Files
msd-core/docs/CLI-TOOLS.md
Tom Boucher 929e02cb2c enhance(#3885): no silent swallow, and no verdict manufactured from dropped data (#3925)
* test(#3885): failing-first coverage for the depth bound and the manufactured wave verdict

ADR-3473 §8.5 says a swallowed failure may not become an authoritative-looking
answer. Three families do exactly that today; this commit pins each one RED.

Measured on this tree, 2026-08-27:

  intel query, .planning/intel/file-roles.json nested 12000 deep
    -> exit 1, "Error: Maximum call stack size exceeded"
       searchJsonEntries / matchesInValue carry no depth parameter at all.
       The MAX_JSON_SEARCH_DEPTH = 48 bound existed in the retired SDK lineage
       (sdk/src/query/intel.ts at 11918dcc3^) and the surviving .cts lineage
       never received it.

  same fixture nested 48 and 49 deep
    -> both return total=1 at exit 0, truncated=undefined
       Nothing distinguishes "searched to the bottom" from "stopped looking".

  query phase-plan-index, a plan whose depends_on names an unresolvable token
    -> warnings: ["Plan 03-02: declared wave: 2 but depends_on DAG places it
                  in wave 1"]
       The token is never mentioned. computeDependencyLevels drops the edge
       with `if (!resolvedDep) continue;`, every plan becomes a root, and the
       tool then reports the author's correct wave: as the thing that is wrong.

  countPhasePlansAndSummaries with fs.readdirSync throwing EACCES
    -> hasContext:false, indistinguishable from a phase that simply has no
       CONTEXT.md. context_read_error is undefined.

The shapes these tests assert against, chosen here so the implementation has a
target rather than inventing one later: `truncated: boolean` on the intel query
result, `unresolved: Array<{plan, token}>` from computeDependencyLevels, and
`context_read_error: string | null` per analyzed phase.

Deliberately green, and they must stay that way — each stops the fix from
over-firing:

  depth 48 is found and NOT flagged truncated (the ceiling is inclusive)
  a shallow miss reports no truncation           (noise control, N1)
  10,000 siblings at depth 2 are unaffected      (the bound is DEPTH, N2)
  a genuine wave: mismatch on a fully-resolved DAG still warns (N3)
  a genuinely missing directory is absent, not an error
  the emitted depends_on display mapping still passes an unresolved token
    through verbatim — already pinned by the existing #3785 test, so no
    duplicate was added

T31 asserts at the consumer's output per ADR-3180 Decision 4(b): it runs the
real CLI and reads the emitted JSON, because a unit assertion on
computeDependencyLevels would have passed throughout #3427's life.

Design:      .gsd/phase/feat-3885-no-silent-swallow/40-design.md
Test matrix: .gsd/phase/feat-3885-no-silent-swallow/50-test-matrix.md

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* enhance(#3885): no silent swallow, and no verdict manufactured from dropped data

Implements ADR-3473 §8.5. A failure or a gap in the input stops being absorbed
into an output that reads as authoritative.

The recursion bound, restored but NOT verbatim (src/intel.cts)

  MAX_JSON_SEARCH_DEPTH = 48 is threaded through searchJsonEntries and
  matchesInValue, which carried no depth parameter at all. The bound existed in
  the retired SDK lineage (sdk/src/query/intel.ts at 11918dcc3^) and the
  surviving .cts lineage never received it — §8.3's "a consolidation may not
  delete an invariant along with the surface that held it", demonstrated.

  Measured before: a .planning/intel file nested 12000 deep exits 1 with
  "Error: Maximum call stack size exceeded". Reachable from a project document.

  The original returned a bare `false` at the ceiling. Restoring that verbatim
  would trade a crash for a silent "no match" when the truth is "I stopped
  looking" — the same class this epic exists to close, and ADR-3473 Decision 4
  forbids it. So the bound carries a truncation signal:

    nesting 47 -> found,     truncated false
    nesting 48 -> found,     truncated false      (the ceiling is inclusive)
    nesting 49 -> not found, truncated TRUE
    nesting 12000 -> exit 0, truncated TRUE, no RangeError

  A shallow document that simply has no match reports truncated FALSE — the
  flag means "I stopped early", never "I found nothing", or it would be noise.
  The bound is on DEPTH: 10,000 siblings at depth 2 are unaffected.

The dropped edge is named, and stops being blamed on the author (src/phase.cts)

  computeDependencyLevels dropped every unresolvable depends_on token with a
  bare `continue`. Each drop makes a plan a root, so the whole phase collapses
  to wave 1 — and cmdPhasePlanIndex then reported the author's CORRECT wave: as
  the thing that was wrong.

  Before:
    warnings: ["Plan 03-02: declared wave: 2 but depends_on DAG places it in
                wave 1"]
  After:
    warnings: ["Plan 03-02: depends_on token \"nonexistent-token-3427\" does not
                resolve to any plan in this phase — edge dropped, wave placement
                for this plan may be unreliable"]

  The suppression is PER PLAN, never blanket: a plan with a fully-resolved DAG
  and a genuinely wrong wave: still gets the mismatch warning. resolveDependencyId
  stays two-tier — the shortFormToId third tier is §8.3/Phase 6's rule and is
  deliberately not built here. The emitted depends_on display mapping still
  passes an unresolved token through verbatim (#3785).

No artifact from failed inputs (gsd-core/workflows/review.md, #3352)

  A failed lane leaves no result file, so "every lane failed" is exactly "the
  aggregate JSONL has zero lines" — the gate condition already existed as a
  byproduct. REVIEWS.md is no longer written in that case, and the commit step
  is skipped with it. A budget-SKIPPED lane also leaves no file and is NOT
  counted as a failure. Per-lane output and non-empty .err are preserved to
  .review-diagnostics/ before `rm -rf "{run_dir}"` destroys the only record that
  the lanes failed at all; the commit step names one file, never a glob, so the
  diagnostics are not swept in.

Unreadable is not absent (roadmap.cts, gap-checker.cts, init.cts x2)

  Four callers collapsed an EACCES on a phase directory into [] and reported
  hasContext:false — byte-identical to a phase that simply has no CONTEXT.md.
  Each now names the directory it could not read. A genuinely missing directory
  stays absent rather than becoming an error, which is what keeps the fix from
  over-firing.

Fatal errno folded into a retry set: audited, no defect found

  Reported as a verified negative rather than padded with a change.
  withPlanningLock was fixed by #1884/PR #3472; acquireStateLock by #3776;
  atomicRenameWithRetry and estimate-cli's renameWithRetry are correct by
  construction — bounded set {EPERM,EBUSY,EACCES}, bounded attempts, and they
  return or rethrow the final error rather than swallowing it. estimate-cli's
  sole caller surfaces that rethrow as write_error in its JSON output.
  Manufacturing a diff to make the checkbox look worked-on is the Goodhart
  outcome Decision 6 exists to prevent.

Disclosed: R46 (the commit step names one file, never a glob) is a real
regression guard but is NOT independently failing-first — the commit fence is
byte-identical pre- and post-fix, so it only fails pre-fix through its shared
extraction dependency. Recorded rather than claimed as fail-first.

Design:      .gsd/phase/feat-3885-no-silent-swallow/40-design.md
Test matrix: .gsd/phase/feat-3885-no-silent-swallow/50-test-matrix.md

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* fix(#3885): escape untrusted tokens, and stop cleanup destroying unpreserved evidence

Two review findings, both real, both in my own change.

An isolated adversarial review found the evidence-preservation block never
checked mkdir/cp exit status while `rm -rf "{run_dir}"` ran unconditionally in
a SEPARATE fenced block. A disk-full or unwritable phase directory therefore
still destroyed the only copy of the failed lanes' output — reintroducing the
exact #3352 data loss this item exists to stop, inside the fix for it.

Preservation and cleanup are now one block, because each fenced block is a
separate execution and a shell variable cannot carry between them. mkdir -p and
each cp are exit-checked; cleanup runs only when preservation succeeded, and a
failure warns naming the intact run directory. "Nothing to preserve" is not a
failure and still cleans up. Driven three ways: success removes run_dir, failure
leaves it intact with the warning, nothing-to-preserve removes it. The failure is
induced by a file-vs-directory conflict rather than chmod 0o000, which root
bypasses.

The new unresolved-depends_on warning embedded a user-authored token verbatim:

  warnings: ["Plan 03-02: depends_on token \"evil
  Plan 03-01: FORGED WARNING\" does not resolve ..."]

The JSON wire form is safe, and the security reviewer judged it non-exploitable
for that reason. It is escaped anyway through formatDiagnosticToken — the helper
#3884 added one phase earlier for exactly this class. warnings[] is an array a
consumer naturally prints line by line, and not reusing the sibling fix is the
generative-fix-divergence shape this epic exists to close. The same treatment is
applied to context_read_error / phase_dir_read_error, which embed a phase
directory path a repository can choose, and to the fs error message, which
echoes the raw path itself.

Known limit L5 recorded: the bound is on DEPTH only. A 300,000-element shallow
array yields a 14.5MB reply with truncated:false. Correct per §8.5 and per
negative space N2, disclosed rather than left to be discovered.

