Merge remote-tracking branch 'origin/main' into fix-pr-2943-shortcut-reference

# Conflicts:
#	.claude-plugin/marketplace.json
#	.claude-plugin/plugin.json
#	AGENTS.md
#	README.md
#	README.zh-CN.md
#	docs/tr/AGENTS.md
#	docs/zh-CN/AGENTS.md
#	docs/zh-CN/README.md
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# Architecture Improvement Recommendations
This document captures architect-level improvements for the Everything Claude Code (ECC) project. It is written from the perspective of a Claude Code coding architect aiming to improve maintainability, consistency, and long-term quality.
---
## 1. Documentation and Single Source of Truth
### 1.1 Agent / Command / Skill Count Sync
**Issue:** AGENTS.md states "13 specialized agents, 50+ skills, 33 commands" while the repo has **16 agents**, **65+ skills**, and **40 commands**. README and other docs also vary. This causes confusion for contributors and users.
**Recommendation:**
- **Single source of truth:** Derive counts (and optionally tables) from the filesystem or a small manifest. Options:
- **Option A:** Add a script (e.g. `scripts/ci/catalog.js`) that scans `agents/*.md`, `commands/*.md`, and `skills/*/SKILL.md` and outputs JSON/Markdown. CI and docs can consume this.
- **Option B:** Maintain one `docs/catalog.json` (or YAML) that lists agents, commands, and skills with metadata; scripts and docs read from it. Requires discipline to update on add/remove.
- **Short-term:** Manually sync AGENTS.md, README.md, and CLAUDE.md with actual counts and list any new agents (e.g. chief-of-staff, loop-operator, harness-optimizer) in the agent table.
**Impact:** High — affects first impression and contributor trust.
---
### 1.2 Command → Agent / Skill Map
**Issue:** There is no single machine- or human-readable map of "which command uses which agent(s) or skill(s)." This lives in README tables and individual command `.md` files, which can drift.
**Recommendation:**
- Add a **command registry** (e.g. in `docs/` or as frontmatter in command files) that lists for each command: name, description, primary agent(s), skills referenced. Can be generated from command file content or maintained by hand.
- Expose a "map" in docs (e.g. `docs/COMMAND-AGENT-MAP.md`) or in the generated catalog for discoverability and for tooling (e.g. "which commands use tdd-guide?").
**Impact:** Medium — improves discoverability and refactoring safety.
---
## 2. Testing and Quality
### 2.1 Test Discovery vs Hardcoded List
**Issue:** `tests/run-all.js` uses a **hardcoded list** of test files. New test files are not run unless someone updates `run-all.js`, so coverage can be incomplete by omission.
**Recommendation:**
- **Glob-based discovery:** Discover test files by pattern (e.g. `**/*.test.js` under `tests/`) and run them, with an optional allowlist/denylist for special cases. This makes new tests automatically part of the suite.
- Keep a single entry point (`tests/run-all.js`) that runs discovered tests and aggregates results.
**Impact:** High — prevents regression where new tests exist but are never executed.
---
### 2.2 Test Coverage Metrics
**Issue:** There is no coverage tool (e.g. nyc/c8/istanbul). The project cannot assert "80%+ coverage" for its own scripts; coverage is implicit.
**Recommendation:**
- Introduce a coverage tool for Node scripts (e.g. `c8` or `nyc`) and run it in CI. Start with a baseline (e.g. 60%) and raise over time; or at least report coverage in CI without failing so the team can see trends.
- Focus on `scripts/` (lib + hooks + ci) as the primary target; exclude one-off scripts if needed.
**Impact:** Medium — aligns the project with its own AGENTS.md guidance (80%+ coverage) and surfaces untested paths.
---
## 3. Schema and Validation
### 3.1 Use Hooks JSON Schema in CI
**Issue:** `schemas/hooks.schema.json` exists and defines the hook configuration shape, but `scripts/ci/validate-hooks.js` does **not** use it. Validation is duplicated (VALID_EVENTS, structure) and can drift from the schema.
**Recommendation:**
- Use a JSON Schema validator (e.g. `ajv`) in `validate-hooks.js` to validate `hooks/hooks.json` against `schemas/hooks.schema.json`. Keep the validator as the single source of truth for structure; retain only hook-specific checks (e.g. inline JS syntax) in the script.
- Ensures schema and validator stay in sync and allows IDE/editor validation via `$schema` in hooks.json.
**Impact:** Medium — reduces drift and improves contributor experience when editing hooks.
---
## 4. Cross-Harness and i18n
### 4.1 Skill/Agent Subset Sync (.agents/skills, .cursor/skills)
**Issue:** `.agents/skills/` (Codex) and `.cursor/skills/` are subsets of `skills/`. Adding or removing a skill in the main repo requires manually updating these subsets, which can be forgotten.
**Recommendation:**
- Document in CONTRIBUTING.md that adding a skill may require updating `.agents/skills` and `.cursor/skills` (and how to do it).
- Optionally: a CI check or script that compares `skills/` to the subsets and fails or warns if a skill is in one set but not the other when it should be (e.g. by convention or by a small manifest).
**Impact:** Low–Medium — reduces cross-harness drift.
---
### 4.2 Translation Drift (docs/ zh-CN, zh-TW, ja-JP)
**Issue:** Translations in `docs/` duplicate agents, commands, skills. As the English source evolves, translations can become outdated without clear process or tooling.
**Recommendation:**
- Document a **translation process:** when to update (e.g. on release), who owns each locale, and how to detect stale content (e.g. diff file lists or key sections).
- Consider: translation status file (e.g. `docs/i18n-status.md`) or CI that checks translation file existence/timestamps and warns if English was updated more recently than a translation.
- Long-term: consider extraction/placeholder format (e.g. i18n keys) so translations reference the same structure as the English source.
**Impact:** Medium — improves experience for non-English users and reduces confusion from outdated translations.
---
## 5. Hooks and Scripts
### 5.1 Hook Runtime Consistency
**Issue:** Hooks should keep a consistent Node-mode dispatch surface. Continuous-learning observation now dispatches through `run-with-flags.js` and `observe-runner.js`, which delegates to the existing `observe.sh` implementation without exposing a shell-mode hook entry.
**Recommendation:**
- Prefer Node for new hooks when possible (cross-platform, single runtime). If shell is required, document why and keep the surface small.
- Ensure `ECC_HOOK_PROFILE` and `ECC_DISABLED_HOOKS` are respected in all code paths (including shell) so behavior is consistent.
**Impact:** Low — maintains current design; improves if more hooks migrate to Node.
---
## 6. Summary Table
| Area | Improvement | Priority | Effort |
|-------------------|--------------------------------------|----------|---------|
| Doc sync | Sync AGENTS.md/README counts & table | High | Low |
| Single source | Catalog script or manifest | High | Medium |
| Test discovery | Glob-based test runner | High | Low |
| Coverage | Add c8/nyc and CI coverage | Medium | Medium |
| Hook schema in CI | Validate hooks.json via schema | Medium | Low |
| Command map | Command → agent/skill registry | Medium | Medium |
| Subset sync | Document/CI for .agents/.cursor | Low–Med | Low–Med |
| Translations | Process + stale detection | Medium | Medium |
| Hook runtime | Prefer Node; document shell use | Low | Low |
---
## 7. Quick Wins (Immediate)
1. **Update AGENTS.md:** Set agent count to 16; add chief-of-staff, loop-operator, harness-optimizer to the agent table; align skill/command counts with repo.
2. **Test discovery:** Change `run-all.js` to discover `**/*.test.js` under `tests/` (with optional allowlist) so new tests are always run.
3. **Wire hooks schema:** In `validate-hooks.js`, validate `hooks/hooks.json` against `schemas/hooks.schema.json` using ajv (or similar) and keep only hook-specific checks in the script.
These three can be done in one or two sessions and materially improve consistency and reliability.
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# ECC 2.0 Session Adapter Discovery
## Purpose
This document turns the March 11 ECC 2.0 control-plane direction into a
concrete adapter and snapshot design grounded in the orchestration code that
already exists in this repo.
## Current Implemented Substrate
The repo already has a real first-pass orchestration substrate:
- `scripts/lib/tmux-worktree-orchestrator.js`
provisions tmux panes plus isolated git worktrees
- `scripts/orchestrate-worktrees.js`
is the current session launcher
- `scripts/lib/orchestration-session.js`
collects machine-readable session snapshots
- `scripts/orchestration-status.js`
exports those snapshots from a session name or plan file
- `commands/sessions.md`
already exposes adjacent session-history concepts from Claude's local store
- `scripts/lib/session-adapters/canonical-session.js`
defines the canonical `ecc.session.v1` normalization layer
- `scripts/lib/session-adapters/dmux-tmux.js`
wraps the current orchestration snapshot collector as adapter `dmux-tmux`
- `scripts/lib/session-adapters/claude-history.js`
normalizes Claude local session history as a second adapter
- `scripts/lib/session-adapters/registry.js`
selects adapters from explicit targets and target types
- `scripts/session-inspect.js`
emits canonical read-only session snapshots through the adapter registry
In practice, ECC can already answer:
- what workers exist in a tmux-orchestrated session
- what pane each worker is attached to
- what task, status, and handoff files exist for each worker
- whether the session is active and how many panes/workers exist
- what the most recent Claude local session looked like in the same canonical
snapshot shape as orchestration sessions
That is enough to prove the substrate. It is not yet enough to qualify as a
general ECC 2.0 control plane.
## What The Current Snapshot Actually Models
The current snapshot model coming out of `scripts/lib/orchestration-session.js`
has these effective fields:
```json
{
"sessionName": "workflow-visual-proof",
"coordinationDir": ".../.claude/orchestration/workflow-visual-proof",
"repoRoot": "...",
"targetType": "plan",
"sessionActive": true,
"paneCount": 2,
"workerCount": 2,
"workerStates": {
"running": 1,
"completed": 1
},
"panes": [
{
"paneId": "%95",
"windowIndex": 1,
"paneIndex": 0,
"title": "seed-check",
"currentCommand": "codex",
"currentPath": "/tmp/worktree",
"active": false,
"dead": false,
"pid": 1234
}
],
"workers": [
{
"workerSlug": "seed-check",
"workerDir": ".../seed-check",
"status": {
"state": "running",
"updated": "...",
"branch": "...",
"worktree": "...",
"taskFile": "...",
"handoffFile": "..."
},
"task": {
"objective": "...",
"seedPaths": ["scripts/orchestrate-worktrees.js"]
},
"handoff": {
"summary": [],
"validation": [],
"remainingRisks": []
},
"files": {
"status": ".../status.md",
"task": ".../task.md",
"handoff": ".../handoff.md"
},
"pane": {
"paneId": "%95",
"title": "seed-check"
}
}
]
}
```
This is already a useful operator payload. The main limitation is that it is
implicitly tied to one execution style:
- tmux pane identity
- worker slug equals pane title
- markdown coordination files
- plan-file or session-name lookup rules
## Gap Between ECC 1.x And ECC 2.0
ECC 1.x currently has two different "session" surfaces:
1. Claude local session history
2. Orchestration runtime/session snapshots
Those surfaces are adjacent but not unified.
The missing ECC 2.0 layer is a harness-neutral session adapter boundary that
can normalize:
- tmux-orchestrated workers
- plain Claude sessions
- Codex worktree sessions
- OpenCode sessions
- future GitHub/App or remote-control sessions
Without that adapter layer, any future operator UI would be forced to read
tmux-specific details and coordination markdown directly.
## Adapter Boundary
ECC 2.0 should introduce a canonical session adapter contract.
Suggested minimal interface:
```ts
type SessionAdapter = {
id: string;
canOpen(target: SessionTarget): boolean;
open(target: SessionTarget): Promise<AdapterHandle>;
};
type AdapterHandle = {
getSnapshot(): Promise<CanonicalSessionSnapshot>;
streamEvents?(onEvent: (event: SessionEvent) => void): Promise<() => void>;
runAction?(action: SessionAction): Promise<ActionResult>;
};
```
### Canonical Snapshot Shape
Suggested first-pass canonical payload:
```json
{
"schemaVersion": "ecc.session.v1",
"adapterId": "dmux-tmux",
"session": {
"id": "workflow-visual-proof",
"kind": "orchestrated",
"state": "active",
"repoRoot": "...",
"sourceTarget": {
"type": "plan",
"value": ".claude/plan/workflow-visual-proof.json"
}
},
"workers": [
{
"id": "seed-check",
"label": "seed-check",
"state": "running",
"branch": "...",
"worktree": "...",
"runtime": {
"kind": "tmux-pane",
"command": "codex",
"pid": 1234,
"active": false,
"dead": false
},
"intent": {
"objective": "...",
"seedPaths": ["scripts/orchestrate-worktrees.js"]
},
"outputs": {
"summary": [],
"validation": [],
"remainingRisks": []
},
"artifacts": {
"statusFile": "...",
"taskFile": "...",
"handoffFile": "..."
}
}
],
"aggregates": {
"workerCount": 2,
"states": {
"running": 1,
"completed": 1
}
}
}
```
This preserves the useful signal already present while removing tmux-specific
details from the control-plane contract.
## First Adapters To Support
### 1. `dmux-tmux`
Wrap the logic already living in
`scripts/lib/orchestration-session.js`.
This is the easiest first adapter because the substrate is already real.
### 2. `claude-history`
Normalize the data that
`commands/sessions.md`
and the existing session-manager utilities already expose:
- session id / alias
- branch
- worktree
- project path
- recency / file size / item counts
This provides a non-orchestrated baseline for ECC 2.0.
### 3. `codex-worktree`
Use the same canonical shape, but back it with Codex-native execution metadata
instead of tmux assumptions where available.
