[
 {
  "id": "T01",
  "target": "bestpractice_pdf_to_markdown",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "## Cause\n\nOn Apple Silicon macOS, Docling's **RT-DETR V2 layout-detection model calls `torch.float64`** during the layout detection phase. The **MPS backend does not support `float64`**, so that operation fails and the entire PDF conversion crashes.\n\n## Workaround\n\nPass `--device cpu` to force Docling onto the CPU instead of MPS:\n\n```bash\ndocling input.pdf --to md --device cpu --output output_dir\n```\n\nFor text-only PDFs that don't need OCR, add `--no-ocr` to cut out extra model paths and reduce false recognition:\n\n```bash\ndocling input.pdf --to md --device cpu --no-ocr --output output_dir\n```\n\n## Notes\n\n- **Don't reach for `PYTORCH_ENABLE_MPS_FALLBACK=1` as the first option.** In practice the fallback may still not take effect with certain version combinations; `--device cpu` is more deterministic.\n- If the CPU path still fails, or the PDF is a Chinese-language scan, image PDF, or pitch deck, switch to the **LM Studio VLM OCR** path instead (Docling carries MPS float64 risk for those document types).\n- If you're using the bundled wrapper CLI rather than Docling's official CLI, the equivalent command is:\n  ```bash\n  python rules/skills/pdf_to_markdown_cli.py docling input.pdf --output output.md --format json\n  ```",
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  "opened": [
   "bestpractice_pdf_to_markdown"
  ],
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 },
 {
  "id": "T02",
  "target": "mac_universal_clipboard",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "Yes — the item is **`handoff-own-encryption-key`** in Keychain Access. That's the Mac's local Handoff identity key; deleting it forces the Mac to regenerate its own key instead of reusing stale state.\n\nBut note the skill's escalation order puts two cheaper steps ahead of it, and you've already done one:\n\n**Step 1 (done):** Toggle Handoff off/on in System Settings → General → AirDrop & Handoff, and on iOS/iPadOS in Settings → General → AirPlay & Handoff.\n\n**Step 2 (do this first):** Boot the Mac into Safe Mode once, then restart normally. This clears system caches and has historically restored broken Continuity state after macOS updates. Less disruptive than touching Keychain.\n\n**Step 3 — the Keychain reset you asked about:**\n\n1. Open **Keychain Access** (Applications → Utilities, or Spotlight).\n2. Select the **login** keychain in the left sidebar — the Handoff key lives in the local login keychain, not iCloud.\n3. Search for `handoff-own-encryption-key`.\n4. If it doesn't appear, switch the category filter to **All Items** and make sure \"Show expired items\" isn't hiding it.\n5. Right-click the item → **Delete**. Authenticate with your login password when prompted.\n6. Restart Handoff: toggle it off and back on in System Settings → General → AirDrop & Handoff. The Mac will generate a fresh `handoff-own-encryption-key`.\n\n**Step 4 (last resort):** iCloud sign-out/sign-in. This can trigger iCloud Drive, Photos, and Keychain resync, so it's genuinely the heaviest option.\n\nTwo things worth checking before escalating at all, since basic restarts and Handoff toggling didn't help:\n\n- **Confirm the failure pattern.** If iPhone and iPad still sync with each other and only the Mac is isolated, the problem is Mac-side and the steps above are the right track. If *nothing* syncs, the issue is more likely Apple ID / account-level, and the Keychain item won't help.\n- **Run the fast fix first if you haven't.** It's cheaper than the Keychain deletion and often resolves exactly this \"daemons alive but holding stale state\" symptom:\n\n```bash\ndefaults delete ~/Library/Preferences/com.apple.coreservices.useractivityd.plist ClipboardSharingEnabled 2>/dev/null; \\\ndefaults write ~/Library/Preferences/com.apple.coreservices.useractivityd.plist ClipboardSharingEnabled 1; \\\nkillall useractivityd 2>/dev/null; \\\nkillall sharingd 2>/dev/null; \\\nkillall pboard 2>/dev/null; \\\nsleep 2; \\\npgrep -fl 'useractivityd|sharingd|pboard'\n```\n\nYou should see all three processes reappear after launchd restarts them. Then test both directions (iPhone → Mac and Mac → iPhone).\n\nOne caveat: if you're on a **macOS beta build**, treat this as a likely OS regression. The skill explicitly warns against repeatedly applying heavier local changes when symptoms match a beta Continuity bug — in that case the Keychain deletion and iCloud sign-out are unlikely to fix it, and you're better off waiting for the next beta or filing feedback.",