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* fix(#3885): unreadable is not absent in intel.cts either, and a corrupt snapshot is not "no snapshot"

Blocker from the round-2 isolated review, and it is my own inconsistency:
this phase applied "unreadable is not absent" to phase directories and left it
broken in the file it was already editing.

  chmod 000 .planning/intel/file-roles.json
  gsd-tools intel query <term>
  -> {"matches":[],"total":0,"truncated":false}  exit 0

safeReadJson swallowed every read failure and returned null, so an EACCES was
byte-indistinguishable from an absent file AND from a genuine no-match. Now it
separates three states: ENOENT stays silently absent, because not every project
has every intel file and intelQuery loops over all of them expecting misses;
EACCES/EIO and malformed JSON are both surfaced naming the file. A corrupt intel
file previously read as "no matches" too — same defect, same fix.

Threading that outcome through the other three callers found something worse
than the reported case. intelDiff returned no_baseline:true for a corrupt or
unreadable snapshot — not a silent failure but an actively FALSE verdict, telling
the caller they never took a snapshot when they did. That is §8.5's headline
case, so it is fixed and tested rather than noted. intelStatus and
intelApiSurface collapsed the same way; intelApiSurface additionally printed a
"not yet populated" banner that was simply untrue.

Every row is failing-first, including the absent-file ones — the field is new,
so it does not exist pre-fix at all. Those rows are not pre-fix pins; they pin
that the fix does not OVER-fire on the ordinary absent case, which is what would
turn this into noise on every project lacking an intel file. IO failure is
injected by monkeypatching fs and restoring in finally, never chmod 0o000 — root
bypasses mode bits, so the reviewer's manual chmod repro is not reproducible as
a test.

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* test(#3885): build the pathological intel fixture as text, not by stringifying a nested object

The remote runner came back red on Linux with two failures, both
T4: deeplyNestedIntelDoesNotOverflowTheStack, while the same test passed on
macOS. The product was never at fault.

writeNestedFixture(12000) built a 12,000-deep JavaScript OBJECT and then
JSON.stringify'd it. JSON.stringify recurses once per level, so it overflowed
the TEST PROCESS's stack — the error was thrown before the CLI was ever spawned.
Linux's container stack is smaller than macOS's, which is the whole of the
platform difference.

Measured, with the same document built as JSON TEXT so nothing in the building
process recurses:

  depth=100    rc=0 truncated=true
  depth=5000   rc=0 truncated=true
  depth=12000  rc=0 truncated=true
  depth=60000  rc=0 truncated=true

V8 parses this shape iteratively; only stringify recurses. The bound works at
every depth tried.

The fixture is now built by string concatenation. That is also the more faithful
input — a real deeply nested JSON document on disk is exactly what the bound
guards, where a stringified object was only ever a way to produce one.

The depth stays 12000. Lowering it would have made the test pass by weakening it
to accommodate a fixture bug, and 12000 is a legitimate pathological input the
product handles. T4 remains a genuine fail-first: rebuilt against the parent of
the commit that added the bound, the string-built depth-12000 fixture still
drives the CLI to rc=1 with "Error: Maximum call stack size exceeded".

A comment records why the fixture is text, so it is not "simplified" back into a
macOS-green / Linux-red test.

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* chore(#3885): backfill the changeset PR number

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* test(#3885): normalize path separators before splicing into the workflow's bash

CI red on one lane — test (windows-latest, 24, shard 3/3). macOS, Linux and the
remote runner were all green.

  AssertionError: commit must name the single REVIEWS.md file; got:
    --files C:UsersRUNNER~1AppDataLocalTempgsd-3352-phasedir-mOKmuy/03-REVIEWS.md

Every backslash in C:\Users\RUNNER~1\AppData\Local\Temp\... was eaten. The
harness spliced an OS-native temp path into the extracted bash, and bash consumes
\U, \A, \L and \T as escapes on an unquoted expansion. The same loss broke
RUN_DIR, so "rm -rf" targeted a path that never existed and the run directory
survived — which is the other two assertions.

This is a fixture defect, not a product one, and that was checked rather than
assumed. In production the phase directory is toPosixPath-normalized at every
call site that serializes it (bin/lib/init.cjs:951, 1381, 1461, 1529, 1595), and
the run directory is created by "mktemp -d" running inside the bash block itself
(gsd-core/workflows/review.md:163), which emits POSIX-style output even under
Git-Bash on Windows. Neither ever carries a backslash where the workflow reads it.

The file's pre-existing #3034 harness splices raw native paths too, but only ever
inside double-quoted assignments, so it never tripped this — my new harness
followed that convention faithfully into the one place where it does not hold.
Both now splice through toPosixPath from shell-command-projection, the
established seam, which is a no-op on POSIX and mirrors what production does.

No assertion was weakened. "commit must name the single REVIEWS.md file" and
"the run dir must still be destroyed" still assert exactly that; only how the
fixture supplies its path changed. Nothing is skipped on Windows — a t.skip()
here would have hidden the question of whether the exposure was real, which is
the question that mattered.

Driven both ways: a synthetic C:\Users\RUNNER~1\... input reproduces the exact CI
string when unfixed and yields C:/Users/RUNNER~1/... when fixed; a POSIX input
produces a byte-identical shape, proving the normalization is idempotent.

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* test(#3885): stop the harness making the deleted run dir its own cwd

Windows shard 3/3 stayed red after the separator fix, on two assertions the
separator fix never touched:

  AssertionError: the run dir must still be destroyed
  AssertionError: nothing to preserve is not a failure — run dir must still be removed

The separators were a real bug and fixing them fixed the --files assertion. They
were not this bug, and two CI cycles went into the wrong axis before I stopped
converting path forms and looked at what the harness actually does.

runWriteReviewsFlow passed cwd: runDir to runHook, so the child bash process's
working directory WAS the directory the block under test then removes with
rm -rf "$RUN_DIR". POSIX allows a process to delete its own cwd — verified
locally, cd "$d"; rm -rf "$d" removes it cleanly — and Windows does not: a live
process's working directory cannot be removed. So on Windows the directory
survived and both assertions failed, on macOS and Linux it vanished and they
passed. Nothing to do with slashes.

Harness-only. Production never cd's into the run directory; every reference is by
absolute path, and RUN_DIR is created by mktemp -d inside the bash block itself
(gsd-core/workflows/review.md:165) rather than injected. review.md is unchanged.

Fix: the child now runs with its cwd in an unrelated temp directory that the
block under test never deletes. Neither assertion was weakened, and nothing is
skipped on Windows — the tests in this file carry no platform guard and run
there unconditionally, which is how this surfaced at all.

Honest limit: the Windows failure mode cannot be reproduced on macOS, because
POSIX permits the very thing Windows refuses. The diagnosis is grounded in that
documented divergence and in the fact that only the Windows lane failed, but the
green outcome on windows-latest is unverified until CI runs it.

Refs #3885

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

---------

Co-authored-by: sim <sim@local>
Co-authored-by: Claude Opus 5 <noreply@anthropic.com>
2026-08-27 04:12:47 -04:00

67 KiB
Raw Blame History

GSD CLI Tools Reference

Reference for the gsd-tools CLI (gsd-core/bin/gsd-tools.cjs). For slash commands and user flows, see Command Reference. Return to docs index.


Overview

gsd-tools.cjs centralizes config parsing, model resolution, phase lookup, git commits, summary verification, state management, and template operations across GSD commands, workflows, and agents.

Shipped path gsd-core/bin/gsd-tools.cjs
Implementation 20 domain modules under gsd-core/bin/lib/ (the directory is authoritative)
Status Primary runtime command surface for orchestration, workflows, and automation.

Usage (CJS):

node gsd-tools.cjs <command> [args] [--raw] [--cwd <path>]

Global flags (CJS):

Flag Description
--raw Machine-readable output (JSON or plain text, no formatting)
--cwd <path> Override working directory (for sandboxed subagents)
--ws <name> Workstream context for .planning/workstreams/<name> paths
--pick <field> Extract one field from a command's JSON output — see --pick <field> contract below

--pick <field> contract

--pick <field> runs <command> as normal, parses its stdout as JSON, and extracts one field by name (dotted paths and [N] array indices are supported, e.g. a.b.c, directories[-1]). As of ADR-3473 §8.4 / #3884, the three possible outcomes are distinguished by exit code, never by an ambiguous empty string:

Outcome stdout stderr Exit code
Field present The field's value, coerced to a string (none) 0
Field absent (missing key, out-of-range index, dotted path partially missing, or a non-object JSON root) empty Diagnostic naming the field and the available top-level keys (or the actual JSON root type) 1 (pick_field_absent)
Command output is not JSON (including --raw output, which is plain text/human-readable, not JSON) empty Diagnostic saying the output was not JSON 1 (pick_output_not_json)

A null or empty-string ('') field value is a real answer, not an absence — it still prints (an empty line) at exit 0. Only the absence of the field itself is a failure. This is why --raw and --pick are, in practice, mutually exclusive: --raw output is not JSON, so combining them always hits pick_output_not_json.