### 4. `opencode`
Use the same adapter boundary once OpenCode session metadata is stable enough to
normalize.
## What Should Stay Out Of The Adapter Layer
The adapter layer should not own:
- business logic for merge sequencing
- operator UI layout
- pricing or monetization decisions
- install profile selection
- tmux lifecycle orchestration itself
Its job is narrower:
- detect session targets
- load normalized snapshots
- optionally stream runtime events
- optionally expose safe actions
## Current File Layout
The adapter layer now lives in:
```text
scripts/lib/session-adapters/
canonical-session.js
dmux-tmux.js
claude-history.js
registry.js
scripts/session-inspect.js
tests/lib/session-adapters.test.js
tests/scripts/session-inspect.test.js
```
The current orchestration snapshot parser is now being consumed as an adapter
implementation rather than remaining the only product contract.
## Immediate Next Steps
1. Add a third adapter, likely `codex-worktree`, so the abstraction moves
beyond tmux plus Claude-history.
2. Decide whether canonical snapshots need separate `state` and `health`
fields before UI work starts.
3. Decide whether event streaming belongs in v1 or stays out until after the
snapshot layer proves itself.
4. Build operator-facing panels only on top of the adapter registry, not by
reading orchestration internals directly.
## Open Questions
1. Should worker identity be keyed by worker slug, branch, or stable UUID?
2. Do we need separate `state` and `health` fields at the canonical layer?
3. Should event streaming be part of v1, or should ECC 2.0 ship snapshot-only
first?
4. How much path information should be redacted before snapshots leave the local
machine?
5. Should the adapter registry live inside this repo long-term, or move into the
eventual ECC 2.0 control-plane app once the interface stabilizes?
## Recommendation
Treat the current tmux/worktree implementation as adapter `0`, not as the final
product surface.
The shortest path to ECC 2.0 is:
1. preserve the current orchestration substrate
2. wrap it in a canonical session adapter contract
3. add one non-tmux adapter
4. only then start building operator panels on top
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Use the current workspace split consistently:
- live code work happens in cloned repos under `~/GitHub`
- repo-specific active execution context lives in repo-level `WORKING-CONTEXT.md`
- repo-specific direction lives in the repo's planning docs under `docs/`, shipped change history in `CHANGELOG.md`
- broader non-code context can live in KB/archive layers
- durable cross-machine truth should prefer GitHub, Linear, and the knowledge base
@@ -105,7 +105,7 @@ Source examples:
Translate into:
- `knowledge-ops`
- repo `WORKING-CONTEXT.md`
- repo planning docs under `docs/` and `CHANGELOG.md`
- GitHub / Linear / KB-backed durable context
- future deep memory work under `#1049`
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# Mega Plan Repo Prompt List — March 12, 2026
## Purpose
Use these prompts to split the remaining March 11 mega-plan work by repo.
They are written for parallel agents and assume the March 12 orchestration and
Windows CI lane is already merged via `#417`.
## Current Snapshot
- `everything-claude-code` has finished the orchestration, Codex baseline, and
Windows CI recovery lane.
- The next open ECC Phase 1 items are:
- review `#399`
- convert recurring discussion pressure into tracked issues
- define selective-install architecture
- write the ECC 2.0 discovery doc
- `agentshield`, `ECC-website`, and `skill-creator-app` all have dirty
`main` worktrees and should not be edited directly on `main`.
- `applications/` is not a standalone git repo. It lives inside the parent
workspace repo at `<ECC_ROOT>`.
## Repo: `everything-claude-code`
### Prompt A — PR `#399` Review and Merge Readiness
```text
Work in: <ECC_ROOT>/everything-claude-code
Goal:
Review PR #399 ("fix(observe): 5-layer automated session guard to prevent
self-loop observations") against the actual loop problem described in issue
#398 and the March 11 mega plan. Do not assume the old failing CI on the PR is
still meaningful, because the Windows baseline was repaired later in #417.
Tasks:
1. Read issue #398 and PR #399 in full.
2. Inspect the observe hook implementation and tests locally.
3. Determine whether the PR really prevents observer self-observation,
automated-session observation, and runaway recursive loops.
4. Identify any missing env-based bypass, idle gating, or session exclusion
behavior.
5. Produce a merge recommendation with findings ordered by severity.
Constraints:
- Do not merge automatically.
- Do not rewrite unrelated hook behavior.
- If you make code changes, keep them tightly scoped to observe behavior and
tests.
Deliverables:
- review summary
- exact findings with file references
- recommended merge / rework decision
- test commands run
```
### Prompt B — Roadmap Issues Extraction
```text
Work in: <ECC_ROOT>/everything-claude-code
Goal:
Convert recurring discussion pressure from the mega plan into concrete GitHub
issues. Focus on high-signal roadmap items that unblock ECC 1.x and ECC 2.0.
Create issue drafts or a ready-to-post issue bundle for:
1. selective install profiles
2. uninstall / doctor / repair lifecycle
3. generated skill placement and provenance policy
4. governance past the tool call
5. ECC 2.0 discovery doc / adapter contracts
Tasks:
1. Read the March 11 mega plan and March 12 handoff.
2. Deduplicate against already-open issues.
3. Draft issue titles, problem statements, scope, non-goals, acceptance
criteria, and file/system areas affected.
Constraints:
- Do not create filler issues.
- Prefer 4-6 high-value issues over a large backlog dump.
- Keep each issue scoped so it could plausibly land in one focused PR series.
Deliverables:
- issue shortlist
- ready-to-post issue bodies
- duplication notes against existing issues
```
### Prompt C — ECC 2.0 Discovery and Adapter Spec
```text
Work in: <ECC_ROOT>/everything-claude-code
Goal:
Turn the existing ECC 2.0 vision into a first concrete discovery doc focused on
adapter contracts, session/task state, token accounting, and security/policy
events.
Tasks:
1. Use the current orchestration/session snapshot code as the baseline.
2. Define a normalized adapter contract for Claude Code, Codex, OpenCode, and
later Cursor / GitHub App integration.
3. Define the initial SQLite-backed data model for sessions, tasks, worktrees,
events, findings, and approvals.
4. Define what stays in ECC 1.x versus what belongs in ECC 2.0.
5. Call out unresolved product decisions separately from implementation
requirements.
Constraints:
- Treat the current tmux/worktree/session snapshot substrate as the starting
point, not a blank slate.
- Keep the doc implementation-oriented.
Deliverables:
- discovery doc
- adapter contract sketch
- event model sketch
- unresolved questions list
```
## Repo: `agentshield`
### Prompt — False Positive Audit and Regression Plan
```text
Work in: <ECC_ROOT>/agentshield
Goal:
Advance the AgentShield Phase 2 workstream from the mega plan: reduce false
positives, especially where declarative deny rules, block hooks, docs examples,
or config snippets are misclassified as executable risk.
Important repo state:
- branch is currently main
- dirty files exist in CLAUDE.md and README.md
- classify or park existing edits before broader changes
Tasks:
1. Inspect the current false-positive behavior around:
- .claude hook configs
- AGENTS.md / CLAUDE.md
- .cursor rules
- .opencode plugin configs
- sample deny-list patterns
2. Separate parser behavior for declarative patterns vs executable commands.
3. Propose regression coverage additions and the exact fixture set needed.
4. If safe after branch setup, implement the first pass of the classifier fix.
Constraints:
- do not work directly on dirty main
- keep fixes parser/classifier-scoped
- document any remaining ambiguity explicitly
Deliverables:
- branch recommendation
- false-positive taxonomy
- proposed or landed regression tests
- remaining edge cases
```
## Repo: `ECC-website`
### Prompt — Landing Rewrite and Product Framing
```text
Work in: <ECC_ROOT>/ECC-website
Goal:
Execute the website lane from the mega plan by rewriting the landing/product
framing away from "config repo" and toward "open agent harness system" plus
future control-plane direction.
Important repo state:
- branch is currently main
- dirty files exist in favicon assets and multiple page/component files
- branch before meaningful work and preserve existing edits unless explicitly
classified as stale
Tasks:
1. Classify the dirty main worktree state.
2. Rewrite the landing page narrative around:
- open agent harness system
- runtime guardrails
- cross-harness parity
- operator visibility and security
3. Define or update the next key pages:
- /skills
- /security
- /platforms
- /system or /dashboard
4. Keep the page visually intentional and product-forward, not generic SaaS.
Constraints:
- do not silently overwrite existing dirty work
- preserve existing design system where it is coherent
- distinguish ECC 1.x toolkit from ECC 2.0 control plane clearly
Deliverables:
- branch recommendation
- landing-page rewrite diff or content spec
- follow-up page map
- deployment readiness notes
```
## Repo: `skill-creator-app`
### Prompt — Skill Import Pipeline and Product Fit
```text
Work in: <ECC_ROOT>/skill-creator-app
Goal:
Align skill-creator-app with the mega-plan external skill sourcing and audited
import pipeline workstream.
Important repo state:
- branch is currently main
- dirty files exist in README.md and src/lib/github.ts
- classify or park existing changes before broader work
Tasks:
1. Assess whether the app should support:
- inventorying external skills
- provenance tagging
- dependency/risk audit fields
- ECC convention adaptation workflows
2. Review the existing GitHub integration surface in src/lib/github.ts.
3. Produce a concrete product/technical scope for an audited import pipeline.
4. If safe after branching, land the smallest enabling changes for metadata
capture or GitHub ingestion.
Constraints:
- do not turn this into a generic prompt-builder
- keep the focus on audited skill ingestion and ECC-compatible output
Deliverables:
- product-fit summary
- recommended scope for v1
- data fields / workflow steps for the import pipeline
- code changes if they are small and clearly justified
```
## Repo: `ECC` Workspace (`applications/`, `knowledge/`, `tasks/`)
### Prompt — Example Apps and Workflow Reliability Proofs
```text
Work in: <ECC_ROOT>
Goal:
Use the parent ECC workspace to support the mega-plan hosted/workflow lanes.
This is not a standalone applications repo; it is the umbrella workspace that
contains applications/, knowledge/, tasks/, and related planning assets.
Tasks:
1. Inventory what in applications/ is real product code vs placeholder.
2. Identify where example repos or demo apps should live for:
- GitHub App workflow proofs
- ECC 2.0 prototype spikes
- example install / setup reliability checks
3. Propose a clean workspace structure so product code, research, and planning
stop bleeding into each other.
4. Recommend which proof-of-concept should be built first.
Constraints:
- do not move large directories blindly
- distinguish repo structure recommendations from immediate code changes
- keep recommendations compatible with the current multi-repo ECC setup
Deliverables:
- workspace inventory
- proposed structure
- first demo/app recommendation
- follow-up branch/worktree plan
```
## Local Continuation
The current worktree should stay on ECC-native Phase 1 work that does not touch
the existing dirty skill-file changes here. The best next local tasks are:
1. selective-install architecture
2. ECC 2.0 discovery doc
3. PR `#399` review
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# Phase 1 Issue Bundle — March 12, 2026
## Status
These issue drafts were prepared from the March 11 mega plan plus the March 12
handoff. I attempted to open them directly in GitHub, but issue creation was
blocked by missing GitHub authentication in the MCP session.
## GitHub Status
These drafts were later posted via `gh`:
- `#423` Implement manifest-driven selective install profiles for ECC
- `#421` Add ECC install-state plus uninstall / doctor / repair lifecycle
- `#424` Define canonical session adapter contract for ECC 2.0 control plane
- `#422` Define generated skill placement and provenance policy
- `#425` Define governance and visibility past the tool call
The bodies below are preserved as the local source bundle used to create the
issues.
## Issue 1
### Title
Implement manifest-driven selective install profiles for ECC
### Labels
- `enhancement`
### Body
```md
## Problem
ECC still installs primarily by target and language. The repo now has first-pass
selective-install manifests and a non-mutating plan resolver, but the installer
itself does not yet consume those profiles.
Current groundwork already landed in-repo:
- `manifests/install-modules.json`
- `manifests/install-profiles.json`
- `scripts/ci/validate-install-manifests.js`
- `scripts/lib/install-manifests.js`
- `scripts/install-plan.js`
That means the missing step is no longer design discovery. The missing step is
execution: wire profile/module resolution into the actual install flow while
preserving backward compatibility.
## Scope
Implement manifest-driven install execution for current ECC targets:
- `claude`
- `cursor`
- `antigravity`
Add first-pass support for:
- `ecc-install --profile <name>`
- `ecc-install --modules <id,id,...>`
- target-aware filtering based on module target support
- backward-compatible legacy language installs during rollout
## Non-Goals
- Full uninstall/doctor/repair lifecycle in the same issue
- Codex/OpenCode install targets in the first pass if that blocks rollout
- Reorganizing the repository into separate published packages
## Acceptance Criteria
- `install.sh` can resolve and install a named profile
- `install.sh` can resolve explicit module IDs
- Unsupported modules for a target are skipped or rejected deterministically
- Legacy language-based install mode still works
- Tests cover profile resolution and installer behavior
- Docs explain the new preferred profile/module install path
```
## Issue 2
### Title
Add ECC install-state plus uninstall / doctor / repair lifecycle
### Labels
- `enhancement`
### Body
```md
## Problem
ECC has no canonical installed-state record. That makes uninstall, repair, and
post-install inspection nondeterministic.
Today the repo can classify installable content, but it still cannot reliably
answer:
- what profile/modules were installed
- what target they were installed into
- what paths ECC owns
- how to remove or repair only ECC-managed files
Without install-state, lifecycle commands are guesswork.