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  "opened": [
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 },
 {
  "id": "T03",
  "target": "openreview",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The fix is in the skill's Known Limitations section (item 4):\n\n**Delete the cached token file and retry once:**\n\n```bash\nrm tmp/openreview_token.json\npython tools/openreview_cli.py papers ICLR.cc/2024/Conference\n```\n\nWhy this works: the CLI caches its auth token to `tmp/openreview_token.json` to avoid repeated logins (OpenReview allows only 3 logins per time window). When that cached token expires, the API returns HTTP 403. Removing the file forces the CLI to perform a fresh login using your credentials and write a new token.\n\nA few things to check if the retry still fails:\n\n1. **Credentials are present and correct.** The CLI reads `openreview_email` / `openreview_password` from `.env`, or the `OPENREVIEW_EMAIL` / `OPENREVIEW_PASSWORD` environment variables. A wrong password will also surface as an auth failure.\n2. **Don't loop the retry.** Because of the 3-logins-per-window rate limit, repeatedly deleting the token and retrying can lock you out for the window. Delete once, retry once; if it fails, verify credentials before trying again.\n3. **Run from the project root** so the relative `tmp/` path resolves to the same cache file the CLI uses (and so `.env` is picked up).\n\nThen re-run your original query — e.g. `python tools/openreview_cli.py papers ICLR.cc/2024/Conference -o papers.json` — and it should authenticate cleanly.",
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  "opened": [
   "openreview"
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  "opened_target": true,
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 {
  "id": "T04",
  "target": "workflow_bilibili_whisper_transcription",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "**2–3 seconds between successive downloads**, with single-threaded (one-at-a-time) downloading.\n\nThat's the specific guidance from the Bilibili batch-download workflow:\n\n> **Single-threaded download** → Download audio one by one, 2-3 second interval between each, to avoid triggering anti-scraping\n\nThe rationale is recorded as a key decision: download concurrency is deliberately **single-threaded** to avoid triggering Bilibili's anti-scraping mechanisms, while transcription is the stage that gets parallelized (4–8 processes, since it's CPU-bound).\n\n### Practical setup for the download phase\n\n- **Concurrency:** 1 (never parallel downloads from the same session/account)\n- **Delay:** 2–3 s between each item\n- **Headers:** send a browser `User-Agent` and a `Referer: https://www.bilibili.com/` header\n- **Format:** audio-only (`-f bestaudio`) to keep requests light\n- **Bookkeeping:** record failed video IDs so you can retry them later rather than re-scanning the whole list\n\n### If you still get blocked\n\nThe 2–3 s interval is the baseline, not a guarantee. Escalation path:\n\n1. **HTTP 352 / 412 errors** → increase the delay, add/refresh User-Agent and Referer headers, or obtain the video IDs manually instead of via the list API.\n2. **412 that persists even with valid browser cookies** → this usually means risk control is blocking the *client fingerprint*, not the cookies. Verify by replaying the same `playurl` call with plain `curl`; if curl gets HTTP 200, switch to the curl-driven HTML5 playurl route (`platform=html5&high_quality=1&fnval=0`) and download the returned CDN URL with the browser UA plus a Bilibili Referer.\n3. **Short links (`b23.tv`)** → resolve them to the canonical `BV...` URL first; passing short links directly can trigger 412 even when the link is valid in a browser.\n4. **404** → video deleted or bad ID; skip and log it.\n\n### Two caveats worth knowing\n\n- The 2–3 s figure is a conservative operator heuristic from this workflow, not a published Bilibili quota. If you're doing a large batch, it's reasonable to pause and inspect failures periodically rather than pushing straight through.\n- Treat any `.info.json` sidecars and expanded Bilibili URLs as private runtime data — they can contain signed CDN URLs, cookies, and `buvid` values. Keep them in ignored runtime directories and never copy them into docs, commits, or public issues.",