This replaces the previous behavior. Before #3884, an absent field (or non-JSON output) silently printed an empty string at exit 0 — indistinguishable from a field that genuinely held null or ''. That coercion is gone. The common shell idiom

X=$(gsd_run query some.command --pick some_field 2>/dev/null) || X=default

now works as written: the || X=default arm fires exactly when the field could not be resolved, and never fires merely because the resolved value happens to be empty.


State Commands

Manage .planning/STATE.md — the project's living memory.

# Load full project config + state as JSON
node gsd-tools.cjs state load

# Output STATE.md frontmatter as JSON
node gsd-tools.cjs state json

# Update a single field. Frontmatter keys are projections of body fields —
# write the body field (see COMMANDS.md#state-update-field-value).
node gsd-tools.cjs state update <field> <value>

# Get STATE.md content or a specific section
node gsd-tools.cjs state get [section]

# Batch update multiple fields
node gsd-tools.cjs state patch --field1 val1 --field2 val2

# Increment plan counter
node gsd-tools.cjs state advance-plan

# Record execution metrics
node gsd-tools.cjs state record-metric --phase N --plan M --duration Xmin [--tasks N] [--files N]

# Recalculate progress bar
node gsd-tools.cjs state update-progress

# Add a decision
node gsd-tools.cjs state add-decision --summary "..." [--phase N] [--rationale "..."]
# Or from files:
node gsd-tools.cjs state add-decision --summary-file path [--rationale-file path]

# Add/resolve blockers
node gsd-tools.cjs state add-blocker --text "..."
node gsd-tools.cjs state resolve-blocker --text "..."

# Record session continuity
node gsd-tools.cjs state record-session --stopped-at "..." [--resume-file path]

# Phase start — update STATE.md Status/Last activity for a new phase
node gsd-tools.cjs state begin-phase --phase N --name SLUG --plans COUNT

# Agent-discoverable blocker signalling (used by discuss-phase / UI flows)
node gsd-tools.cjs state signal-waiting --type TYPE --question "..." --options "A|B" --phase P
node gsd-tools.cjs state signal-resume

State Snapshot

Structured parse of the full STATE.md:

node gsd-tools.cjs state-snapshot

Returns JSON with: current position, phase, plan, status, decisions, blockers, metrics, last activity.

Smart Entry

Read-only situation classifier used by /gsd-next.

node gsd-tools.cjs smart-entry          # Human summary + recommended route
node gsd-tools.cjs smart-entry --json   # Machine-readable result for workflows

The JSON result contains situation, recommended, summary, signals, and ordered actions[]. Detection reads .planning/STATE.md, ROADMAP.md, latest verification/summary artifacts, and git status; it does not write files or dispatch commands.


Phase Commands

Manage phases — directories, numbering, and roadmap sync.

# Find phase directory by number
node gsd-tools.cjs find-phase <phase>

# Calculate next decimal phase number for insertions
node gsd-tools.cjs phase next-decimal <phase>

# Append new phase to roadmap + create directory
node gsd-tools.cjs phase add <description>

# Insert decimal phase after existing
node gsd-tools.cjs phase insert <after> <description>

# Remove phase, renumber subsequent
node gsd-tools.cjs phase remove <phase> [--force]

# Mark phase complete, update state + roadmap
# Also emits advisory `warnings[]` when a phase SUMMARY references a file that
# is not on disk — see "Phase SUMMARY artifact check" below.
node gsd-tools.cjs phase complete <phase>

# Evaluate HUMAN-UAT results for a phase (markdown-aware; ignores false-positive contexts)
# Returns JSON: { passed, uat_files[], verification_files[], checks[], blockers[], policy }
node gsd-tools.cjs phase uat-passed <phase> [--require-verification]

# Index plans with waves and status
node gsd-tools.cjs phase-plan-index <phase>

# List phases with filtering
node gsd-tools.cjs phases list [--type planned|executed|all] [--phase N] [--include-archived]

# Archive (or, with --force, permanently delete) every current phase directory —
# used by /gsd-new-milestone before roadmapping the next cycle
node gsd-tools.cjs phases clear [--confirm] [--force] [--archive-version <version>]

Milestone-scoped phase listing (phases list)

The bare phases list (no --phase, no --include-archived) is scoped to the current milestone's ROADMAP.md window and filtered through the canonical sentinel predicate: 999.* backlog directories and 0-* pre-milestone directories are not listed as current-milestone phases. --phase <N> (a direct lookup) and --include-archived (an archive listing) are deliberately not scoped or sentinel-filtered — they answer "does this phase exist" and "what has ever existed here," not "what belongs to this milestone," so they still see sentinel and out-of-window directories.

phases clear and sentinel directories

phases clear moves (or, with --force and no prior archive, permanently deletes) every phase directory under .planning/phases/ except sentinels. It now excludes both 999.* (backlog) and 0-* (pre-milestone) directories via the same canonical sentinel predicate phases list uses — previously its own regex excluded 999 but not 0, so a 0-* directory could be destroyed on this irreversible path.

find-phase plan/summary counts (live vs physical)

find-phase's JSON carries the existing plans[] / summaries[] arrays unchanged, plus three additive scalar fields:

Field Set Answers
plan_count live — status: superseded plans excluded "how much outstanding work is left in this phase?" (same set as plans[])
summary_count live same, for summaries[]
plan_count_all physical — every canonically-named plan file on disk, superseded included "what has the planner actually written to disk?"

Naming mirrors roadmap analyze's existing plan_count/summary_count, and the _all suffix echoes the underlying scanPhasePlans field it is drawn from. Pick by the question you're asking, not by which number looks bigger: a phase where every plan is status: superseded correctly reports plan_count: 0 — that is a real "nothing outstanding" answer, not a bug — while plan_count_all still reports the physical count, so a check for "did the planner produce anything at all" doesn't misread a fully-superseded phase as untouched.

When the phase can't be resolved, all three fields are null, not 0 — a fabricated 0 would read identically to a genuinely empty phase.

Phase SUMMARY artifact check

A phase SUMMARY.md asserts which files the phase created or modified. On phase complete, each SUMMARY in the phase is scanned for referenced file paths and any path that is not on disk is reported in the command's existing warnings[] array — the case where a summary reports work that never landed.

Advisory only. Findings never block completion; the completion gate is the phase's VERIFICATION.md status, which this does not touch. /gsd-execute-phase surfaces the warnings before advancing.

Scope and limits, so the output is not read as more than it is:

  • Paths are recovered heuristically from the SUMMARY body — backticked paths and Created:/Modified:-style lines. Globs, URLs, bare hostnames, and paths resolving outside the project are skipped rather than reported.
  • The key-files: frontmatter block is not read. Its YAML flow-sequence form (created: [a.ts, b.ts]) is not matched by the prose scan, so a summary whose only file claims live there produces no findings.
  • Commit hashes in the SUMMARY are not resolved here. The pattern matches any hex-shaped token in prose, which is too loose to surface.

Every path the scan does recover is checked — there is no cap. The standalone verify-summary verb keeps its historical default of checking the first two.

phase-plan-index: unresolved depends_on tokens (ADR-3473 §8.5, #3427/#3885)

A plan's depends_on: token must resolve to another plan in the same phase (by exact id or by canonical id). When a token resolves to neither, the edge is dropped and the dependent plan becomes a DAG root — phase-plan-index now names this in warnings[] instead of silently discarding it:

Plan 03-02: depends_on token "typo-plan-id" does not resolve to any plan in this
phase — edge dropped, wave placement for this plan may be unreliable

The token is escaped (quoted, control characters and embedded newlines backslash-escaped) before it is embedded in the warning, so a depends_on value crafted to contain a newline or a quote cannot forge a second, fabricated warning entry when warnings[] is printed one-per-line.

The wave-mismatch warning is suppressed for an affected plan. Normally a plan whose declared wave: disagrees with the computed DAG wave gets its own warning ("declared wave: N but depends_on DAG places it in wave M"). When the disagreement is caused by a dropped edge on that same plan, that warning would blame the author for a mismatch the tool itself manufactured by losing an edge — so it does not fire for that plan; the unresolved-token warning above stands in its place. A plan with no dropped edges and a genuinely wrong wave: still gets the mismatch warning as before.

This does not repair waves / wave themselves — those fields stay computed from the DAG with the edge missing, since the edge cannot be invented. A consumer using wave for scheduling (WAVE_FILTER, the wave-safety check) is still working from the degraded assignment; only the diagnostic surfaces the loss.


Roadmap Commands

Parse and update ROADMAP.md.

# Extract phase section from ROADMAP.md
node gsd-tools.cjs roadmap get-phase <phase>

# Full roadmap parse with disk status
node gsd-tools.cjs roadmap analyze

# Update progress table row from disk
node gsd-tools.cjs roadmap update-plan-progress <N>

Milestone window scope (roadmap analyze)

roadmap analyze scopes its phase list to the current milestone's section of ROADMAP.md. Its JSON output carries a scope field describing how much of the intended input that scoping actually saw:

scope Meaning
complete The window was computed over the whole intended input. phase_count: 0 here is a real answer — a freshly-declared milestone genuinely has no phases yet.
truncated The milestone's heading was found, but its window closed before reaching the document's phase region — typically because a closed-milestone heading sits between the active milestone and its ### Phase N: sections. phase_count: 0 here is a non-answer.
unscoped No milestone version could be resolved (or its section is absent) on a ROADMAP that does use versioned milestones, so the result is not milestone-scoped.
unreadable ROADMAP.md could not be read.