## Scope
Introduce a durable install-state contract and the first lifecycle commands:
- `ecc list-installed`
- `ecc uninstall`
- `ecc doctor`
- `ecc repair`
Suggested state locations:
- Claude: `~/.claude/ecc/install-state.json`
- Cursor: `./.cursor/ecc-install-state.json`
- Antigravity: `./.agent/ecc-install-state.json`
The state file should capture at minimum:
- installed version
- timestamp
- target
- profile
- resolved modules
- copied/managed paths
- source repo version or package version
## Non-Goals
- Rebuilding the installer architecture from scratch
- Full remote/cloud control-plane functionality
- Target support expansion beyond the current local installers unless it falls
out naturally
## Acceptance Criteria
- Successful installs write install-state deterministically
- `list-installed` reports target/profile/modules/version cleanly
- `doctor` reports missing or drifted managed paths
- `repair` restores missing managed files from recorded install-state
- `uninstall` removes only ECC-managed files and leaves unrelated local files
alone
- Tests cover install-state creation and lifecycle behavior
```
## Issue 3
### Title
Define canonical session adapter contract for ECC 2.0 control plane
### Labels
- `enhancement`
### Body
```md
## Problem
ECC now has real orchestration/session substrate, but it is still
implementation-specific.
Current state:
- tmux/worktree orchestration exists
- machine-readable session snapshots exist
- Claude local session-history commands exist
What does not exist yet is a harness-neutral adapter boundary that can normalize
session/task state across:
- tmux-orchestrated workers
- plain Claude sessions
- Codex worktrees
- OpenCode sessions
- later remote or GitHub-integrated operator surfaces
Without that adapter contract, any future ECC 2.0 operator shell will be forced
to read tmux-specific and markdown-coordination details directly.
## Scope
Define and implement the first-pass canonical session adapter layer.
Suggested deliverables:
- adapter registry
- canonical session snapshot schema
- `dmux-tmux` adapter backed by current orchestration code
- `claude-history` adapter backed by current session history utilities
- read-only inspection CLI for canonical session snapshots
## Non-Goals
- Full ECC 2.0 UI in the same issue
- Monetization/GitHub App implementation
- Remote multi-user control plane
## Acceptance Criteria
- There is a documented canonical snapshot contract
- Current tmux orchestration snapshot code is wrapped as an adapter rather than
the top-level product contract
- A second non-tmux adapter exists to prove the abstraction is real
- Tests cover adapter selection and normalized snapshot output
- The design clearly separates adapter concerns from orchestration and UI
concerns
```
## Issue 4
### Title
Define generated skill placement and provenance policy
### Labels
- `enhancement`
### Body
```md
## Problem
ECC now has a large and growing skill surface, but generated/imported/learned
skills do not yet have a clear long-term placement and provenance policy.
This creates several problems:
- unclear separation between curated skills and generated/learned skills
- validator noise around directories that may or may not exist locally
- weak provenance for imported or machine-generated skill content
- uncertainty about where future automated learning outputs should live
As ECC grows, the repo needs explicit rules for where generated skill artifacts
belong and how they are identified.
## Scope
Define a repo-wide policy for:
- curated vs generated vs imported skill placement
- provenance metadata requirements
- validator behavior for optional/generated skill directories
- whether generated skills are shipped, ignored, or materialized during
install/build steps
## Non-Goals
- Building a full external skill marketplace
- Rewriting all existing skill content in one pass
- Solving every content-quality issue in the same issue
## Acceptance Criteria
- A documented placement policy exists for generated/imported skills
- Provenance requirements are explicit
- Validators no longer produce ambiguous behavior around optional/generated
skill locations
- The policy clearly states what is publishable vs local-only
- Follow-on implementation work is split into concrete, bounded PR-sized steps
```
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# PR 399 Review — March 12, 2026
## Scope
Reviewed `#399`:
- title: `fix(observe): 5-layer automated session guard to prevent self-loop observations`
- head: `e7df0e588ceecfcd1072ef616034ccd33bb0f251`
- files changed:
- `skills/continuous-learning-v2/hooks/observe.sh`
- `skills/continuous-learning-v2/agents/observer-loop.sh`
## Findings
### Medium
1. `skills/continuous-learning-v2/hooks/observe.sh`
The new `CLAUDE_CODE_ENTRYPOINT` guard uses a finite allowlist of known
non-`cli` values (`sdk-ts`, `sdk-py`, `sdk-cli`, `mcp`, `remote`).
That leaves a forward-compatibility hole: any future non-`cli` entrypoint value
will fall through and be treated as interactive. That reintroduces the exact
class of automated-session observation the PR is trying to prevent.
The safer rule is:
- allow only `cli`
- treat every other explicit entrypoint as automated
- keep the default fallback as `cli` when the variable is unset
Suggested shape:
```bash
case "${CLAUDE_CODE_ENTRYPOINT:-cli}" in
cli) ;;
*) exit 0 ;;
esac
```
## Merge Recommendation
`Needs one follow-up change before merge.`
The PR direction is correct:
- it closes the ECC self-observation loop in `observer-loop.sh`
- it adds multiple guard layers in the right area of `observe.sh`
- it already addressed the cheaper-first ordering and skip-path trimming issues
But the entrypoint guard should be generalized before merge so the automation
filter does not silently age out when Claude Code introduces additional
non-interactive entrypoints.
## Residual Risk
- There is still no dedicated regression test coverage around the new shell
guard behavior, so the final merge should include at least one executable
verification pass for the entrypoint and skip-path cases.
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# PR Review And Queue Triage — March 13, 2026
## Snapshot
This document records a live GitHub triage snapshot for the
`everything-claude-code` pull-request queue as of `2026-03-13T08:33:31Z`.
Sources used:
- `gh pr view`
- `gh pr checks`
- `gh pr diff --name-only`
- targeted local verification against the merged `#399` head
Stale threshold used for this pass:
- `last updated before 2026-02-11` (`>30` days before March 13, 2026)
## PR `#399` Retrospective Review
PR:
- `#399` — `fix(observe): 5-layer automated session guard to prevent self-loop observations`
- state: `MERGED`
- merged at: `2026-03-13T06:40:03Z`
- merge commit: `c52a28ace9e7e84c00309fc7b629955dfc46ecf9`
Files changed:
- `skills/continuous-learning-v2/hooks/observe.sh`
- `skills/continuous-learning-v2/agents/observer-loop.sh`
Validation performed against merged head `546628182200c16cc222b97673ddd79e942eacce`:
- `bash -n` on both changed shell scripts
- `node tests/hooks/hooks.test.js` (`204` passed, `0` failed)
- targeted hook invocations for:
- interactive CLI session
- `CLAUDE_CODE_ENTRYPOINT=mcp`
- `ECC_HOOK_PROFILE=minimal`
- `ECC_SKIP_OBSERVE=1`
- `agent_id` payload
- trimmed `ECC_OBSERVE_SKIP_PATHS`
Behavioral result:
- the core self-loop fix works
- automated-session guard branches suppress observation writes as intended
- the final `non-cli => exit` entrypoint logic is the correct fail-closed shape
Remaining findings:
1. Medium: skipped automated sessions still create homunculus project state
before the new guards exit.
`observe.sh` resolves `cwd` and sources project detection before reaching the
automated-session guard block, so `detect-project.sh` still creates
`projects/<id>/...` directories and updates `projects.json` for sessions that
later exit early.
2. Low: the new guard matrix shipped without direct regression coverage.
The hook test suite still validates adjacent behavior, but it does not
directly assert the new `CLAUDE_CODE_ENTRYPOINT`, `ECC_HOOK_PROFILE`,
`ECC_SKIP_OBSERVE`, `agent_id`, or trimmed skip-path branches.
Verdict:
- `#399` is technically correct for its primary goal and was safe to merge as
the urgent loop-stop fix.
- It still warrants a follow-up issue or patch to move automated-session guards
ahead of project-registration side effects and to add explicit guard-path
tests.
## Open PR Inventory
There are currently `4` open PRs.
### Queue Table
| PR | Title | Draft | Mergeable | Merge State | Updated | Stale | Current Verdict |
| --- | --- | --- | --- | --- | --- | --- | --- |
| `#292` | `chore(config): governance and config foundation (PR #272 split 1/6)` | `false` | `MERGEABLE` | `UNSTABLE` | `2026-03-13T07:26:55Z` | `No` | `Best current merge candidate` |
| `#298` | `feat(agents,skills,rules): add Rust, Java, mobile, DevOps, and performance content` | `false` | `CONFLICTING` | `DIRTY` | `2026-03-11T04:29:07Z` | `No` | `Needs changes before review can finish` |
| `#336` | `Customisation for Codex CLI - Features from Claude Code and OpenCode` | `true` | `MERGEABLE` | `UNSTABLE` | `2026-03-13T07:26:12Z` | `No` | `Needs manual review and draft exit` |
| `#420` | `feat: add laravel skills` | `true` | `MERGEABLE` | `UNSTABLE` | `2026-03-12T22:57:36Z` | `No` | `Low-risk draft, review after draft exit` |
No currently open PR is stale by the `>30 days since last update` rule.
## Per-PR Assessment
### `#292` — Governance / Config Foundation
Live state:
- open
- non-draft
- `MERGEABLE`
- merge state `UNSTABLE`
- visible checks:
- `CodeRabbit` passed
- `GitGuardian Security Checks` passed
Scope:
- `.env.example`
- `.github/ISSUE_TEMPLATE/copilot-task.md`
- `.github/PULL_REQUEST_TEMPLATE.md`
- `.gitignore`
- `.markdownlint.json`
- `.tool-versions`
- `VERSION`
Assessment:
- This is the cleanest merge candidate in the current queue.
- The branch was already refreshed onto current `main`.
- The currently visible bot feedback is minor/nit-level rather than obviously
merge-blocking.
- The main caution is that only external bot checks are visible right now; no
GitHub Actions matrix run appears in the current PR checks output.
Current recommendation:
- `Mergeable after one final owner pass.`
- If you want a conservative path, do one quick human review of the remaining
`.env.example`, PR-template, and `.tool-versions` nitpicks before merge.
### `#298` — Large Multi-Domain Content Expansion
Live state:
- open
- non-draft
- `CONFLICTING`
- merge state `DIRTY`
- visible checks:
- `CodeRabbit` passed
- `GitGuardian Security Checks` passed
- `cubic · AI code reviewer` passed
Scope:
- `35` files
- large documentation and skill/rule expansion across Java, Rust, mobile,
DevOps, performance, data, and MLOps
Assessment:
- This PR is not ready for merge.
- It conflicts with current `main`, so it is not even mergeable at the branch
level yet.
- cubic identified `34` issues across `35` files in the current review.
Those findings are substantive and technical, not just style cleanup, and
they cover broken or misleading examples across several new skills.
- Even without the conflict, the scope is large enough that it needs a deliberate
content-fix pass rather than a quick merge decision.
Current recommendation:
- `Needs changes.`
- Rebase or restack first, then resolve the substantive example-quality issues.
- If momentum matters, split by domain rather than carrying one very large PR.
### `#336` — Codex CLI Customization
Live state:
- open
- draft
- `MERGEABLE`
- merge state `UNSTABLE`
- visible checks:
- `CodeRabbit` passed
- `GitGuardian Security Checks` passed
Scope:
- `scripts/codex-git-hooks/pre-commit`
- `scripts/codex-git-hooks/pre-push`
- `scripts/codex/check-codex-global-state.sh`
- `scripts/codex/install-global-git-hooks.sh`
- `scripts/sync-ecc-to-codex.sh`
Assessment:
- This PR is no longer conflicting, but it is still draft-only and has not had
a meaningful first-party review pass.
- It modifies user-global Codex setup behavior and git-hook installation, so the
operational blast radius is higher than a docs-only PR.
- The visible checks are only external bots; there is no full GitHub Actions run
shown in the current check set.
- Because the branch comes from a contributor fork `main`, it also deserves an
extra sanity pass on what exactly is being proposed before changing status.
Current recommendation:
- `Needs changes before merge readiness`, where the required changes are process
and review oriented rather than an already-proven code defect:
- finish manual review
- run or confirm validation on the global-state scripts
- take it out of draft only after that review is complete
### `#420` — Laravel Skills
Live state:
- open
- draft
- `MERGEABLE`
- merge state `UNSTABLE`
- visible checks:
- `CodeRabbit` passed
- `GitGuardian Security Checks` passed
Scope:
- `README.md`
- `examples/laravel-api-CLAUDE.md`
- `rules/php/patterns.md`
- `rules/php/security.md`
- `rules/php/testing.md`
- `skills/configure-ecc/SKILL.md`
- `skills/laravel-patterns/SKILL.md`
- `skills/laravel-security/SKILL.md`
- `skills/laravel-tdd/SKILL.md`
- `skills/laravel-verification/SKILL.md`
Assessment:
- This is content-heavy and operationally lower risk than `#336`.
- It is still draft and has not had a substantive human review pass yet.
- The visible checks are external bots only.
- Nothing in the live PR state suggests a merge blocker yet, but it is not ready
to be merged simply because it is still draft and under-reviewed.
Current recommendation:
- `Review next after the highest-priority non-draft work.`
- Likely a good review candidate once the author is ready to exit draft.
## Mergeability Buckets
### Mergeable Now Or After A Final Owner Pass
- `#292`
### Needs Changes Before Merge
- `#298`
- `#336`
### Draft / Needs Review Before Any Merge Decision
- `#420`
### Stale `>30 Days`
- none
## Recommended Order
1. `#292`
This is the cleanest live merge candidate.
2. `#420`
Low runtime risk, but wait for draft exit and a real review pass.
3. `#336`
Review carefully because it changes global Codex sync and hook behavior.
4. `#298`
Rebase and fix the substantive content issues before spending more review time
on it.
