves), report path.

If gaps_found: list gaps + recommended fix plan names. If human_needed: list items requiring human testing.

Orchestrator routes: passed → update_roadmap | gaps_found → create/execute fixes, re-verify | human_needed → present to user.

<success_criteria>

• Must-haves established (from frontmatter or derived)
• All truths verified with status and evidence
• All artifacts checked at all three levels
• All key links verified
• Requirements coverage assessed (if applicable)
• CONTEXT.md decisions checked against shipped artifacts (#2492 — non-blocking)
• Anti-patterns scanned and categorized
• Test quality audited (disabled tests, circular patterns, assertion strength, provenance)
• Human verification items identified
• Overall status determined
• Deferred items filtered against later milestone phases (if gaps found)
• Fix plans generated (if gaps_found after filtering)
• VERIFICATION.md created with complete report
• Results returned to orchestrator </success_criteria>