Before this field existed, all four cases produced the same well-formed phase_count: 0 with no error, so a consumer could not tell a genuinely empty milestone from a scoping failure. Branch on scope, not on phase_count alone.

A ROADMAP with no versioned milestone headings at all (the free-form legacy shape) reports complete: the whole document is the milestone there. Note this answer is specific to windowing — see the next section for why milestone identity answers the same document differently.

A non-COMPLETE scope withholds the percentage entirely (#3217)

roadmap analyze --json's progress_percent, stats --raw's percent / plan_percent, query progress --raw's percent, and state json --raw's progress.percent are now nullable — a Tier-2 contract change. When the phase set a percentage would be computed from is not fully trustworthy (any scope other than complete), these surfaces render no percentage at all rather than a number computed from a truncated, unscoped, or unreadable set:

Surface Non-complete behavior
roadmap analyze --json progress_percent: null
stats --raw percent: null, plan_percent: null
query progress --raw percent: null
state json --raw progress.percent is omitted from the progress object (not 0, not present as null)
state update-progress --raw false — no write; STATE.md's Progress field is left untouched, and a [gsd-tools] WARNING: line is written to stderr naming the scope

0 is a legitimate, real answer under a complete scope (e.g. a freshly-declared milestone with zero phases, or a phase with zero plan files) and is never withheld — only a non-complete scope withholds.

roadmap analyze --json gates total_plans / total_summaries / phases / completed_phases on the top-level scope field described above (heading windowing identity), but progress_percent is governed by a separate progress_scope field — the scope of the phase-directory set the percentage was actually computed from. The two can legitimately disagree (e.g. scope: "complete" — the ROADMAP heading resolves fine — alongside progress_scope: "unreadable" when .planning/phases itself cannot be read), so a consumer must branch on progress_scope, not scope, to know why progress_percent is null.

Milestone identity (which milestone, and what it is called)

Milestone identity — the version and name behind STATE.md's milestone: field, roadmap analyze's milestones[] array, and the milestone shown by query progress, stats, init manager, validate health and workstream create — is resolved by one implementation:

  • STATE.md's milestone: field selects the version when present. The ROADMAP heuristics are the fallback, not the primary.
  • The heading is located by the same canonical locator that computes the milestone window, so a ### Phase N: … heading is never read as the milestone heading — even when it mentions a version. Previously a ROADMAP whose phase heading preceded its milestone heading could write a wrong milestone: to disk.
  • The name is the heading text after that heading's own version token, with one leading delimiter (—, –, :, -) and any trailing ✅/📋/🚧 marker removed. Parentheses are ordinary characters: a milestone named v3.3 — Portability (Windows) keeps its full name rather than being cut at the (.
  • When identity cannot be determined it is reported as absent rather than defaulted. A free-form legacy ROADMAP with no version anywhere is unscoped with no identity — unlike windowing above, there is no version token to report, and inventing one would be indistinguishable from a real answer.

Two consumers act on that distinction rather than just displaying it: state sync / state record-session write null instead of a fabricated milestone:/name, and phases clear falls back to its dated archive label (archived-<YYYYMMDD>) instead of filing phase history under a fabricated milestones/<version>-phases/ directory.

milestone complete refuses an untrustworthy window

milestone complete archives ROADMAP.md/REQUIREMENTS.md and moves phase directories — a one-way door. When the milestone window's scope is truncated — the milestone heading was found but its section closes before reaching any phase entries, even though the ROADMAP has phase entries elsewhere — phase scoping cannot be trusted, and the command now refuses rather than falling back to an over-inclusive filter that would archive every phase directory in the project. unreadable (no ROADMAP.md at all) and unscoped (no section for this version) are pre-existing, legitimately handled states and are not refused here. Pass --force to override, the same affordance the unstarted-phase guard uses.


Config Commands

Read and write .planning/config.json.

# Initialize config.json with defaults
node gsd-tools.cjs config-ensure-section

# Set a config value (dot notation)
node gsd-tools.cjs config-set <key> <value>

# Get a config value
node gsd-tools.cjs config-get <key>

# Set model profile
node gsd-tools.cjs config-set-model-profile <profile>

Capability Commands

The capability command family resolves and mutates capability state (ADR-857). One resolved state composes three substrates: the install profile (.gsd-profile), the runtime surface (.gsd-surface.json), and config gates (.planning/config.json workflow.*). enabled = installed && surfaced; a hook is active only when its capability is enabled and its config gate is on.

capability state

node gsd-tools.cjs capability state [--config-dir <path>] [--raw]

Resolves and prints every capability's installed, surfaced, enabled, and per-hook active state. Read-only. --config-dir selects the runtime config directory (defaults to the resolved Claude home). --raw emits JSON.

capability set

node gsd-tools.cjs capability set <id> [--on | --off] [--gate <key>=<true|false>]... [--config-dir <path>] [--runtime <name>] [--scope <global|project>] [--raw]

Mutates one capability, re-resolves, and reports the result. Two axes:

  • --on / --off (aliases --enable / --disable): the capability on/off switch, applied through the runtime surface. --off unsurfaces the capability; the change is reversible and reclaims the surface budget. A capability that owns no skills has no surface footprint — use --gate for those.
  • --gate <key>=<true|false> (repeatable): toggles one of the capability's own config keys (a hook gate) within an enabled capability.
  • --runtime / --scope: materialise the surface change for that runtime's artifact layout.

After writing, the command re-resolves and prints two message classes to stderr: errors (non-zero exit) — unknown capability id, a --gate key the capability does not own, a non-boolean gate value, or --on for a capability whose skills are not in the install profile; warnings (exit 0) — --on/--off on a skill-less capability, or a capability left surfaced while every hook is gated off ("present but dead"). Exit status is non-zero only when a requested change could not be applied.

Examples:

# Turn the UI capability off
node gsd-tools.cjs capability set ui --off --config-dir ~/.claude

# Keep the capability on, gate one hook off
node gsd-tools.cjs capability set code-review --gate workflow.code_review=false

Teams Status

query teams-status

node gsd-tools.cjs query teams-status [--active]

Read-only detector for claude-code's experimental agent-teams feature (issue #1355). Resolves the runtime via the canonical GSD_RUNTIME → config.runtime → 'claude' precedence, then checks CLAUDE_CODE_EXPERIMENTAL_AGENT_TEAMS.

Default (no flags): prints a JSON object and exits 0:

{
  "active": false,
  "runtime": "claude",
  "env_present": false,
  "source": "off: flag absent"
}

Fields:

Field Type Description
active boolean true only when CLAUDE_CODE_EXPERIMENTAL_AGENT_TEAMS is strictly truthy ("1" or "true", case-insensitive) and the resolved runtime is "claude"
runtime string The resolved runtime name (e.g. "claude", "codex")
env_present boolean true when the env flag is set to a strictly-truthy value
source string One of: "on: env", "off: flag absent", "off: non-claude"

--active flag: exits 0 if active is true, exits 1 otherwise. Prints nothing. Useful in bash conditionals:

if gsd_run query teams-status --active >/dev/null 2>&1; then
  echo "agent-teams is on"
fi

This command is strictly read-only — no config writes, no disk mutation.


query eval.score

node gsd-tools.cjs query eval.score --covered <N> --total <N> --infra <tooling>,<dataset>,<cicd>,<guardrails>,<tracing>

Deterministic scorer for eval-auditor results. Computes coverage, infrastructure, and overall scores from audited inputs. Called by gsd-eval-auditor in its calculate_scores step — agents must not recompute these values by hand.

Inputs:

Flag Type Description
--covered integer Number of eval dimensions scored COVERED
--total integer Total planned eval dimensions
--infra string Comma-separated list of 5 infra component statuses (order: tooling, dataset, cicd, guardrails, tracing); each value is ok, partial, or missing

Output JSON:

Field Type Description
coverage_score number covered / total × 100
infra_score number (sum of component weights) / 5 × 100 (ok=1, partial=0.5, missing=0)
overall_score number (coverage_score × 0.6) + (infra_score × 0.4)
verdict string PRODUCTION READY (80–100) / NEEDS WORK (60–<80) / SIGNIFICANT GAPS (40–<60) / NOT IMPLEMENTED (0–<40)

Example:

node gsd-tools.cjs query eval.score --covered 3 --total 5 --infra ok,partial,missing,ok,ok
# → {"coverage_score":60,"infra_score":70,"overall_score":64,"verdict":"NEEDS WORK"}

This command is strictly read-only — no config writes, no disk mutation.


query context-predicates

node gsd-tools.cjs query context-predicates --class <CLASS> | --prefix <dotted.prefix> | --contains <text>

Selector surface for the CONTEXT.md predicate fact-store (ADR-1671, #2928). Parses the repo-root CONTEXT.md live on every call via the compiled context-predicates.cjs — it never reads the committed docs/CONTEXT-INDEX.json (that artifact is a CI drift-guard byproduct, not a query source, so it can never go stale relative to the live predicates it answers about).