## Bottom Line
- `#399`: safe bugfix merge with one follow-up cleanup still warranted
- `#292`: highest-priority merge candidate in the current open queue
- `#298`: not mergeable; conflicts plus substantive content defects
- `#336`: no longer conflicting, but not ready while still draft and lightly
validated
- `#420`: draft, low-risk content lane, review after the non-draft queue
## Live Refresh
Refreshed at `2026-03-13T22:11:40Z`.
### Main Branch
- `origin/main` is green right now, including the Windows test matrix.
- Mainline CI repair is not the current bottleneck.
### Updated Queue Read
#### `#292` — Governance / Config Foundation
- open
- non-draft
- `MERGEABLE`
- visible checks:
- `CodeRabbit` passed
- `GitGuardian Security Checks` passed
- highest-signal remaining work is not CI repair; it is the small correctness
pass on `.env.example` and PR-template alignment before merge
Current recommendation:
- `Next actionable PR.`
- Either patch the remaining doc/config correctness issues, or do one final
owner pass and merge if you accept the current tradeoffs.
#### `#420` — Laravel Skills
- open
- draft
- `MERGEABLE`
- visible checks:
- `CodeRabbit` skipped because the PR is draft
- `GitGuardian Security Checks` passed
- no substantive human review is visible yet
Current recommendation:
- `Review after the non-draft queue.`
- Low implementation risk, but not merge-ready while still draft and
under-reviewed.
#### `#336` — Codex CLI Customization
- open
- draft
- `MERGEABLE`
- visible checks:
- `CodeRabbit` passed
- `GitGuardian Security Checks` passed
- still needs a deliberate manual review because it touches global Codex sync
and git-hook installation behavior
Current recommendation:
- `Manual-review lane, not immediate merge lane.`
#### `#298` — Large Content Expansion
- open
- non-draft
- `CONFLICTING`
- still the hardest remaining PR in the queue
Current recommendation:
- `Last priority among current open PRs.`
- Rebase first, then handle the substantive content/example corrections.
### Current Order
1. `#292`
2. `#420`
3. `#336`
4. `#298`
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# ECC Roadmap
Status: maintainer planning draft, updated 2026-09-09 against the integrated
source candidate based on release 2.2.1. Source inclusion is not a release or live
verification claim. Dates are targets, not commitments; bracketed numbers remain
planning choices.
The two older planning docs stay as evidence and history:
`docs/ECC-2.0-GA-ROADMAP.md` (2.0 milestones and control-plane deltas) and
`docs/ECC-PRO-SECURITY-ROADMAP.md` (AgentShield and Pro conversion). This file
is the short, current view.
## Vision
ECC is the operating layer between a developer and whatever coding agent they
run. Shared skills, rules, and agent guidance provide portable core workflows
across Claude Code, Codex, OpenCode, Cursor, Gemini, and other harnesses.
Hooks, installation paths, and feature coverage vary by host; consult the
[support status matrix](../README.md#platform-support) for current limits.
The bar for everything that ships: simpler to read, faster to run, and
traceable after the fact, for agents and humans alike.
Three things follow from that.
1. **The repo is the product.** Curated skills, hooks, and rules are the
surface people install. Anything that is not installed, tested, or read by
someone should not be in the tree.
2. **Evidence over assertion.** A harness change earns trust through a gate
receipt, a capsule, and a reproducible verdict, not through a paragraph
saying it works. The offline eval framework provides the recording and review primitives;
isolated candidate execution remains future work.
3. **Operator patterns travel.** Approval loops, channel discipline,
agreement generation, and e-sign placement were built for one desk. As
generic skills they are useful to anyone running agents next to
counterparties, customers, or money.
## Where we are
- The 2.2.1 source baseline includes guided manifest-driven setup, install-state
ownership, repair and uninstall. Its release workflow requires exact-head
validation; this roadmap is not release-signature evidence.
- Catalog in this source snapshot: 68 agents, 291 skills, 94 legacy commands. The
count is a liability as much as an asset. Overlapping and unreferenced
skills exist.
- The README now has one primary install section, with per-harness details
and release history linked to `CHANGELOG.md`. Further shortening is a target,
not a completed claim.
- Eval source now includes capsule journals, replay matching and offline
receipt inspection, plus a protocol example. Candidate execution and staged
gate runs are disabled: no actual OS containment exists. Offline validation
and a receipt signature do not establish safe execution or promotion authority.
- The README describes AgentShield scanning and the hosted ECC Pro surface.
Further conversion and scan-history improvements below are proposals, not
evidence of missing paid functionality or verified adoption.
## Plan
### Track A: condense
Cut what nobody reads or installs. Merge what overlaps. One README that reads
top to bottom in one pass. Exit criteria: no zero-reference tracked doc
outside `docs/releases/`, no deprecated skill still shipped by default,
README under [1,200] lines with one install path per harness.
### Track B: evidence
Implement and independently test an OS executor before enabling the gate:
contain child processes, filesystem and network access, scrub inherited
capabilities, enforce resource limits, and bind replay and result provenance.
Keep execution disabled until those boundaries are proven. Then wire the
`harness-optimizer` agent and `/harness-audit` to emit gate receipts. Add
capsule recording to the hooks that already log session activity. Then the
next two plan slices: offline retrospective grouping over capsules (no new
rollouts) and forced-compaction tests that prove pinned constraints survive.
### Track C: operator skills
The four desk-pattern skills are present in this candidate: operator approval
loop, counterparty channel discipline, master agreement drafting with bounded
schedule append, and e-sign field placement guidance. Validate each with its
actual consumer and collect outside feedback before adding more. Written send
and audience contracts do not claim transport enforcement; generated agreements
remain drafts and DOCX conversion does not establish execution readiness.
### Track D: distribution and revenue
Keep the release path boring: tag on main, CI green at the exact head, packed
artifact tested on three platforms. Improve the AgentShield-to-Pro conversion path, evaluating hosted scan history
and a PR-comment autofix loop against what the hosted product already supports. Details and
scoring live in the security roadmap.
## Next 90 days
Window: 2026-09-02 to 2026-12-01.
### September
- Review and release the composed 2026-09-02 program: offline eval frameworks,
desk-pattern skills, condensation and this roadmap. The source candidate
incorporates them; merge and release remain separate maintainer decisions.
- README linear pass merged. Release notes move to `CHANGELOG.md` only.
- Delete list from the condensation survey executed, with catalog counts,
manifests, and locale mirrors updated in the same PR.
- Decide the fate of `continuous-learning` v1 (deprecated since April): remove
in [2.3.0] with a migration note, or keep as an archive outside the default
install.
### October
- `harness-optimizer` and `/harness-audit` produce gate receipts. A skill,
hook, or agent change in this repo can cite a receipt in its PR.
- Capsule recording behind an opt-in hook flag, journaling tool calls and
session boundaries with the default-deny payload allowlist.
- First taskset beyond the example: [20 to 60] tasks over one real skill
family, with a held-out split and a reward-hack fixture.
- Skill catalog review: every skill has a test, a command, an agent, or a
README mention, or it is marked for removal in [2.4.0].
### November
- 2.3.0: condensation, eval frameworks, and operator skills in one release
with the packed-artifact gate.
- Retrospective grouping over recorded capsules for one task family, report
only, no promotion.
- Forced-compaction invariance test in CI for the pinned-state pattern.
- AgentShield Pro conversion CTA and hosted scan history behind a flag.
### Decision points
- 2026-09-30: is the README under the line target with no test regressions?
If not, cut scope on Track A rather than slipping the release.
- 2026-10-31: does a real taskset produce a stable verdict across three runs?
If variance is high, hold Track B at receipts and do not start retrospective
grouping.
- 2026-11-30: did any outside user adopt a desk-pattern skill? If none, stop
adding operator skills and fold the four into a single guide.
## Not on this roadmap
- Online reinforcement learning or weight updates from capsule data.
- Production transparency-log witnessing, GPU attestation, or key management
inside the ECC package.
- Automatic merge or release driven by a gate verdict. The gate stops changes.
A person promotes them.
- Any desk, payment, provider, or counterparty integration. Those belong to
the systems that own them, not to a portable plugin.
## How to edit this file
Change the bracketed numbers first. Move items between months freely. When a
line ships, delete it here and record it in `CHANGELOG.md`. Keep the file
under [200] lines.
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# ECC Selective Install Design
## Purpose
This document defines the user-facing selective-install design for ECC.
It complements
`docs/SELECTIVE-INSTALL-ARCHITECTURE.md`, which focuses on internal runtime
architecture and code boundaries.
This document answers the product and operator questions first:
- how users choose ECC components
- what the CLI should feel like
- what config file should exist
- how installation should behave across harness targets
- how the design maps onto the current ECC codebase without requiring a rewrite
## Problem
Today ECC still feels like a large payload installer even though the repo now
has first-pass manifest and lifecycle support.
Users need a simpler mental model:
- install the baseline
- add the language packs they actually use
- add the framework configs they actually want
- add optional capability packs like security, research, or orchestration
The selective-install system should make ECC feel composable instead of
all-or-nothing.
In the current substrate, user-facing components are still an alias layer over
coarser internal install modules. That means include/exclude is already useful
at the module-selection level, but some file-level boundaries remain imperfect
until the underlying module graph is split more finely.
## Goals
1. Let users install a small default ECC footprint quickly.
2. Let users compose installs from reusable component families:
- core rules
- language packs
- framework packs
- capability packs
- target/platform configs
3. Keep one consistent UX across Claude, Cursor, Antigravity, Codex, and
OpenCode.
4. Keep installs inspectable, repairable, and uninstallable.
5. Preserve backward compatibility with the current `ecc-install typescript`
style during rollout.
## Non-Goals
- packaging ECC into multiple npm packages in the first phase
- building a remote marketplace
- full control-plane UI in the same phase
- solving every skill-classification problem before selective install ships
## User Experience Principles
### 1. Start Small
A user should be able to get a useful ECC install with one command:
```bash
ecc install --target claude --profile core
```
The default experience should not assume the user wants every skill family and
every framework.
### 2. Build Up By Intent
The user should think in terms of:
- "I want the developer baseline"
- "I need TypeScript and Python"
- "I want Next.js and Django"
- "I want the security pack"
The user should not have to know raw internal repo paths.
### 3. Preview Before Mutation
Every install path should support dry-run planning:
```bash
ecc install --target cursor --profile developer --with lang:typescript --with framework:nextjs --dry-run
```
The plan should clearly show:
- selected components
- skipped components
- target root
- managed paths
- expected install-state location
### 4. Local Configuration Should Be First-Class
Teams should be able to commit a project-level install config and use:
```bash
ecc install --config ecc-install.json
```
That allows deterministic installs across contributors and CI.
## Component Model
The current manifest already uses install modules and profiles. The user-facing
design should keep that internal structure, but present it as four main
component families.
Near-term implementation note: some user-facing component IDs still resolve to
shared internal modules, especially in the language/framework layer. The
catalog improves UX immediately while preserving a clean path toward finer
module granularity in later phases.
### 1. Baseline
These are the default ECC building blocks:
- core rules
- baseline agents
- core commands
- runtime hooks
- platform configs
- workflow quality primitives
Examples of current internal modules:
- `rules-core`
- `agents-core`
- `commands-core`
- `hooks-runtime`
- `platform-configs`
- `workflow-quality`
### 2. Language Packs
Language packs group rules, guidance, and workflows for a language ecosystem.
Examples:
- `lang:typescript`
- `lang:python`
- `lang:go`
- `lang:java`
- `lang:rust`
Each language pack should resolve to one or more internal modules plus
target-specific assets.
### 3. Framework Packs
Framework packs sit above language packs and pull in framework-specific rules,
skills, and optional setup.
Examples:
- `framework:react`
- `framework:nextjs`
- `framework:django`
- `framework:springboot`
- `framework:laravel`
Framework packs should depend on the correct language pack or baseline
primitives where appropriate.
### 4. Capability Packs
Capability packs are cross-cutting ECC feature bundles.
Examples:
- `capability:security`
- `capability:research`
- `capability:orchestration`
- `capability:media`
- `capability:content`
These should map onto the current module families already being introduced in
the manifests.
## Profiles
Profiles remain the fastest on-ramp.
Recommended user-facing profiles:
- `core`
minimal baseline, safe default for most users trying ECC
- `developer`
best default for active software engineering work
- `security`
baseline plus security-heavy guidance
- `research`
baseline plus research/content/investigation tools
- `full`
everything classified and currently supported
Profiles should be composable with additional `--with` and `--without` flags.
Example:
```bash
ecc install --target claude --profile developer --with lang:typescript --with framework:nextjs --without capability:orchestration
```
## Proposed CLI Design
### Primary Commands
```bash
ecc install
ecc plan
ecc list-installed
ecc doctor
ecc repair
ecc uninstall
ecc catalog
```
### Install CLI
Recommended shape:
```bash
ecc install [--target <target>] [--profile <name>] [--with <component>]... [--without <component>]... [--config <path>] [--dry-run] [--json]
```
Examples:
```bash
ecc install --target claude --profile core
ecc install --target cursor --profile developer --with lang:typescript --with framework:nextjs
ecc install --target antigravity --with capability:security --with lang:python
ecc install --config ecc-install.json
```
### Plan CLI
Recommended shape:
```bash
ecc plan [same selection flags as install]
```
Purpose:
- produce a preview without mutation
- act as the canonical debugging surface for selective install
### Catalog CLI
Recommended shape:
```bash
ecc catalog profiles
ecc catalog components
ecc catalog components --family language
ecc catalog show framework:nextjs
```
Purpose:
- let users discover valid component names without reading docs
- keep config authoring approachable
### Compatibility CLI
These legacy flows should still work during migration:
```bash
ecc-install typescript
ecc-install --target cursor typescript
ecc typescript
```
Internally these should normalize into the new request model and write
install-state the same way as modern installs.