  "error": null,
  "opened": [
   "workflow_bilibili_whisper_transcription",
   "download_and_transcribe",
   "source_search"
  ],
  "requested": [
   "workflow_bilibili_whisper_transcription",
   "download_and_transcribe",
   "source_search"
  ],
  "opened_target": true,
  "prompt_tokens": 42552,
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  "sec": 22.175234079360962,
  "cost": 0.0170878,
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 },
 {
  "id": "T05",
  "target": "playwright_ajax_capture",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The search results are irrelevant (generic \"reverse engineering\" content). I'll answer from the skill material I have and general API knowledge.\n\n## The core problem\n\nA create response that returns only a `creation_uuid` is almost always an **idempotency/operation handle**, not the resource identity. The real ID is assigned server-side and is usually discoverable in one of a few places. Don't guess — capture the traffic and read the contract.\n\n## Step 1: Capture the full create call and everything after it\n\nUse the `playwright_ajax_capture` approach: intercept **all** fetch/XHR from a logged-in session, not just the create request. Specifically record:\n\n- The create request: method, URL, headers (auth, `Idempotency-Key`, `X-Request-Id`, CSRF), and full body.\n- The create response: status, all headers (especially `Location`, `ETag`, `X-Resource-Id`, `X-Request-Id`), and the full body — including nested objects you may have skimmed past.\n- **Every subsequent request the UI makes** in the seconds after creation. This is the key move: the front end must resolve the ID somehow, so it either calls a follow-up endpoint or reads it from a header.\n\n## Step 2: Look for the ID in these places, in order\n\n1. **Response headers.** `Location: /api/v1/things/<id>` is the classic REST answer. Also check `X-*-Id`, `ETag`, and any `Content-Location`.\n2. **Nested/other fields in the create body.** The ID is often present but not at the top level — e.g. `{\"creation_uuid\": \"...\", \"resource\": {\"id\": 123}}`, or inside `data`, `result`, `item`, `meta`, or an `_links.self.href`.\n3. **A follow-up GET.** Many APIs return a 202-style \"accepted\" envelope with an operation UUID, and the client then polls `GET /operations/<creation_uuid>` or `GET /things?creation_uuid=<uuid>` until the resource materializes. Watch the network tab for exactly this.\n4. **A list/search call.** The UI may simply re-fetch the collection and match on a unique field you supplied (name, slug, external key). If so, that's your reliable path — but make the match key genuinely unique.\n5. **The `creation_uuid` itself may be the ID.** Verify before assuming otherwise: try `GET /things/<creation_uuid>`. Some backends use a UUID as the canonical key and only expose it under that name at creation time.\n\n## Step 3: Make it deterministic, not a race\n\nWhatever you find, wrap it in a resolve step rather than assuming immediacy:\n\n- **Poll with backoff** on the follow-up endpoint until the resource appears (creation is often async). Bound the retries and fail loudly on timeout.\n- **Send your own idempotency key** on the create call if the API supports it, so a retry after a timeout returns the same resource instead of creating a duplicate.\n- **Prefer a server-provided locator** (Location header or operation endpoint) over client-side list matching, which is fragile under pagination and eventual consistency.\n- **Assert the contract**: after resolving, do a `GET` on the real ID and confirm the fields you sent match. That converts \"I think this is the ID\" into a verified fact.\n\n## Step 4: If nothing exposes the ID\n\nThen the create endpoint is genuinely under-specified, and your options are:\n\n- Re-run the capture with the UI's own \"create\" flow and diff the request sequence — the front end is doing *something*, and that something is your answer.\n- Check for a bulk/batch create variant that returns IDs.\n- Fall back to a unique natural key you control (slug, external reference) and use it as the handle for subsequent actions, documenting that the numeric ID is not obtainable from the create response.\n\nThe short version: **capture the whole post-create request sequence, check headers first, then nested fields, then a follow-up GET/poll — and verify the resolved ID with a read-back before using it.**",