Selectors (at least one required; when more than one is given they are ANDed together):

Flag Type Description
--class <CLASS> string Exact match on the predicate's class (the segment before the first .)
--prefix <dotted.prefix> string Match predicate ids starting with this dotted prefix
--contains <text> string Case-insensitive substring match against id + ' ' + value

Each flag also accepts the inline-assignment form (--contains=<text>), which is the escape hatch for a flag-shaped value the space-separated form cannot express — e.g. --contains=--dry-run to search for the literal substring --dry-run. The space-separated form (--contains --dry-run) always reads a following --... token as a missing value, by design.

Output JSON:

{
  "matched": 2,
  "predicates": [
    { "id": "RULESET.EXAMPLE", "klass": "RULESET", "value": "…", "line": 42, "section": "Glossary" }
  ]
}
Field Type Description
matched number Count of predicates satisfying all given selectors
predicates array Each entry is a live Predicate — id, klass, value, line (1-based source line), section (nearest enclosing heading)

This command is strictly read-only — no config writes, no disk mutation. See ADR-1671 and Architecture — CLI Tools.


Intel Commands

node gsd-tools.cjs intel query <term>

Searches every JSON intel file under .planning/intel/ (keys and values, including arch-decisions.json) for <term>. No-ops with { enabled: false } when the intel capability is not active (intel.enabled in config).

Output JSON:

{ "matches": [{ "source": "file-roles.json", "entries": [...] }], "term": "…", "total": 3, "truncated": false }
Field Type Description
total number Count of matched entries across every intel file
truncated boolean true when the recursive walk of at least one intel file hit the 48-level depth ceiling before finishing — see below

The 48-level recursion ceiling and truncated (ADR-3473 §8.5, #3885)

The search recurses into nested objects/arrays up to 48 levels deep (the bound is on depth, not breadth or total node count — a wide-but-shallow structure is unaffected). A match at or above the ceiling is not returned, and truncated is set to true on the result so a caller can tell "I stopped looking" apart from "there is no match here."

truncated: false means the walk reached the bottom of every branch it visited — it does not by itself mean anything was found; check total for that. Before this fix, a search past the ceiling threw an uncaught RangeError: Maximum call stack size exceeded instead of returning a diagnosable result; a shallower search (depth ≤ 48) is unaffected and its result is unchanged.


Model Resolution

# Get model for agent based on current profile
node gsd-tools.cjs resolve-model <agent-name>
# Raw output returns the selected model ID/tier.
# JSON output also includes profile and, when the active runtime supports it,
# reasoning_effort.

Agent names: gsd-planner, gsd-executor, gsd-phase-researcher, gsd-project-researcher, gsd-research-synthesizer, gsd-verifier, gsd-plan-checker, gsd-integration-checker, gsd-roadmapper, gsd-debugger, gsd-codebase-mapper, gsd-nyquist-auditor


Verification Commands

Validate plans, phases, references, and commits.

# Verify SUMMARY.md file
node gsd-tools.cjs verify-summary <path> [--check-count N]

# Check PLAN.md structure + tasks
node gsd-tools.cjs verify plan-structure <file>

# Check all plans have summaries
node gsd-tools.cjs verify phase-completeness <phase>

# Check @-refs + paths resolve
node gsd-tools.cjs verify references <file>

# Batch verify commit hashes
node gsd-tools.cjs verify commits <hash1> [hash2] ...

# Check must_haves.artifacts
node gsd-tools.cjs verify artifacts <plan-file>

# Check must_haves.key_links
node gsd-tools.cjs verify key-links <plan-file>

verify key-links confines each link's from:/to: to the project directory (#3493): a path that resolves outside the project (via ../ traversal, an absolute path, or a symlink) is never read. That link's links[] entry reports path_rejected: "from" or path_rejected: "to" (whichever field was rejected) alongside verified: false, without echoing the underlying path-confinement error (which would embed an absolute host path). A rejected link fails independently — it does not abort evaluation of the other links in the same plan, and does not set path_rejected on links whose paths resolve inside the project.


Validation Commands

Check project integrity.

# Check phase numbering, disk/roadmap sync
node gsd-tools.cjs validate consistency

# Check .planning/ integrity, optionally repair
node gsd-tools.cjs validate health [--repair]

# Probe context-window utilization for status-line / hook callers (v1.40.0)
node gsd-tools.cjs validate context

# Context utilization as typed JSON surface (#455)
node gsd-tools.cjs validate context --json

validate consistency's warnings entries are coded diagnostics ({code, message, fix, repairable}), not bare strings. A phase declared in ROADMAP.md with no directory on disk, or a directory on disk with no ROADMAP.md entry, reports under W006/W007 — the same codes validate health uses for the identical check, since it's one enumeration with two callers, not a separate check. The four subjects unique to this command (numbering gaps in phases or plans, orphan *-SUMMARY.md files, plans missing wave frontmatter) use a new C0NN code range (C001-C004).

validate context emits a structured envelope with utilization, status (ok / warn / critical at the 60 % / 70 % thresholds), and a suggestion string. The same data backs /gsd-health --context. Pass --json to receive the typed IR directly (useful in scripts and test assertions).


Planning Snapshot Commands

planning inspect

Emits a read-only, schema-versioned snapshot of everything .planning/ knows, as one JSON document. It exists so a downstream tool — a harness UI, a mission-control view, a dashboard — can consume planning state without parsing ROADMAP.md / REQUIREMENTS.md / *-PLAN.md / *-SUMMARY.md a second time and drifting from gsd-core's own answers.

gsd-tools query planning inspect
gsd-tools query planning.inspect     # dotted canonical form — identical output

Takes no arguments. A stray positional or an unrecognized flag is a fail-loud usage error, not a silently-ignored one: a caller who believed --phase 3 was scoping the query would otherwise receive a whole-project snapshot presented as a scoped one.

planning inspect writes nothing, anywhere. It is safe to run against a project mid-workflow.

The schema contract

{ "schema_version": 1, "...": "..." }

schema_version is the contract. A consumer must reject any value other than the one it was written against rather than best-effort-parsing a shape it does not know. Every top-level key is always present; a key is never omitted to signal absence, because omission is itself something callers come to depend on.

Key What it carries
schema_version Always 1 today
generated_from Resolved cwd and .planning/ root (null when there is no planning root)
milestone version, name, and the scope of that answer
active phase, plan, and status — three distinct STATE.md facts, each scoped separately
phases[] Per phase: completion, verification, roadmap acceptance, UAT, plan and task rows
orphan_phase_dirs[] Directories under phases/ that the current milestone window does not declare
requirements[] Requirement rows with mapped-phase traceability
progress accepted_phases and completed_plans, as independent fractions
diagnostics[] Coded reasons for every non-answer above

Three kinds of evidence, never folded together

Each phase reports verification, roadmap_acceptance, and uat side by side. They are not combined into a single verdict, because they answer different questions and can legitimately disagree — a phase can pass verification while UAT items remain open.

roadmap_acceptance.checkbox is reported with authoritative: false. A ticked ROADMAP checkbox is a human annotation with no machine authority: completion is derived from disk state (a passing *-VERIFICATION.md), and a stale tick never overrides it. See Milestone window scope.

Unknown is a real answer; nothing is inferred

Where the evidence is absent, or where two sources disagree, the value is null or "unknown" and a coded entry in diagnostics[] says why. It is never reconciled, guessed, or filled from a plausible default.

The most common case is task-scoped file provenance. A <task> block declares the files it plans to touch, but SUMMARY.md's ## Files Created/Modified section describes the whole plan, not an individual task. Spreading that plan-level list across the plan's tasks would be inference, so instead:

provenance Meaning
task_scoped The summary attributed files to this specific task (via a deviation block naming Found during: Task N)
plan_scoped A summary exists, but only carries a plan-level file list — this task's changed files are unknown
absent No summary exists yet

When a task's planned and changed file sets both exist and disagree, agreement is "conflicting" and both lists are emitted verbatim.

Percentages are withheld rather than guessed

progress.accepted_phases and progress.completed_plans are independent fractions, each {completed, total, percent, scope}. percent is null whenever scope is anything other than complete — the same rule the roadmap and progress surfaces follow, for the same reason. See A non-COMPLETE scope withholds the percentage entirely.

0 is a real answer under a complete scope and is never withheld.

Large payloads

Output over ~50 KB is written to a temp file and returned as @file:<path>, which gsd-tools resolves transparently before writing to stdout — the same channel init uses. Callers see JSON either way.


Template Commands

Template selection and filling.

# Select summary template based on granularity
node gsd-tools.cjs template select <type>

# Fill template with variables
node gsd-tools.cjs template fill <type> --phase N [--plan M] [--name "..."] [--type execute|tdd] [--wave N] [--fields '{json}']

Template types for fill: summary, plan, verification


Frontmatter Commands

YAML frontmatter CRUD operations on any Markdown file.