## Proposed Config File
### Filename
Recommended default:
- `ecc-install.json`
Optional future support:
- `.ecc/install.json`
### Config Shape
```json
{
"$schema": "./schemas/ecc-install-config.schema.json",
"version": 1,
"target": "cursor",
"profile": "developer",
"include": [
"lang:typescript",
"lang:python",
"framework:nextjs",
"capability:security"
],
"exclude": [
"capability:media"
],
"options": {
"hooksProfile": "standard",
"mcpCatalog": "baseline",
"includeExamples": false
}
}
```
### Field Semantics
- `target`
selected harness target such as `claude`, `cursor`, or `antigravity`
- `profile`
baseline profile to start from
- `include`
additional components to add
- `exclude`
components to subtract from the profile result
- `options`
target/runtime tuning flags that do not change component identity
### Precedence Rules
1. CLI arguments override config file values.
2. config file overrides profile defaults.
3. profile defaults override internal module defaults.
This keeps the behavior predictable and easy to explain.
## Modular Installation Flow
The user-facing flow should be:
1. load config file if provided or auto-detected
2. merge CLI intent on top of config intent
3. normalize the request into a canonical selection
4. expand profile into baseline components
5. add `include` components
6. subtract `exclude` components
7. resolve dependencies and target compatibility
8. render a plan
9. apply operations if not in dry-run mode
10. write install-state
The important UX property is that the exact same flow powers:
- `install`
- `plan`
- `repair`
- `uninstall`
The commands differ in action, not in how ECC understands the selected install.
## Target Behavior
Selective install should preserve the same conceptual component graph across all
targets, while letting target adapters decide how content lands.
### Claude
Best fit for:
- home-scoped ECC baseline
- commands, agents, rules, hooks, platform config, orchestration
### Cursor
Best fit for:
- project-scoped installs
- rules plus project-local automation and config
### Antigravity
Best fit for:
- project-scoped agent/rule/workflow installs
### Codex / OpenCode
Should remain additive targets rather than special forks of the installer.
The selective-install design should make these just new adapters plus new
target-specific mapping rules, not new installer architectures.
## Technical Feasibility
This design is feasible because the repo already has:
- install module and profile manifests
- target adapters with install-state paths
- plan inspection
- install-state recording
- lifecycle commands
- a unified `ecc` CLI surface
The missing work is not conceptual invention. The missing work is productizing
the current substrate into a cleaner user-facing component model.
### Feasible In Phase 1
- profile + include/exclude selection
- `ecc-install.json` config file parsing
- catalog/discovery command
- alias mapping from user-facing component IDs to internal module sets
- dry-run and JSON planning
### Feasible In Phase 2
- richer target adapter semantics
- merge-aware operations for config-like assets
- stronger repair/uninstall behavior for non-copy operations
### Later
- reduced publish surface
- generated slim bundles
- remote component fetch
## Mapping To Current ECC Manifests
The current manifests do not yet expose a true user-facing `lang:*` /
`framework:*` / `capability:*` taxonomy. That should be introduced as a
presentation layer on top of the existing modules, not as a second installer
engine.
Recommended approach:
- keep `install-modules.json` as the internal resolution catalog
- add a user-facing component catalog that maps friendly component IDs to one or
more internal modules
- let profiles reference either internal modules or user-facing component IDs
during the migration window
That avoids breaking the current selective-install substrate while improving UX.
## Suggested Rollout
### Phase 1: Design And Discovery
- finalize the user-facing component taxonomy
- add the config schema
- add CLI design and precedence rules
### Phase 2: User-Facing Resolution Layer
- implement component aliases
- implement config-file parsing
- implement `include` / `exclude`
- implement `catalog`
### Phase 3: Stronger Target Semantics
- move more logic into target-owned planning
- support merge/generate operations cleanly
- improve repair/uninstall fidelity
### Phase 4: Packaging Optimization
- narrow published surface
- evaluate generated bundles
## Recommendation
The next implementation move should not be "rewrite the installer."
It should be:
1. keep the current manifest/runtime substrate
2. add a user-facing component catalog and config file
3. add `include` / `exclude` selection and catalog discovery
4. let the existing planner and lifecycle stack consume that model
That is the shortest path from the current ECC codebase to a real selective
install experience that feels like ECC 2.0 instead of a large legacy installer.
+3
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@@ -59,6 +59,9 @@ Adapters should stay thin. The shared behavior belongs in `skills/`, `rules/`, `
## Shared Memory Contract
The session snapshot side of this contract (`ecc.session.v1`) is specified in
[session-adapter-contract.md](session-adapter-contract.md).
ECC Memory Vault is the common knowledge-transfer surface for Claude, Codex,
Hermes, Cursor, OpenCode, and other agents. It stores portable
`ecc.memory.v1` Markdown documents in three scopes:
@@ -0,0 +1,330 @@
# Eval Harness Frameworks
Local capsule, inspection, fixture replay, and receipt building blocks.
Candidate execution and promotion are unavailable.
They live in `scripts/lib/eval-harness/`, ship with a CLI at
`scripts/eval-harness.js`, and have an end-to-end example under
`examples/eval-harness/`. The example runs locally, offline, and inside temporary
directories. It does not merge, deploy, publish, or spend.
```sh
node scripts/eval-harness.js example
```
## Why these five
The harness engineering plan v2 (August 2026) describes a twelve-layer stack.
The part that belongs in the portable ECC package is the contract surface any
harness can install and exercise: record what happened, prove it was not
altered, gate a proposed change behind an external checker, replay tool calls
without re-firing effects, and hand a verifier something it can check without
trusting the producer. The execution gate remains disabled pending a verified OS containment backend.
The other modules expose local utilities, not a trust decision about code.
| Framework | Module | Plan epic | What it gives you today |
| --- | --- | --- | --- |
| Envelope | `envelope.js`, `schemas/capsule-envelope.schema.json` | 01 telemetry and capsule contract | `capsule-envelope/v1`, stable identifiers, effect classes SE0 to SE4, default-deny payload allowlist, secret canaries |
| Capsule | `capsule.js` | 02 local execution capsule | Append-only NDJSON journal, five lineages, sha256 predecessor links, `verify` that fails at the exact entry, byte-stable projection, minimal export bundle |
| Gate | `gate.js`, `gate-child.js` | 03 verification gate | Static source digests and syntactic warnings; all execution entrypoints refuse |
| Replay | `replay.js`, `effect-fence.js` | 04 replay-safe branching | Declared determinism and effect class per tool, content-addressed fixtures, `tool.fixture_missing` fail-closed replay, retired child preload refuses execution |
| Receipt | `receipt.js` | 07 verifiable receipts | Offline receipt over capsule root, entry count, artifact digest, and gate receipt; detached signature interface; verification names the failing check |
Epics 05 (offline self-improvement) and 06 (causal triage and compaction
invariance) are not implemented. They consume the records these five produce.
## Effect classes
Every journal entry, tool declaration, and variant manifest carries one class.
| Class | Meaning | Where it is allowed |
| --- | --- | --- |
| SE0 | Read-only evaluation or schema validation | Everywhere |
| SE1 | Reversible local writes inside the capsule or work root | Journal, gate metadata |
| SE2 | Process or filesystem mutation, no live network writes | Candidate execution unavailable |
| SE3 | Append-only remote evidence publication | Never in replay; trusted record-mode caller controls authorization; refused in replay |
| SE4 | Economic, counterparty, payment, provider, or secret-handling effects | Never in replay; record mode requires the trusted caller to forbid it |
Effect classes are declarations, not OS permissions. Static inspection reports
effect-class expansion but cannot enforce a declaration. The replayer refuses
SE3 and above in replay mode regardless of fixtures; record mode invokes the
caller-supplied implementation up to its configured maximum. Only register
trusted implementations. No JavaScript tool wrapper isolates arbitrary code.
## Capsule journal
A capsule is a directory with `capsule.json`, `journal.ndjson`, and an optional
`projection.json`. Each line of the journal is one canonical-JSON envelope. The
first entry links to sixty-four zeros; every later entry links to the previous
`entry_hash`.
```js
const { capsule } = require('./scripts/lib/eval-harness');
const c = capsule.Capsule.create('.ecc/capsules/run-42', { task_family: 'slugify' });
c.append('plan', 'inspection.start', { task_id: 't01' });
c.append('attempt', 'gate.unavailable', { status: 'blocked', reason: 'gate.isolation_required' });
capsule.verify('.ecc/capsules/run-42'); // { ok, code, failed_at, root_hash }
```
`verify` returns `ok: false` with a stable code and the exact failing index for
a changed byte (`capsule.invalid_entry`), a dropped or swapped entry
(`capsule.reordered` or `capsule.broken_link`), and a partial trailing write
(`capsule.truncated_tail`). The journal digest covers the original bytes;
invalid UTF-8 is rejected as `capsule.non_canonical`. `project` derives stable
content from the verified journal snapshot and validated metadata. `exportBundle`
copies the three capsule files and nothing from the workspace.
Metadata is validated before creation writes and when opening, verifying or
projecting a capsule. IDs use the envelope ID pattern; harness/task family must
be nonempty, and created_at must use the canonical ISO timestamp produced by
Date.toISOString(). Missing, unreadable or malformed metadata returns
`capsule.metadata_invalid`; invalid UTF-8 is also rejected. Every journal entry must match metadata schema,
run_id, capsule_id, harness_version and task_family, or verification returns
`capsule.metadata_mismatch` at that entry. Empty journals have no historical
identity binding; their projection and receipt bind the metadata values.
created_at is shape-checked but is not authenticated by journal entries.
Envelope v1 enforces the scalar payload types declared in
`schemas/capsule-envelope.schema.json`. String fields require strings; number
fields require finite numbers, and integer fields require integers. Only
`exit_code` accepts null. No extra nonnegative restrictions are imposed on these
payload numbers. Omitted append payloads still default to an empty object.
Explicit null, arrays, primitives, exotic objects, accessors, symbol keys and
non-enumerable properties are rejected. Plain data objects with either the normal
or null prototype are accepted. Validation inspects descriptors before reading
values; it does not isolate proxies or arbitrary caller JavaScript.
Retained fields are validated before canary scanning or hashing. Undefined,
non-finite numbers, functions, symbols, BigInt and nested/cyclic objects are
refused instead of coerced, dropped from serialized bytes or recursively scanned.
`redactPayload` adds an `errors` array to its existing result; callers must check
it alongside `dropped` and `findings`. Append reports `capsule.payload_invalid`
without writing a journal entry; the existing finally path releases its owned
lock. Strict unknown payload keys still report `capsule.payload_denied`.
`strict: false` permits dropping unknown keys, but never invalid retained values.
Custom allowlists can narrow v1 fields only, and cannot widen the persisted schema.
Envelope validation also requires its own schema-defined fields and rejects
unknown top-level fields even when the supplied hash has been recomputed. Invalid
stored records return `capsule.invalid_entry` at their journal index. This tightens
acceptance of malformed v1 data: existing nonconforming callers/journals need
explicit correction; no automatic migration or healing is performed. Valid v1
bytes and hashes remain unchanged. Generic key preservation and remaining
non-JSON limitations are described below; neither supplies OS containment.
The generic canonicalizer preserves every selected own enumerable JSON key as an
own data property, including `__proto__`, `constructor` and `prototype`. It does
not invoke an inherited setter while constructing the canonical object. Results
retain their ordinary object prototype. Envelope schema rejection is separate:
an own `__proto__` key is valid generic JSON data but remains an unknown envelope
field. Receipt schema acceptance is unchanged; hashing a field is not permission
from a higher-level schema.
Traversal, key sorting, array handling, undefined omission, JSON.stringify and
UTF-8 hashing retain their prior policy, including JavaScript's ordering of
numeric-looking keys. Schema-valid v1 journal/projection bytes and unaffected
receipt/fixture bytes stay identical. Regression vectors were captured from the
pre-fix implementation, including unsigned and synthetic string-signed receipts.
Verification does not rewrite those stored artifacts.
The earlier canonicalizer omitted own `__proto__` keys, creating hash aliases.
Corrected inputs retaining that key intentionally produce different hashes. An
artifact retaining it with a legacy digest fails existing hash checks; a fixture
lookup does not fall back to the old aliased key. Existing key-free stored bytes
remain readable as those bytes, but cannot authenticate richer original inputs
whose keys were lost. Recovery requires explicit re-recording from a trusted
source or receipt rebuilding/re-signing; there is no automatic rekey, migration,
rewrite, dual-hash acceptance or recovery of already discarded information.
This correction does not define a stricter generic policy for undefined,
functions/symbols, non-finite numbers, sparse arrays, class/toJSON/getter behavior,
cycles, resource limits or hostile proxies. Their prior behavior remains; no
claim of unambiguous hashing for every JavaScript value is made. The envelope's
stricter scalar validation remains a separate layer.
Append operations serialize cooperating writers using an exclusive local
`.append.lock` file. Acquisition uses `wx` and fails immediately with
`capsule.busy` when the path exists, regardless of age or contents. There is no
waiting, retry, PID/age heuristic, or automatic stale unlocking. Under ownership,
each append reloads and verifies the complete journal and metadata, then derives
its sequence and predecessor hash from that snapshot. Preopened handles never
use cached sequence/hash values as authoritative state. Full validation costs
O(journal size) per append; this implementation is intended for small local
journals.
The writer handles short writes until the complete UTF-8 entry has been written,
then fsyncs the journal. The append lock is released in finally on success,
validation refusal, or ordinary I/O exceptions. A zero-progress write returns
`capsule.write_failed`. Release checks the open lock descriptor's device/inode
against the path before unlinking; a detected missing/replaced lock returns
`capsule.lock_lost` and a replacement is preserved. This is cooperative ownership
checking, not atomic protection against an actor replacing paths between syscalls.
The local filesystem must support exclusive file creation and stable identities.
A process crash can leave `.append.lock` behind. Acquisition/cleanup I/O failures
can also leave a lock that was not safely released. Further appends stay busy;
only an operator who has stopped all writers and inspected the capsule should
perform recovery. The library never guesses ownership, removes an old lock,
truncates a tail, or repairs journal bytes automatically.
A write failure may leave a partial entry; later appends verify the journal and
refuse the invalid tail, preserving evidence. A full entry may already exist when
fsync, close or lock release throws. Such a failure is an ambiguous acknowledgement,
not proof of rollback: inspect disk before retrying, or a logical event could be
recorded twice. No transaction, exactly-once retry, parent-directory fsync, or
power-loss durability guarantee is added here.
Create, read/verify, projection, receipt production and export are not serialized
by the append lock. Use quiescent capsules for consistent receipts/exports; there
is no concurrent export guarantee or hostile-filesystem containment. The append
repair does not change the disabled candidate execution boundary.
What the chain does not claim: it does not stop an operator from replacing the
whole log. That is the job of a witnessed transparency log, which is a later,
opt-in layer outside this package.
## Verification gate: unavailable
**Supported candidate execution backends: none, on any OS.** `runGate` and
`runVariant` throw `gate.isolation_required` unconditionally, before reading
configuration, copying files, loading candidate modules, or creating receipts.
`gate run` exits 1 before reading its config or creating a capsule. Direct
`gate-child.js` invocation and the retired `effect-fence.js` preload also refuse
before loading requests or candidate code. Trust flags and caller-supplied
executor objects cannot enable execution. There is no promotion path.
The former directory copy and JavaScript interception did not isolate host
reads, alternate builtin loaders, or filesystem descriptors and promises.
Keeping answers in a parent process did not hide the taskset on disk. The
interception code and staged execution implementation have been removed.
Node's [permission model](https://nodejs.org/api/permissions.html) and
[`vm` module](https://nodejs.org/api/vm.html) are not substitutes for isolation
of malicious code.
A future executor must have a separately reviewed OS containment implementation
and adversarial evidence on each supported OS. At minimum it must:
- Expose only immutable, digested variant files and task inputs in an ephemeral
filesystem. Host tasksets, answers, credentials, configuration, sockets, and
other workspaces must be inaccessible, including via links and inherited FDs.
- Enforce network, process, filesystem, and resource restrictions outside the
candidate runtime, with an unprivileged identity and a bounded lifetime.
- Keep the checker, output/protocol validation, audit channel, and receipt
creation outside candidate control. Verify the actual runtime policy using
independent canaries before any candidate starts; refuse unavailable backends.
- Reject failed, timed-out, signalled, incomplete, or malformed baseline runs
before evaluating candidate improvements. Require a complete unique result
for each task. Container availability or a caller's `verified: true` assertion
alone is not policy verification.
Static APIs remain available for trusted, quiescent local source trees:
`loadTaskset`, `loadVariant`, `digestDir`, and `scanTripwires`. Variant names are
single components of 1–64 ASCII letters, digits, underscores or hyphens, starting
with a letter or digit. Entries must be relative regular files included in the
digest; absolute, parent-traversing, symlinked, and excluded entries are rejected.
`.git` and `node_modules` remain excluded. Inspection does not resist concurrent
host filesystem mutation and is not a sandbox or an execution attestation.
Task IDs must be unique. Syntactic warnings are incomplete by design: zero hits
prove neither safety nor correctness.
`parseChildResult` and `baselineFailure(run, tasks)` are pure validation helpers
for bounded protocol and baseline integrity regression checks. No executor calls
them in this release. Their tests are not evidence of an operational gate or a
verified OS backend. Existing manifest/config fixtures are preserved as data.
## Replay-safe tool calls
```js
const { replay } = require('./scripts/lib/eval-harness');
const store = new replay.FixtureStore('.ecc/fixtures');
const tools = {
read_inventory: { effect_class: 'SE0', determinism: 'deterministic', impl: liveRead },
place_order: { effect_class: 'SE4', determinism: 'nondeterministic', impl: livePlace },
};
const r = replay.createReplayer(tools, { mode: 'replay', store, maxEffectClass: 'SE2' });
r.call('read_inventory', { sku: 'gpu-8x' }); // served from fixture or tool.fixture_missing
r.call('place_order', { sku: 'gpu-8x' }); // tool.effect_forbidden, always
```
Fixtures are keyed by the canonical hash of `(tool, args)` and store both an
argument hash and a response hash, so a stale or edited fixture fails with
`tool.fixture_mismatch`. Record mode executes caller-supplied trusted functions;
replay uses fixtures. These wrappers do not constrain arbitrary effects inside
an implementation. The legacy `EFFECT_FENCE_PRELOAD` export remains for import
compatibility, but loading that file always throws `gate.isolation_required`.
It no longer attempts JavaScript interception.
## Offline receipts
```sh
node scripts/eval-harness.js receipt build .ecc/capsules/run-42 \
--artifact skills/my-skill/SKILL.md --out run-42.receipt.json
node scripts/eval-harness.js receipt verify run-42.receipt.json exported-bundle/ \
--artifact skills/my-skill/SKILL.md
```
A receipt names the capsule root, entry count, journal digest, projection
hash, artifact digest, and optional gate receipt digest, plus its own hash.
`buildReceipt` now persists `projection.json` using the verified journal snapshot
before returning the receipt. This is a producer write and can fail on a read-only
capsule; copy a read-only source to a writable local directory before building.
An explicit invalid artifact_digest throws `receipt.schema_invalid` before the
projection write. Other construction failures continue to throw.
`verifyReceipt` is read-only. It never regenerates or heals a missing projection.
The supplied projection must parse and match the complete deterministic projection
from the validated metadata/journal snapshot; its computed hash must match both
its stored projection_hash and the receipt. Missing, unreadable, corrupt or
substituted projections return `check: 'projection'`; invalid UTF-8 is rejected. Receipt identity mismatches
and invalid capsule metadata return `check: 'metadata'`.
Schema validation rejects negative, fractional, string or unsafe entry counts,
invalid identity/schema values and malformed required digests before journal
indexing. Optional artifact/gate digest fields must be SHA-256 values or null.
Otherwise valid receipts retain signature, journal integrity, truncation,
capsule-root and stale-checkpoint checks before projection/artifact comparisons.
Missing or unreadable artifact files return `check: 'artifact'` rather than
throwing. Every verification failure has `{ok: false, check, reason}` for these
validated file/content cases.
Existing v1 exported bundles retain their format. Older source directories whose
receipts were built without a saved projection must explicitly run `capsule
project` or rebuild the receipt before verification; verification itself never
writes a replacement. The CLI validates --artifact, --gate and --out before file
reads or producer writes: missing values, values that are another flag, and
repeated flags exit with usage code 2. Disabled gate commands still refuse before
configuration/capsule I/O.
Signing remains a detached interface: pass a signer when building and a verifier
when verifying. No key generation, transport or rotation happens in this package.
A signature proves who vouched for the bytes, not that the run was correct.
Optional gate-receipt hashing remains for compatibility with existing artifacts;
accepting externally supplied bytes proves neither containment nor promotion.
This slice addresses receipt/projection validation and metadata identity binding.
The OS executor is still unavailable. Cooperative append serialization is
described above; concurrent export/create and broader envelope/review findings
remain separate. Package/count evidence is a separate ignore-scripts test scope
and does not validate normal prepack or clear a release.
## Where it plugs in
- `skills/eval-harness/SKILL.md` describes eval-driven development. These
frameworks are the mechanical layer under its report format.
- The `harness-optimizer` agent and `/harness-audit` command must report the gate
unavailable until a reviewed OS backend exists. They cannot emit new gate
receipts using this implementation.
- The Rust `ecc2/src/harness_eval.rs` bounded evaluation loop is a separate,
earlier experiment. The Node frameworks are the portable surface.
## Tests
```sh
node tests/lib/eval-harness/envelope.test.js
node tests/lib/eval-harness/capsule.test.js
node tests/lib/eval-harness/gate.test.js
node tests/lib/eval-harness/security.test.js
node tests/lib/eval-harness/replay.test.js
node tests/lib/eval-harness/receipt.test.js
node tests/lib/eval-harness/cli.test.js
node examples/eval-harness/run-example.js
```
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@@ -0,0 +1,81 @@
# TCAS hook: pre-merge deconfliction (slice b, design)
Status: design only. Nothing in this document is implemented. Slice (a), the live view and the advisory feed it reads, shipped in `VIEW-CONTRACT.md`.
## Goal
Stop two agents from finishing overlapping edits and meeting at the merge. The scan already knows when two working sets converge; the hook is what turns that knowledge into a maneuver inside the harness, before either agent commits.
Push plan wording: "a PreToolUse/Edit hook that reads the advisory feed and returns steer, pause or wait for the lower-priority agent, logged to the capsule."
## Inputs
1. The event feed: `GET /api/control-plane/events` on the local control pane, or the same document written to a file by `scripts/proximity-tick.js --json` for sessions without a pane. Events of kind `proximity.advisory` with `action.type` `transmit` or `steer` and a deterministic `id`.
2. The hook's own session id. Claude Code passes `session_id` on stdin; the ECC session adapter maps it to the ECC2 `sessions.id` the scan uses. Codex and Hermes use the instruction-backed equivalent (see below).
3. The tool call: `tool_name` and `tool_input.file_path` for Edit, Write and MultiEdit. Bash is out of scope for v1.
## Decision
For each advisory event whose `subject` includes this session:
| Event | This session is | Maneuver | Hook result |
|---|---|---|---|
| `traffic`, action `transmit` | either side | **transmit**: inject the other agent's working set as a system message | exit 0, message on stderr (warn, never block) |
| `resolution`, action `steer` | `hold` | **hold**: continue | exit 0, short note |
| `resolution`, action `steer` | `steer`, and `file_path` is in the other agent's working set | **pause**: stop editing that file until the other agent's diff lands | exit 2 with the reason (blocks this one tool call) |
| `resolution`, action `steer` | `steer`, and `file_path` is not in the other agent's working set | **wait**: allowed, but told to keep to non-overlapping files | exit 0, message on stderr |
| `resolution`, action `steer` | `steer`, and a `steer` target exists | **steer**: suggest the disjoint files or subtree the agent should move to | exit 0, message; exit 2 only if the edit is on the shared file |
The maneuver is deterministic: both agents read the same event, `hold` and `steer` are named in it, so the two sides never pick the same move. This is the TCAS coordination property and it is why the view computes right-of-way once, centrally, rather than each hook deciding.
`pause` blocks a single tool call, not the session. The agent sees the reason and can pick another file. Blocking is bounded by the event's `at`: an event older than the pane's poll interval times three is stale and the hook does not block on it.
## Priority
Right-of-way comes from the event (`action.hold`, `action.steer`). The view computes it as more progress, then earlier start, then stable id (`rightOfWay` in `scripts/lib/agent-proximity/distance.js`). The hook never recomputes it.
## Logging to the capsule
Every decision is one entry in the session's capsule journal (`scripts/lib/eval-harness/capsule.js`, hash-linked NDJSON):
```json
{
"kind": "tcas.decision",
"event_id": "proximity.advisory:session-a|session-b:resolution",
"session": "session-b",
"tool": "Edit",
"file": "src/api/users.js",
"maneuver": "pause",
"blocked": true,
"risk": 1,
"threshold": { "ta": 0.35, "ra": 0.7, "source": "static" },
"at": "2026-09-11T20:01:03.000Z"
}
```
The capsule is the baseline counter for the 85 percent goal: rebase and merge-conflict triage incidents per week are counted from these entries plus `git rerere` and conflict markers, two weeks before and two weeks after the hook is on. No percentage is claimed before that.
## Where it plugs in
- **Claude Code**: a `PreToolUse` entry in `hooks/hooks.json` with matcher `Edit|Write|MultiEdit`, routed through `scripts/hooks/run-with-flags.js` so `ECC_HOOK_PROFILE` and `ECC_DISABLED_HOOKS` gate it. Script under `scripts/hooks/tcas-pre-edit.js`, helpers in `scripts/lib/control-pane/tcas.js`. Budget: under 200 ms, no network beyond loopback, exit 0 on any parse or fetch error.
- **Codex**: no PreToolUse. The instruction-backed equivalent is the `proximity_steer` / `proximity_hold` message the tick already writes into the ECC2 `messages` table, surfaced on the next turn. `pause` degrades to a strong instruction.
- **Hermes**: gateway hook on the tool-call path, same decision table, same capsule entry.
## Off switch and safety
- Disabled by default. On with `ECC_TCAS_HOOK=1` or the hook profile.
- Read-only against the pane. It never writes to the sessions or messages tables.
- No lease is acquired. Durable leases are slice (c), the worktree lease table in ecc2 `session/store.rs` next to `messages`; until then a `pause` is a per-call block, not a lock, and two hooks racing on the same file is possible but harmless (both see the same event and the same `steer`).
- Fails open. Any error is exit 0 with a `[TCAS]` line on stderr.
## Tests to write with it
- Decision table: one test per row above, driven by a fixture event feed and a stdin payload.
- Staleness: an event older than the window does not block.
- Fail-open: unreachable pane, malformed JSON, missing session id.
- Capsule: one entry per decision, hash chain intact, replay reproduces the same bytes.
- Integration: two fake sessions with overlapping working sets, the lower-priority one gets exit 2 on the shared file and exit 0 on a disjoint file.
## Out of scope for (b)
Learned thresholds, closure-rate escalation, mesh mode, cross-machine airspace, the `x_sem`, `x_vec`, `x_freq` channels (slice g), and the lease table (slice c).