# Extract frontmatter as JSON
node gsd-tools.cjs frontmatter get <file> [--field key]

# Update single field
node gsd-tools.cjs frontmatter set <file> --field key --value jsonVal

# Merge JSON into frontmatter
node gsd-tools.cjs frontmatter merge <file> --data '{json}'

# Validate required fields
node gsd-tools.cjs frontmatter validate <file> --schema plan|summary|verification

Scaffold Commands

Create pre-structured files and directories.

# Create CONTEXT.md template
node gsd-tools.cjs scaffold context --phase N

# Create UAT.md template
node gsd-tools.cjs scaffold uat --phase N

# Create VERIFICATION.md template
node gsd-tools.cjs scaffold verification --phase N

# Create phase directory
node gsd-tools.cjs scaffold phase-dir --phase N --name "phase name"

Init Commands (Compound Context Loading)

Load all context needed for a specific workflow in one call. Returns JSON with project info, config, state, and workflow-specific data. init onboard [--fast] [--text] reports brownfield signals, planning-doc candidates, codebase-map completeness, fast-map readiness, text-mode routing, partial planning state, and onboarding summary status for /gsd-onboard.

node gsd-tools.cjs init execute-phase <phase>
node gsd-tools.cjs init plan-phase <phase>
node gsd-tools.cjs init new-project
node gsd-tools.cjs init new-milestone
node gsd-tools.cjs init onboard [--fast] [--text]
node gsd-tools.cjs init quick <description>
node gsd-tools.cjs init resume
node gsd-tools.cjs init verify-work <phase>
node gsd-tools.cjs init phase-op <phase>
node gsd-tools.cjs init code-review <phase> [--fix]
node gsd-tools.cjs init review <phase>
node gsd-tools.cjs init discuss-phase-assumptions <phase> [--auto]
node gsd-tools.cjs init todos [area]
node gsd-tools.cjs init milestone-op
node gsd-tools.cjs init map-codebase
node gsd-tools.cjs init progress
node gsd-tools.cjs init manager
node gsd-tools.cjs init complete-milestone
node gsd-tools.cjs init autonomous [--converge] [--cross-ai]
node gsd-tools.cjs init docs-update
node gsd-tools.cjs init update [--next] [--rc]
node gsd-tools.cjs init transition

# Workstream-scoped init (`--ws` flag)
node gsd-tools.cjs init execute-phase <phase> --ws <name>
node gsd-tools.cjs init plan-phase <phase> --ws <name>

Large payload handling: When output exceeds ~50KB, the CLI writes to a temp file and returns @file:/tmp/gsd-init-XXXXX.json. Workflows check for the @file: prefix and read from disk:

INIT=$(node gsd-tools.cjs init execute-phase "1")
if [[ "$INIT" == @file:* ]]; then INIT=$(cat "${INIT#@file:}"); fi

Milestone Commands

# Archive milestone
node gsd-tools.cjs milestone complete <version> [--name <name>] [--no-archive-phases] [--force] [--dry-run] [--archive-quick]

# Archive .planning/quick/* into milestones/<version>-quick/ WITHOUT the milestone complete close-out (#2142)
node gsd-tools.cjs milestone archive-quick <version> [--dry-run]

# Mark requirements as complete
node gsd-tools.cjs requirements mark-complete <ids>
# Accepts: REQ-01,REQ-02 or REQ-01 REQ-02 or [REQ-01, REQ-02]

milestone complete flags

Flag Description
<version> Milestone version label to archive (e.g. v1.0).
--name <name> Display name for the MILESTONES.md entry. Defaults to <version>.
--no-archive-phases Leave phase directories in place instead of moving them into .planning/milestones/<version>-phases/.
--archive-quick Opt-in (default OFF, #2142): also move every directory under .planning/quick/ into .planning/milestones/<version>-quick/, (re)write that archive directory's README.md index, and clear STATE.md's ### Quick Tasks Completed table rows. See "milestone archive-quick" below for the narrower standalone form and the full behavior.
--force Override the unstarted-phase guard (see below).
--dry-run Print the archive plan (roadmap, requirements, phases, and — when --archive-quick is also passed — quick-task dirs to move) without mutating anything.

Unstarted-phase guard. Before archiving, the command scans the ROADMAP scoped for <version> and refuses if any ### Phase N: heading in that slice has no matching phase directory on disk (disk_status: no_directory). Phase 0 (pre-milestone) and Phase 999 (backlog) sentinels are excluded. The guard runs whenever --force is absent, independent of STATE.md's milestone: field — if that field is present but does not match <version>, a WARNING naming both values is emitted to stderr and the scan still runs (#2946). Pass --force to override.

Sentinel directories are never archived. The phase-directory move performed when --no-archive-phases is absent is now filtered through the same canonical sentinel predicate as phases list and phases clear: 999.* (backlog) and 0-* (pre-milestone) directories are left in place rather than moved into .planning/milestones/<version>-phases/. Previously this path was scoped only by the milestone window, with no sentinel filter, so a sentinel directory sitting inside the window could be archived along with the milestone's real phases.

milestone archive-quick (#2142 escalation)

A narrower sibling of milestone complete --archive-quick, for callers that need to sweep .planning/quick/* WITHOUT the full milestone close-out — chiefly gsd-core/workflows/cleanup.md, which runs against milestones that are typically already completed.

Flag Description
<version> Milestone version label to archive quick-task directories under (e.g. v1.0). Same validation as milestone complete's <version> — letters/digits/./-/_ only, no path separators or ...
--dry-run List what would move (would_archive) without mutating anything.

It moves every directory under .planning/quick/ into .planning/milestones/<version>-quick/, (re)writes that archive directory's README.md index, and clears STATE.md's ### Quick Tasks Completed table rows — the same move/index/reset logic milestone complete --archive-quick uses. Unlike milestone complete, it never archives ROADMAP.md/REQUIREMENTS.md, never writes a MILESTONES.md entry, and runs neither the unstarted-phase guard nor the milestone-window refusal — so, unlike milestone complete --archive-quick, it can be safely re-run against an already-completed milestone. JSON result: { version, archived, entries, archive_dir, state_updated, warnings }.

milestone archive-quick is a second subcommand of milestone (alongside complete) — it is not a separate top-level command.


Agent Skills

Emit the skill block for a given agent type.

# Emit raw XML skill block (default — safe for shell expansion)
node gsd-tools.cjs agent-skills <agent-type>

# Emit typed JSON surface (#455) — { agent_type, block, skills_count, warnings, configured, reason, source, degraded }
node gsd-tools.cjs agent-skills <agent-type> --json

The --json flag returns a typed IR object suitable for structured consumption and test assertions, while the default (no flag) preserves the raw XML output that workflow shell expansions rely on.

--json field reference (as of #1415, Resolution Provenance P2):

Field Type Description
agent_type string The agent type that was queried.
block string The <agent_skills> XML block, or "" when empty.
skills_count number Number of skill paths configured for this agent type.
warnings string[] Per-path warnings for skills that were skipped (missing SKILL.md, unsafe path, etc.). Empty when all configured paths resolved.
configured boolean true when the agent type appears in agent_skills in the config; false when the key is absent entirely.
reason string Resolution reason: "resolved" (block non-empty), "not_configured" (agent not in agent_skills — silent), "configured_empty" (configured but paths list is empty — emits stderr WARNING), "configured_unresolved" (configured with paths but all failed to resolve — emits stderr WARNING).
source string Config provenance: "root" (.planning/config.json), "workstream" (workstream-scoped config), "global-defaults" (~/.gsd/defaults.json), "builtin-defaults" (no project config).
degraded boolean true when a workstream was requested but its config.json was absent and the command fell back to root config; false otherwise.

The command anchors to the project root via findProjectRoot before loading config, so invoking it from a descendant subdirectory resolves the same config as the project root.


Skill Manifest

Pre-compute and cache skill discovery for faster command loading.

# Generate skill manifest (writes to .claude/skill-manifest.json)
node gsd-tools.cjs skill-manifest

# Generate with custom output path
node gsd-tools.cjs skill-manifest --output <path>

Returns JSON mapping of all available GSD skills with their metadata (name, description, file path, argument hints). Used by the installer and session-start hooks to avoid repeated filesystem scans.


Utility Commands

# Convert text to URL-safe slug
node gsd-tools.cjs generate-slug "Some Text Here"
# → some-text-here

# Get timestamp
node gsd-tools.cjs current-timestamp [full|date|filename]

# Count and list pending todos
node gsd-tools.cjs list-todos [area]

# List captured seeds (optionally filter by status: dormant|active|triggered)
node gsd-tools.cjs list-seeds [status]

# Check file/directory existence
node gsd-tools.cjs verify-path-exists <path>

# Append a row to STATE.md's "Quick Tasks Completed" table (schema-backed; #2133)
node gsd-tools.cjs quick-tasks-append --task "<description>"
# See "Milestone Commands" below for `milestone archive-quick` (#2142) — sweeps .planning/quick/* into
# milestones/<version>-quick/ and clears this table, without a full `milestone complete`.