+141
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@@ -0,0 +1,141 @@
# ECC control-plane live view: `ecc.control-plane.view.v1`
Status: shipped with the control pane (`scripts/lib/control-pane/control-plane-view.js`). Read-only. Advisory only.
The view joins three things the repo already computes separately and serves them as one JSON document shaped as tasks, lanes and events, so another control plane (the Ito ops board, a Hermes or Codex reader, a hook) can consume it without knowing ECC internals.
| Input | Where it comes from |
|---|---|
| Sessions | `scripts/lib/control-pane/state.js`, the ECC2 `sessions` table |
| Pairwise proximity | `scripts/lib/agent-proximity/` (noisy-OR over `x_tree`, `x_overlap`, `x_dep`) via `scripts/lib/control-pane/proximity.js` |
| 2D projection | `scripts/lib/agent-proximity/projection.js` (rolling z-score, tails clipped at 2.5 / 97.5, PCA) |
| Coordination inventory | `scripts/lib/coordination-inventory.js` (PR #3028): declared tasks and sessions, heartbeat freshness, lease conflicts |
## Endpoints
Served by `node scripts/control-pane.js` (loopback only, same Host and Origin gate as the rest of the pane):
| Route | Returns |
|---|---|
| `GET /control-plane` | Self-contained HTML page: 2D projection canvas, lanes and tasks, event feed. No external scripts. |
| `GET /api/control-plane` | The full view document below. |
| `GET /api/control-plane/events` | `{ schemaVersion, generatedAt, thresholds, events, counts }` only, for hooks and pollers. |
The server keeps one projection window per process. Both API routes share a snapshot cached for five seconds, and concurrent refresh requests are coalesced. Reads within that interval do not add samples. After expiry, the next read refreshes the snapshot once; idle intervals do not generate synthetic samples. Failed refreshes return errors rather than healthy empty data. The page rejects failed HTTP responses and invalid view envelopes and shows `offline`. Options on `createControlPaneServer`: `projection` (`windowSize`, `clipPercentiles`), `viewOptions` (`thresholds`, `manifest`, `channelWeights`, `minWindowForZscore`), `proximityOptions` (passed to the scan).
## Document
```json
{
"schemaVersion": "ecc.control-plane.view.v1",
"generatedAt": "2026-09-11T20:01:00.000Z",
"source": { "snapshotSchema": "ecc.control-pane.snapshot.v1", "repoRoot": "...", "dbPath": "..." },
"thresholds": { "ta": 0.35, "ra": 0.7, "source": "static" },
"lanes": [ { "id": "harness:codex", "label": "codex", "kind": "harness", "taskIds": ["session-a"] } ],
"tasks": [ { "...": "see Task" } ],
"pairs": [ { "...": "see Pair" } ],
"events": [ { "...": "see Event" } ],
"projection": { "...": "see Projection" },
"inventory": { "...": "see Inventory" },
"counts": { "lanes": 1, "tasks": 1, "agents": 1, "pairs": 0, "events": 0, "advisories": 0, "resolutions": 0 },
"limits": [ "..." ]
}
```
### Task
One task per session. A session with no changed files is still a task; it has no projection point and no pairs.
| Field | Meaning |
|---|---|
| `id` | Session id, unchanged. |
| `lane` | Lane id this task belongs to. |
| `label` | Session task text, or the id. |
| `harness`, `agentType`, `state`, `pid` | From the session row. |
| `worktree` | `{ path, branch, base }` or `null`. |
| `heartbeatAt`, `updatedAt` | ISO timestamps or `null`. |
| `workingSet` | `{ fileCount, files }`: the worktree diff against its base. |
| `projection` | `{ point, pairs, maxRisk }` where `point` is `[x, y]` or `null`. `point` is the risk-weighted centroid of the task's pair points in PCA space. |
| `inventory` | `{ id, heartbeat, process, authority: "declared-only" }`. `id` is the sanitized identifier used in the inventory manifest; `heartbeat` and `process` are the #3028 observations. |
### Lane
A grouping of tasks. Precedence: `task-group` (session `task_group`), then `project`, then `harness`. Ids are prefixed (`group:`, `project:`, `harness:`) so a consumer can tell the kinds apart without reading `kind`.
### Pair
One row per agent pair from the airspace scan (only sessions with edits participate).
| Field | Meaning |
|---|---|
| `a`, `b` | Session ids. |
| `risk`, `level` | Noisy-OR risk and the scan's level (`clear`, `advisory`, `resolution`) at the scan's thresholds. |
| `channels` | Raw `{ x_tree, x_overlap, x_dep }` in [0, 1]. |
| `normalized` | The same after z-score, clip and map-back, or equal to `channels` while the window is cold. |
| `point` | `[pc1, pc2]` PCA scores. |
### Event
Something an operator or a hook may act on. Ids are deterministic across polls so a consumer can dedupe.
```json
{
"id": "proximity.advisory:session-a|session-b:resolution",
"kind": "proximity.advisory",
"level": "resolution",
"severity": "critical",
"at": "2026-09-11T20:01:00.000Z",
"subject": { "a": "session-a", "b": "session-b", "aLabel": "...", "bLabel": "..." },
"risk": 1,
"distance": 0,
"channels": { "x_tree": 1, "x_overlap": 1, "x_dep": 0 },
"threshold": { "ta": 0.35, "ra": 0.7, "crossed": "ra", "source": "static" },
"action": { "type": "steer", "steer": "session-b", "hold": "session-a" },
"message": "Resolution advisory: session-b steers, session-a holds (risk 100%, static threshold 0.7)."
}
```
| Kind | Levels | Action types | Source |
|---|---|---|---|
| `proximity.advisory` | `traffic` (risk at or above `ta`), `resolution` (at or above `ra`) | `transmit` (both agents share intent), `steer` (`steer` moves, `hold` keeps course) | Every pair link, evaluated against the view's thresholds. Right-of-way: more progress, then earlier start, then stable id. |
| `inventory.lease-conflict` | `conflict` | `review` | #3028 `leaseConflicts`. Declared-only, never a lock. |
Thresholds are static per view (`source: "static"`). A learned threshold, closure-rate escalation, and the `pause` and `wait` maneuvers are slice (b), see `TCAS-HOOK.md`.
### Projection
```json
{
"method": "pca",
"channels": ["x_tree", "x_overlap", "x_dep"],
"weights": { "x_tree": 0.25, "x_overlap": 1, "x_dep": 0.9 },
"normalization": "zscore-clipped",
"window": { "samples": 12, "percentiles": [2.5, 97.5], "channels": [ { "channel": "x_tree", "mean": 0.39, "stddev": 0.42, "clipLow": -0.92, "clipHigh": 1.45 } ] },
"pca": { "loadings": [ { "x_tree": 0.12, "x_overlap": 0.87, "x_dep": -0.47 }, { "...": "..." } ], "explainedVariance": [0.6, 0.39] },
"agents": [ { "agentId": "session-a", "point": [0.18, 0.41], "pairs": 3, "maxRisk": 1 } ]
}
```
Pipeline per poll: every pair's channel vector is pushed into a rolling window (default 512 samples). Once the window holds at least 8 samples, each channel is z-scored against the window, clipped to the window's 2.5th and 97.5th percentile (in z units), mapped back to [0, 1], multiplied by the static channel weight, and the weighted matrix goes through PCA (Jacobi on the 3x3 covariance). Below 8 samples the raw channel values are used and `normalization` says `raw`. A channel with zero variance maps to 0.5. Degenerate inputs (fewer than two pairs, zero total variance) give zero scores, never NaN.
The projection is a display. It never changes `risk`, the advisory level, or right-of-way.
### Inventory
The #3028 report with the per-task rows folded into `tasks[].inventory`. Kept at the top level: `status` (`ok` or `unavailable` with `reason`), `truncated` (more than 64 sessions), `observedAt`, `mode: "read-only"`, `activity`, `leaseConflicts`, `warnings`, `coverage`, `limits`. The manifest is built from the live sessions (ids sanitized to the inventory alphabet, paths from the working set, heartbeat from the session row, declared session status `open` for running/pending/idle, `closed` for completed/failed/stopped). An external manifest (`viewOptions.manifest`) can add `goals`, `leases`, `repositories` and extra `tasks`; the inventory then reports lease conflicts and goal activity for them.
## Reuse in the Ito ops control plane
The shape to copy is `task`, `lane`, `event`:
- a **task** has an `id`, a `lane`, a `state`, an optional position, and an observation block whose `authority` says how much to trust it;
- a **lane** is a named group with ordered `taskIds`;
- an **event** has a stable `id`, a `kind`, a `level`, a `severity`, an `at`, a `subject`, an `action` with a `type`, and a human `message`.
Nothing in the shape is ECC-specific except the event kinds. An ops board that renders lanes of tasks and a feed of events can render this document as-is, and can emit its own kinds (`deal.stalled`, `bridge.down`) into the same feed.
## What this does not do
- No leases are acquired, no agent is paused or steered. Consumers act; the view reports.
- No conflict-reduction percentage is claimed. The 85 percent goal in the push plan is measured two weeks before and after slice (b), not here.
- No semantic, call-graph or frequency channel yet (slice (g)). PCA picks new channels up automatically when they land in the scan.
-109
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@@ -1,109 +0,0 @@
# HOOK-FIX-20260421 Addendum — v2.1.116 argv 重複バグ
朝セッションで commit 527c18b として修正済み。夜セッションで追加検証と、
朝fix でカバーしきれない Claude Code 固有のバグを特定したので補遺を記録する。
## 朝fixの形式
```json
"command": "C:/Users/sugig/.claude/skills/continuous-learning/hooks/observe-wrapper.sh pre"
```
`.sh` ファイルを直接 command にする形式。Git Bash が shebang 経由で実行する前提。
## 夜 追加検証で判明したこと
Node.js の `child_process.spawn` で `.sh` ファイルを直接実行すると Windows では
**EFTYPE** で失敗する:
```js
spawn('C:/Users/sugig/.claude/skills/continuous-learning/hooks/observe-wrapper.sh',
['post'], {stdio:['pipe','pipe','pipe']});
// → Error: spawn EFTYPE (errno -4028)
```
`shell:true` を付ければ cmd.exe 経由で実行できるが、Claude Code 側の実装
依存のリスクが残る。
## 夜 適用した追加 fix
第1トークンを `bash`(PATH 解決)に変えた明示的な呼び出しに更新:
```json
{
"hooks": {
"PreToolUse": [{
"matcher": "*",
"hooks": [{
"type": "command",
"command": "bash \"C:/Users/sugig/.claude/skills/continuous-learning/hooks/observe-wrapper.sh\" pre"
}]
}],
"PostToolUse": [{
"matcher": "*",
"hooks": [{
"type": "command",
"command": "bash \"C:/Users/sugig/.claude/skills/continuous-learning/hooks/observe-wrapper.sh\" post"
}]
}]
}
}
```
この形式は `~/.claude/hooks/hooks.json` 内の ECC 正規 observer 登録と
同じパターンで、現実にエラーなく動作している実績あり。
### Node spawn 検証
```js
spawn('bash "C:/Users/sugig/.claude/skills/continuous-learning/hooks/observe-wrapper.sh" post',
[], {shell:true});
// exit=0 → observations.jsonl に正常追記
```
## Claude Code v2.1.116 の argv 重複バグ(詳細)
朝fix docの「Defect 2」として `bash.exe: bash.exe: cannot execute binary file` を
記録しているが、その根本メカニズムが特定できたので記す。
### 再現
```bash
"C:\Program Files\Git\bin\bash.exe" "C:\Program Files\Git\bin\bash.exe"
# stderr: "C:\Program Files\Git\bin\bash.exe: C:\Program Files\Git\bin\bash.exe: cannot execute binary file"
# exit: 126
```
bash は argv[1] を script とみなし読み込もうとする。argv[1] が bash.exe 自身なら
ELF/PE バイナリ検出で失敗 → exit 126。エラー文言は完全一致。
### Claude Code 側の挙動
hook command が `"C:\Program Files\Git\bin\bash.exe" "C:\Users\...\wrapper.sh"`
のとき、v2.1.116 は**第1トークン(= bash.exe フルパス)を argv[0] と argv[1] の
両方に渡す**と推定される。結果 bash は argv[1] = bash.exe を script として
読み込もうとして 126 で落ちる。
### 回避策
第1トークンを bash.exe のフルパス+スペース付きパスにしないこと:
1. `OK:` `bash` (PATH 解決の単一トークン)— 夜fix / hooks.json パターン
2. `OK:` `.sh` 直接パス(Claude Code の .sh ハンドリングに依存)— 朝fix
3. `BAD:` `"C:\Program Files\Git\bin\bash.exe" "<path>"` — 1トークン目が quoted で空白込み
## 結論
朝fix(直接 .sh 指定)と夜fix(明示的 bash prefix)のどちらも argv 重複バグを
踏まないが、**夜fixの方が Claude Code の実装依存が少ない**ため推奨。
ただし朝fix commit 527c18b は既に docs/fixes/ に入っているため、この Addendum を
追記することで両論併記とする。次回 CLI 再起動時に夜fix の方が実運用に残る。
## 関連
- 朝 fix commit: 527c18b
- 朝 fix doc: docs/fixes/HOOK-FIX-20260421.md
- 朝 apply script: docs/fixes/apply-hook-fix.sh
- 夜 fix 記録(ローカル): C:\Users\sugig\Documents\Claude\Projects\ECC作成\hook-fix-report-20260421.md
- 夜 fix 適用ファイル: C:\Users\sugig\.claude\settings.local.json
- 夜 backup: C:\Users\sugig\.claude\settings.local.json.bak-hook-fix-20260421
@@ -1,66 +0,0 @@
# install_hook_wrapper.ps1 argv-dup bug workaround (2026-04-22)
## Summary
`docs/fixes/install_hook_wrapper.ps1` is the PowerShell helper that copies
`observe-wrapper.sh` into `~/.claude/skills/continuous-learning/hooks/` and
rewrites `~/.claude/settings.local.json` so the observer hook points at it.