# Aggregate all SUMMARY.md data
node gsd-tools.cjs history-digest

# Extract structured data from SUMMARY.md
node gsd-tools.cjs summary-extract <path> [--fields field1,field2]

# Project statistics
node gsd-tools.cjs stats [json|table]

# Progress rendering (human-readable)
node gsd-tools.cjs progress [json|table|bar]

# Progress as typed JSON surface (#455)
node gsd-tools.cjs progress --json

Both stats and progress are scoped to the current milestone's ROADMAP.md window and sentinel-filtered: 999.* backlog directories and 0-* pre-milestone directories are not counted as current-milestone phases, and the aggregate completion percentage no longer reads 100 while phases from the active window are still outstanding.

# Complete a todo
node gsd-tools.cjs todo complete <filename>

# UAT audit — scan all phases for unresolved items
node gsd-tools.cjs audit-uat

# Cross-artifact audit queue — scan `.planning/` for unresolved audit items
node gsd-tools.cjs audit-open [--json]

# Suppress one open audit item — writes a self-invalidating `audit_acknowledged`
# marker; never overwrites the artifact's own `status:` (except `deferred_items`,
# where the marker IS the entry's `status:`). See docs/COMMANDS.md's
# `/gsd-complete-milestone` entry for the full per-category identifier flag table.
node gsd-tools.cjs audit-open acknowledge --category <category> --milestone <version> [--at <date>] <identifier flags…>

# Reverse-migrate a GSD-2 project into the current structure (backs `/gsd-import --from-gsd2`)
node gsd-tools.cjs from-gsd2 [--path <dir>] [--force] [--dry-run]

# Git commit with config checks
node gsd-tools.cjs commit <message> [--files f1 f2] [--amend] [--no-verify] [--respect-staged]

--no-verify: Skips pre-commit hooks. Used by parallel executor agents during wave-based execution to avoid build lock contention (e.g., cargo lock fights in Rust projects). The orchestrator runs hooks once after each wave completes. Do not use --no-verify during sequential execution — let hooks run normally. --files <paths> staging behaviour: by default, --files runs git add -- <path> for each named file before committing. This overwrites any per-hunk staging set up via git add -p. Pass --respect-staged to skip the git add step and commit only what is already in the index within the requested pathspec. If nothing is staged within that scope, the command returns { committed: false, reason: 'nothing staged' } without error. The trailing -- <paths> pathspec on the commit is applied under both modes, so files staged outside the --files scope are never included (#3061 invariant).

# Web search (requires Brave API key)
node gsd-tools.cjs websearch <query> [--limit N] [--freshness day|week|month]

Update Backup and Restore

The two halves of /gsd-update's user-added-file protection. detect-custom-files lists files that exist inside GSD-managed directories but are absent from gsd-file-manifest.json — the update workflow copies those into gsd-user-files-backup/ before the clean-install wipe. restore-custom-files puts them back afterwards.

# List user-added files the installer would destroy (JSON)
node gsd-tools.cjs detect-custom-files --config-dir <config-dir>

# Plan a restore — reports what would be restored, writes nothing
node gsd-tools.cjs restore-custom-files --config-dir <config-dir>

# Restore the eligible entries
node gsd-tools.cjs restore-custom-files --config-dir <config-dir> --apply

restore-custom-files emits one entry per backed-up file:

Field Meaning
path Path relative to the config dir — where the file came from and goes back to
outcome eligible (plan mode) · restored · skipped_destination_managed · skipped_destination_exists · skipped_copy_failed · skipped_unsafe_path
warnings Advisory {code, detail} findings from the compatibility pass; never blocks a restore

Warning codes: destination_managed, destination_exists, missing_referenced_path, missing_referenced_command, frontmatter_missing_field, write_failed.

The compatibility pass runs against the newly installed release, so it catches a backed-up skill that @-references a workflow the new version retired, invokes a /gsd: command that no longer exists, or is missing the name / description frontmatter its runtime needs.

Three things the restore never does: it never deletes the backup, it never overwrites a path the new release ships (skipped_destination_managed), and it never overwrites a different file already on disk (skipped_destination_exists). Symlinked backup entries are skipped outright rather than followed (skipped_unsafe_path). A single unwritable entry is reported and the remaining entries still restore.


Worktree Commands

Diagnose and configure the worktree fork base used by Claude Code's isolation="worktree" executor dispatch. These commands address the branch-divergence condition described in Fix the worktree base-mismatch (exit 42) error.

# Check whether the current HEAD has diverged from the worktree fork base.
# Returns JSON: { shouldDegrade, reason, message, headSha, forkRef, forkSha }
node gsd-tools.cjs worktree base-check

# Write worktree.baseRef:"head" into .claude/settings.local.json (no-clobber).
# Returns JSON: { changed, skipped, previous, baseRef, file }
node gsd-tools.cjs worktree set-baseref

worktree base-check reads worktree.baseRef from a three-layer cascade — .claude/settings.local.json, then .claude/settings.json, then the user/global settings.json under CLAUDE_CONFIG_DIR (or ~/.claude) — and compares the current HEAD SHA against origin/HEAD. Project-level settings take precedence over the user/global layer, so a machine-wide worktree.baseRef:"head" set via /config is honored when no project override exists. The shouldDegrade field is true when the execute-phase orchestrator will fall back to sequential execution. --mode declares who creates the isolated worktree (#3659): harness-worktree (the default — the runtime harness forks it and does not read project-settings baseRef, #48) or orchestrator-worktree (GSD itself runs git worktree add with an explicit start-point and honors "head"); invalid values fail closed with an error. Possible reason values:

reason shouldDegrade Meaning
baseref-head false worktree.baseRef:"head" is set and --mode orchestrator-worktree declares GSD-managed worktrees — the fork base is the orchestrator HEAD by construction
baseref-head-ignored-by-harness true worktree.baseRef:"head" is set but HEAD differs from origin/HEAD in harness (default) mode — the harness does not read the setting (#48), so the run degrades to sequential (#3659)
head-matches-fork false HEAD and origin/HEAD are the same commit
head-diverged-from-fork true Branch is ahead of or diverged from origin/HEAD
fork-ref-unknown true origin/HEAD could not be resolved
no-head false Not in a git repo (no HEAD) — git rev-parse HEAD exited 128 (definitive), or exited 0 with empty stdout
head-unresolvable true git rev-parse HEAD did not return a definitive answer (timed out, git missing, or any other non-128 failure) — fails closed rather than being treated as no-head

worktree set-baseref applies a no-clobber write of worktree.baseRef:"head" to .claude/settings.local.json. If the file already contains an explicit baseRef value other than "head", the existing value is preserved and skipped:"explicit-other" is returned. Malformed JSON causes an error rather than a silent overwrite. Both fresh installs and upgrades of GSD Core run this automatically when workflow.use_worktrees is enabled (the default); the command is also available for manual use — for example, to apply the setting when worktrees were toggled on after installation, or to re-apply it after a settings change.

Worktree creation

# Create an agent worktree and atomically record it in the wave cleanup manifest.
# Returns JSON: { ok, reason, entry, manifest_path } (exit 0), or
#   { ok:false, reason, hint } with a non-zero exit on a rejected/failed create.
node gsd-tools.cjs worktree create \
  --manifest <path> --agent-id <id> --path <worktree> --branch <branch> --base <sha> --root <dir> \
  [--files "<space-separated declared paths>"]

worktree create validates and records the manifest entry BEFORE running any git command, then runs git worktree add for the validated {path, branch, base}, and only on success finalizes the manifest write — a rejected entry or a failed git worktree add never leaves a partially-recorded manifest or an unmanifested worktree on disk. --root is mandatory (#3050): the fail-closed root-confinement check resolves --path and --root and rejects (reason:"path_outside_root") unless --path resolves strictly inside --root — this closes a prior gap where an unconfined --path (no --root check at all) could point a spawned executor's worktree anywhere on the filesystem. Omitting --root fails closed with reason:"root_required" rather than silently skipping confinement. All other flags share worktree record-agent's validation rules above (--branch namespace, non-empty/non-whitespace --path/--branch/--base, --agent-id required). It also accepts the same optional --files as record-agent (#2596).

Wave-manifest recording

The execute-phase orchestrator records each spawned executor's worktree identity into a wave cleanup manifest so the matching cleanup-wave reader can later merge and remove exactly those worktrees.

# Append a validated per-agent entry to the wave cleanup manifest.
# Returns JSON: { ok, reason, entry, manifest_path } (exit 0), or
#   { ok:false, reason, hint } with a non-zero exit on a rejected entry.
node gsd-tools.cjs worktree record-agent \
  --manifest <path> --agent-id <id> --path <worktree> --branch <branch> --base <sha> \
  [--files "<space-separated declared paths>"]

worktree record-agent appends one {agent_id, worktree_path, branch, expected_base} entry to an already-initialized manifest, validating every field at write time using the same rules the cleanup-wave reader enforces — --branch must match the disposable ^(worktree-)?agent-[A-Za-z0-9._/-]+$ namespace (accepts both agent-<id> and legacy worktree-agent-<id>), and --path/--branch/--base must be non-empty. --agent-id is required (write-strict), even though the reader treats it as optional. A missing or garbled field — or a duplicate (worktree_path, branch) the reader would dedup away — fails loudly with a recovery hint and a non-zero exit without writing, instead of appending an under-populated or silently-dropped entry. Whitespace-only --path/--base are rejected (values are trimmed). The on-disk manifest shape is unchanged unless --files is supplied (see below); the reader still re-derives allowed_bases, and the orchestrator still initializes the empty {orchestrator_root, worktrees: []} shell inline before any agent is recorded.