The previous version produced a hook command of the form:
```
"C:\Program Files\Git\bin\bash.exe" "C:\Users\...\observe-wrapper.sh"
```
Under Claude Code v2.1.116 the first argv token is duplicated. When that token
is a quoted Windows executable path, `bash.exe` is re-invoked with itself as
its `$0`, which fails with `cannot execute binary file` (exit 126). PR #1524
documents the root cause; this script is a companion that keeps the installer
in sync with the fixed `settings.local.json` layout.
## What the fix does
- First token is now the PATH-resolved `bash` (no quoted `.exe` path), so the
argv-dup bug no longer passes a binary as a script.
- The wrapper path is normalized to forward slashes before it is embedded in
the hook command, avoiding MSYS backslash handling surprises.
- `PreToolUse` and `PostToolUse` receive distinct commands with explicit
`pre` / `post` positional arguments, matching the shape the wrapper expects.
- The settings file is written with LF line endings so downstream JSON parsers
never see mixed CRLF/LF output from `ConvertTo-Json`.
## Resulting command shape
```
bash "C:/Users/<you>/.claude/skills/continuous-learning/hooks/observe-wrapper.sh" pre
bash "C:/Users/<you>/.claude/skills/continuous-learning/hooks/observe-wrapper.sh" post
```
## Usage
```powershell
# Place observe-wrapper.sh next to this script, then:
pwsh -File docs/fixes/install_hook_wrapper.ps1
```
The script backs up `settings.local.json` to
`settings.local.json.bak-<timestamp>` before writing.
## PowerShell 5.1 compatibility
`ConvertFrom-Json -AsHashtable` is PowerShell 7+ only. The script tries
`-AsHashtable` first and falls back to a manual `PSCustomObject` →
`Hashtable` conversion on Windows PowerShell 5.1. Both hook buckets
(`PreToolUse`, `PostToolUse`) and their inner `hooks` arrays are
materialized as `System.Collections.ArrayList` before serialization, so
PS 5.1's `ConvertTo-Json` cannot collapse single-element arrays into
bare objects. Verified by running `powershell -NoProfile -File
docs/fixes/install_hook_wrapper.ps1` on a Windows 11 machine with only
Windows PowerShell 5.1 installed (no `pwsh`).
## Related
- PR #1524 — settings.local.json shape fix (same argv-dup root cause)
- PR #1511 — skip `AppInstallerPythonRedirector.exe` in observer python resolution
- PR #1539 — locale-independent `detect-project.sh`
- PR #1542 — `patch_settings_cl_v2_simple.ps1` companion fix
@@ -1,78 +0,0 @@
# patch_settings_cl_v2_simple.ps1 argv-dup bug workaround (2026-04-22)
## Summary
`docs/fixes/patch_settings_cl_v2_simple.ps1` is the minimal PowerShell
helper that patches `~/.claude/settings.local.json` so the observer hook
points at `observe-wrapper.sh`. It is the "simple" counterpart of
`docs/fixes/install_hook_wrapper.ps1` (PR #1540): it never copies the
wrapper script, it only rewrites the settings file.
The previous version of this helper registered the raw `observe.sh` path
as the hook command, shared a single command string across `PreToolUse`
and `PostToolUse`, and relied on `ConvertTo-Json` defaults that can emit
CRLF line endings. Under Claude Code v2.1.116 the first argv token is
duplicated, so the wrapper needs to be invoked with a specific shape and
the two hook phases need distinct entries.
## What the fix does
- First token is the PATH-resolved `bash` (no quoted `.exe` path), so the
argv-dup bug no longer passes a binary as a script. Matches PR #1524 and
PR #1540.
- The wrapper path is normalized to forward slashes before it is embedded
in the hook command, avoiding MSYS backslash handling surprises.
- `PreToolUse` and `PostToolUse` receive distinct commands with explicit
`pre` / `post` positional arguments.
- The settings file is written UTF-8 (no BOM) with CRLF normalized to LF
so downstream JSON parsers never see mixed line endings.
- Existing hooks (including legacy `observe.sh` entries and unrelated
third-party hooks) are preserved — the script only appends the new
wrapper entries when they are not already registered.
- Idempotent on re-runs: a second invocation recognizes the canonical
command strings and logs `[SKIP]` instead of duplicating entries.
## Resulting command shape
```
bash "C:/Users/<you>/.claude/skills/continuous-learning/hooks/observe-wrapper.sh" pre
bash "C:/Users/<you>/.claude/skills/continuous-learning/hooks/observe-wrapper.sh" post
```
## Usage
```powershell
pwsh -File docs/fixes/patch_settings_cl_v2_simple.ps1
# Windows PowerShell 5.1 is also supported:
powershell -NoProfile -ExecutionPolicy Bypass -File docs/fixes/patch_settings_cl_v2_simple.ps1
```
The script backs up the existing settings file to
`settings.local.json.bak-<timestamp>` before writing.
## PowerShell 5.1 compatibility
`ConvertFrom-Json -AsHashtable` is PowerShell 7+ only. The script tries
`-AsHashtable` first and falls back to a manual `PSCustomObject` →
`Hashtable` conversion on Windows PowerShell 5.1. Both hook buckets
(`PreToolUse`, `PostToolUse`) and their inner `hooks` arrays are
materialized as `System.Collections.ArrayList` before serialization, so
PS 5.1's `ConvertTo-Json` cannot collapse single-element arrays into bare
objects.
## Verified cases (dry-run)
1. Fresh install — no existing settings → creates canonical file.
2. Idempotent re-run — existing canonical file → `[SKIP]` both phases,
file contents unchanged apart from the pre-write backup.
3. Legacy `observe.sh` present → preserves the legacy entries and
appends the new `observe-wrapper.sh` entries alongside them.
All three cases produce LF-only output and match the shape registered by
PR #1524's manual fix to `settings.local.json`.
## Related
- PR #1524 — settings.local.json shape fix (same argv-dup root cause)
- PR #1539 — locale-independent `detect-project.sh`
- PR #1540 — `install_hook_wrapper.ps1` argv-dup fix (companion script)
+2 -2
View File
@@ -126,11 +126,11 @@ gh api repos/{owner}/{repo}/dependabot/alerts --jq '.[].security_advisory.summar
# Check secret scanning alerts
gh api repos/{owner}/{repo}/secret-scanning/alerts --jq '.[].state'
# Review and auto-merge safe dependency bumps
# Review dependency bumps — merging is a user-authorized action (propose, never auto-merge)
gh pr list --label "dependencies" --json number,title
```
- Review and auto-merge safe dependency bumps
- Review safe dependency bumps and propose merges for user approval — never auto-merge
- Flag any critical/high severity alerts immediately
- Check for new Dependabot alerts weekly at minimum
-11
View File
@@ -1,11 +0,0 @@
---
name: motion-ui
description: 日本語翻訳:このファイルは motion-ui 用の日本語翻訳が必要です
origin: ECC
---
# motion-ui - 日本語翻訳進行中
このファイルの翻訳は実装中です。英語版は元のスキルファイルを参照してください。
詳細は:`D:/tmp/everything-claude-code/skills/motion-ui/SKILL.md`
@@ -1,55 +0,0 @@
# ECC v1.10.0 is live
ECC just crossed **140K stars**, and the public release surface had drifted too far from the actual repo.
So v1.10.0 is a hard sync release:
- **38 agents**
- **156 skills**
- **72 commands**
- plugin/install metadata corrected
- top-line docs and release surfaces brought back in line
This release also folds in the operator/media lane that has been growing around the core harness system:
- `brand-voice`
- `social-graph-ranker`
- `connections-optimizer`
- `customer-billing-ops`
- `google-workspace-ops`
- `project-flow-ops`
- `workspace-surface-audit`
- `manim-video`
- `remotion-video-creation`
And on the 2.0 side:
ECC 2.0 is now **real as an alpha control-plane surface** in-tree under `ecc2/`.
It builds today and exposes:
- `dashboard`
- `start`
- `sessions`
- `status`
- `stop`
- `resume`
- `daemon`
That does **not** mean the full ECC 2.0 roadmap is done.
It means the control-plane alpha is here, usable, and moving out of the “just a vision” category.
The shortest honest framing right now:
- ECC 1.x is the battle-tested harness/workflow layer shipping broadly today
- ECC 2.0 is the alpha control-plane growing on top of it
If you have been waiting for:
- cleaner install surfaces
- stronger cross-harness parity
- operator workflows instead of just coding primitives
- a real control-plane direction instead of scattered notes
this is the release that makes the repo feel coherent again.
@@ -1,5 +0,0 @@
# X Quote Draft - Eval Skills Post
Strong eval skills are now built deeper into ECC.
v1.8.0 expands eval-harness patterns, pass@k guidance, and release-level verification loops so teams can measure reliability, not guess it.
@@ -1,5 +0,0 @@
# X Quote Draft - Plankton / De-slop Workflow
The quality gate model matters.
In v1.8.0 we pushed harder on write-time quality enforcement, deterministic checks, and cleaner loop recovery so agents converge faster with less noise.
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@@ -1,6 +1,6 @@
# Everything Claude Code (ECC) — Agent Talimatları
Bu, yazılım geliştirme için 68 özel agent, 287 skill, 94 command ve otomatik hook iş akışları sağlayan **üretime hazır bir AI kodlama eklentisidir**.
Bu, yazılım geliştirme için 68 özel agent, 293 skill, 94 command ve otomatik hook iş akışları sağlayan **üretime hazır bir AI kodlama eklentisidir**.
**Sürüm:** 2.2.1
@@ -142,7 +142,7 @@ Başarısızlık sorunlarını giderin: test izolasyonunu kontrol edin → mockl
```
agents/ — 68 özel subagent
skills/ — 287 iş akışı skillleri ve alan bilgisi
skills/ — 293 iş akışı skillleri ve alan bilgisi
commands/ — 94 slash command
hooks/ — Tetikleyici tabanlı otomasyonlar
rules/ — Her zaman uyulması gereken kurallar (ortak + dile özel)
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@@ -1,6 +1,6 @@
# Everything Claude Code (ECC) — 智能体指令
这是一个**生产就绪的 AI 编码插件**,提供 68 个专业代理、287 项技能、94 条命令以及自动化钩子工作流,用于软件开发。
这是一个**生产就绪的 AI 编码插件**,提供 68 个专业代理、293 项技能、94 条命令以及自动化钩子工作流,用于软件开发。
**版本:** 2.2.1
@@ -147,7 +147,7 @@
```
agents/ — 68 个专业子代理
skills/ — 287 个工作流技能和领域知识
skills/ — 293 个工作流技能和领域知识
commands/ — 94 个斜杠命令
hooks/ — 基于触发的自动化
rules/ — 始终遵循的指导方针(通用 + 每种语言)
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@@ -260,7 +260,7 @@ Copy-Item -Recurse rules/typescript "$HOME/.claude/rules/"
/plugin list ecc@ecc
```
**搞定!** 你现在可以使用 68 个智能体、287 项技能和 94 个命令了。
**搞定!** 你现在可以使用 68 个智能体、293 项技能和 94 个命令了。
***
@@ -1174,7 +1174,7 @@ opencode
|---------|---------------|----------|--------|
| 智能体 | PASS: 68 个 | PASS: 12 个 | **Claude Code 领先** |
| 命令 | PASS: 94 个 | PASS: 35 个 | **Claude Code 领先** |
| 技能 | PASS: 287 项 | PASS: 37 项 | **Claude Code 领先** |
| 技能 | PASS: 293 项 | PASS: 37 项 | **Claude Code 领先** |
| 钩子 | PASS: 8 种事件类型 | PASS: 11 种事件 | **OpenCode 更多!** |
| 规则 | PASS: 29 条 | PASS: 13 条指令 | **Claude Code 领先** |
| MCP 服务器 | PASS: 14 个 | PASS: 完整 | **完全对等** |
@@ -1282,7 +1282,7 @@ ECC 是**第一个最大化利用每个主要 AI 编码工具的插件**。以
|---------|-----------------------|------------|-----------|----------|
| **智能体** | 68 | 共享 (AGENTS.md) | 共享 (AGENTS.md) | 12 |
| **命令** | 94 | 共享 | 基于指令 | 35 |
| **技能** | 287 | 共享 | 10 (原生格式) | 37 |
| **技能** | 293 | 共享 | 10 (原生格式) | 37 |
| **钩子事件** | 8 种类型 | 15 种类型 | SessionStart(1 种类型) | 11 种类型 |
| **钩子脚本** | 20+ 个脚本 | 16 个脚本 (DRY 适配器) | 1 个 SessionStart 引导脚本 | 插件钩子 |
| **规则** | 34 (通用 + 语言) | 34 (YAML 前页) | 基于指令 | 13 条指令 |
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@@ -126,11 +126,11 @@ gh api repos/{owner}/{repo}/dependabot/alerts --jq '.[].security_advisory.summar
# Check secret scanning alerts
gh api repos/{owner}/{repo}/secret-scanning/alerts --jq '.[].state'
# Review and auto-merge safe dependency bumps
# 审查依赖项更新并提交给用户批准,切勿自动合并
gh pr list --label "dependencies" --json number,title
```
* 审查并自动合并安全的依赖项更新
* 审查安全的依赖项更新并提交给用户批准,切勿自动合并
* 立即标记任何严重/高严重性告警
* 至少每周检查一次新的 Dependabot 告警