--files is optional (#2596). When supplied it records the plan's declared files_modified — the same whitespace-separated PLAN_FILES list the per-plan worktree gate already builds — as an extra files_modified array on the entry, and cleanup-wave then reports any path the branch committed outside it. A blank or omitted --files writes no field at all, leaving the 4-field on-disk shape untouched, and the scope check is simply skipped for that entry: an unrecorded scope means unknown, never declares nothing. Values are compared against a diff, never opened as paths and never passed to a shell.

--deletions is optional (#3003). When supplied it records the plan's declared files_deleted — built by the per-plan worktree gate exactly like PLAN_FILES, from the plan's own frontmatter — as a declared_deletions array on the entry. It is the opt-in the deletions guard reads (see below). A blank or omitted --deletions writes no field, leaving the on-disk shape untouched and the guard's original unconditional block in force. Like --files, values are compared against a diff and never opened or passed to a shell.

Intentional deletions (gate, #3003)

cleanup-wave blocks the merge of any executor branch whose diff deletes a file — a net against a mass-deletion accident. A plan whose scope legitimately includes removing a file declares those paths in its files_deleted frontmatter, which reaches the entry as declared_deletions; the guard then blocks only the deletions not in that list.

Branch deletes Entry declares Result
nothing — merges
tests/a.ts (no field) blocked — unchanged pre-#3003 behavior
tests/a.ts ["tests/a.ts"] merges
tests/a.ts, src/b.ts ["tests/a.ts"] blocked, and the block detail names only src/b.ts
tests/a.ts ["tests"] blocked — a directory does not authorize its children
tests/a.ts ["*.ts"] blocked — globs are literal paths here, matching nothing

Matching is exact after normalization: git's C-quoting is decoded, backslashes become forward slashes, and a leading ./ and any trailing / are stripped — on both sides. The decode matters more than it looks: with core.quotepath at its git default, a path like tests/é.ts is reported as the literal "tests/\303\251.ts", which would never compare equal to the plainly-declared path, so a correctly declared deletion of any non-ASCII path would block forever with nothing pointing at the encoding. It is deliberately neither a prefix nor a glob match — either would let one declaration authorize a whole set of deletions, which is the accident the guard exists to catch. A declared path that was not in fact deleted is inert. A blocked entry still isolates: the rest of the wave proceeds (#2852). If the deletion check itself fails the entry blocks on deletion_check_failed and is never filtered — a broken check is not an authorization.

A declared deletion is also treated as in-scope by the advisory below, so authorizing a removal does not then warn that the removed path was out of the declared scope. That is done by subtracting declared deletions from the advisory's findings, not by adding them to the declared scope it matches against — the advisory reads its scope list with prefix-and-glob semantics, so adding them would quietly give declared_deletions a second, wider matching rule than the table above, and ["*.md"] would go from inert to silencing the advisory entirely. One field, one matching rule, on every surface. Subtraction also means the advisory's activation is unchanged: it still runs only when files_modified is recorded, so a plan that declares deletions alone stays as silent as it was before #3003.

One limit worth knowing, shared with --files and failing closed: a declared path containing a space cannot be expressed, because the flag value is whitespace-separated — such a path splits into fragments, matches nothing, and the entry blocks. Flag values are also read positionally and never re-inspected for shape, so a malformed --deletions --files src/a.ts records the literal --files as the declaration; that is harmless (it is a path git never reports as deleted, so it authorizes nothing) and --files still resolves to src/a.ts on its own lookup.

Scope conformance at merge (advisory, #2596)

When a manifest entry carries a declared files_modified, cleanup-wave compares the branch's actual committed diff (HEAD...<branch>) against it and appends one entry to the result's warnings array for every path outside the declared scope, with code: "scope_out_of_declared" and the offending path. If the diff itself cannot be computed the entry gets a single code: "scope_check_unavailable" warning instead, so an unknown result is never mistaken for a clean one. Warnings are also aggregated on the top-level warnings array, each tagged with its branch.

This is advisory: it does not change ok, reason, the per-entry status, or the exit code, and the merge proceeds either way. Promotion to a hard gate would be a separate, disclosed change.

Two deliberate limits keep it from crying wolf. .planning/**/*SUMMARY.md paths are always exempt — the executor writes a SUMMARY by orchestration contract and no plan declares it. Glob patterns are matched by their literal prefix only, so src/**/*.ts covers everything under src/, and a pattern with no literal prefix (*.md) suppresses warnings for that entry rather than reporting every file.


Graphify

Build, query, and inspect the project knowledge graph in .planning/graphs/. Requires graphify.enabled: true in config.json (see Configuration Reference).

# Build or rebuild the knowledge graph
node gsd-tools.cjs graphify build

# Search the graph for a term
node gsd-tools.cjs graphify query <term>

# Show graph freshness and statistics
node gsd-tools.cjs graphify status

# Show changes since the last build
node gsd-tools.cjs graphify diff

# Write a named snapshot of the current graph
node gsd-tools.cjs graphify snapshot [name]

User-facing entry point: /gsd-graphify (see Command Reference).


Module Architecture

Module File Exports
Core lib/core.cjs error(), output(), parseArgs(), shared utilities, compatibility re-exports
State lib/state.cjs All state subcommands, state-snapshot
Phase lib/phase.cjs Phase CRUD, find-phase, phase-plan-index, phases list
Planning Workspace lib/planning-workspace.cjs Planning seam: planningDir, planningPaths, active workstream routing, .planning/.lock
Roadmap lib/roadmap.cjs Roadmap parsing, phase extraction, progress updates
Config lib/config.cjs Config read/write, section initialization
Verify lib/verify.cjs All verification and validation commands
Template lib/template.cjs Template selection and variable filling
Frontmatter lib/frontmatter.cjs YAML frontmatter CRUD
Init lib/init.cjs Compound context loading for all workflows
Milestone lib/milestone.cjs Milestone archival, requirements marking
Commands lib/commands.cjs Misc: slug, timestamp, todos, scaffold, stats, websearch
Model Profiles lib/model-profiles.cjs Profile resolution table
UAT lib/uat.cjs Cross-phase UAT/verification audit
Profile Output lib/profile-output.cjs Developer profile formatting
Profile Pipeline lib/profile-pipeline.cjs Session analysis pipeline
Graphify lib/graphify.cjs Knowledge graph build/query/status/diff/snapshot (backs /gsd-graphify)
Learnings lib/learnings.cjs Extract learnings from phases/SUMMARY artifacts (backs /gsd-extract-learnings)
Audit lib/audit.cjs Phase/milestone audit queue handlers; audit-open helper
GSD2 Import lib/gsd2-import.cjs Reverse-migration importer from GSD-2 projects (backs /gsd-import --from-gsd2)
Intel lib/intel.cjs Queryable codebase intelligence index (backs /gsd-map-codebase --query)
Context Predicates lib/context-predicates.cjs CONTEXT.md predicate fact-store parser/selector (ADR-1671, #2928) — backs query context-predicates and scripts/gen-context-index.cjs's docs/CONTEXT-INDEX.json drift guard
Capability State lib/capability-state.cjs Capability-state resolver — composes install profile, surface, and config into per-capability enabled/active view
Capability Writer lib/capability-writer.cjs Capability-state writer (ADR-1213) — write-side inverse; projects --on/--off/--gate onto surface + config substrates then re-resolves
Worktree Base Ref lib/worktree-base-ref.cjs Worktree fork-base detection and worktree base-check / set-baseref commands (#683)

Reviewer CLI Routing

review.models.<cli> maps a reviewer flavor to a bare model id injected into the CLI's --model (or -m) flag by the code-review workflow. Set via /gsd-config --integrations or directly:

node gsd-tools.cjs config-set review.models.codex    "gpt-5"
node gsd-tools.cjs config-set review.models.gemini   "gemini-2.5-pro"
node gsd-tools.cjs config-set review.models.opencode "claude-sonnet-4"
node gsd-tools.cjs config-set review.models.claude   ""   # clear — fall back to session model

Slugs are validated against [a-zA-Z0-9_-]+; empty or path-containing slugs are rejected. See docs/CONFIGURATION.md for the full field reference.

Secret Handling

API keys configured via /gsd-settings (brave_search, firecrawl, exa_search) are written plaintext to .planning/config.json but are masked (****<last-4>) in every config-set / config-get output, confirmation table, and interactive prompt. See gsd-core/bin/lib/secrets.cjs for the masking implementation. The config.json file itself is the security boundary — protect it with filesystem permissions and keep it out of git (.planning/ is gitignored by default).