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 {
  "id": "T06",
  "target": "workflow_watchdog",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "**Default: ~30 minutes (1800 seconds).**\n\nThat's the recommended default from the Workflow Watchdog skill: after dispatching a long-running workflow, background agent, or batch sub-agent task, set an inspection wake-up of about 30 minutes rather than waiting in place.\n\n**How to set it, depending on your harness:**\n\n- **Claude Code harness** — use `ScheduleWakeup` with ~1800s.\n- **Other harnesses** — use the corresponding timing mechanism, e.g. Process Launcher's delayed execution (`POST /run` with `delay_seconds: 1800`).\n\n**On each wake-up, check real task state and branch:**\n\n1. **Genuinely busy** — new output is appearing, the agent keeps producing. Leave it alone; wait or set another wake-up.\n2. **Stuck in a loop** — no progress for a long time, the same step retrying repeatedly. Kill it (`TaskStop` in Claude Code), then proceed with partial results or switch methods and redo.\n\n**Two refinements worth knowing:**\n\n- **The 30 minutes is a starting default, not a fixed cron.** The Agentic Patrol pattern prefers a *dynamic* cadence: inspect, decide, then schedule exactly **one** follow-up inspection with a delay appropriate to observed progress. Don't set up a rigid recurring loop.\n- **Judge \"busy vs stuck\" yourself.** Don't ask the user — inspection and kill are technical orchestration decisions you should carry through to the end.\n\n**Practical cautions when scheduling the follow-up:**\n\n- Before scheduling, query for an existing pending job (`GET /scheduled?status=pending&label=<label>`) to avoid duplicates. Note that `label` is a substring filter, not a uniqueness constraint — verify the command and target time before assuming a match.\n- Keep the patrol prompt at a stable, private path (not a temp dir subject to cleanup).\n- A scheduled job reporting `completed` only means the child process exited 0 — it does **not** certify the downstream agent actually ran the inspection. If a handoff is ambiguous, check the target session timeline before rescheduling.\n- Define a human stop path and a bounded deadline in the task prompt so the patrol can't run away.",
  "error": null,
  "opened": [
   "workflow_watchdog",
   "skill_agentic_patrol"
  ],
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 {
  "id": "T07",
  "target": "workflow_parallel_subagents",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "I already have the authoritative source for this — the Parallel Subagent Workflow skill's \"Routing Decisions\" section. The search results are generic third-party material and don't add anything on this specific point, so I'll answer from the skill text.\n\n## The rule\n\nFrom the Parallel Subagent Workflow skill, Routing Decisions section:\n\n> Do not default to setting `temperature: 0` for agents \"for stability.\" Many providers/models have their own sampling strategies; DS4 also does deterministic handling for protocol structures, but forcing determinism on long text payloads may cause repetition. Default to not setting temperature; let the provider/server use their own defaults. Only configure when you explicitly know a specific model needs fixed sampling.\n\n## Why temperature 0 is the wrong lever\n\n1. **It doesn't address the actual source of instability.** Subagent unreliability in this workflow comes from context and instruction problems — vague prompts, unclear acceptance criteria, missing evidence requirements, shared-state write conflicts — not from sampling randomness. Pinning temperature to 0 leaves every one of those untouched.\n\n2. **It overrides the provider's own tuned sampling strategy.** Each model/provider ships a default sampling configuration. A blanket `temperature: 0` discards that tuning and can degrade quality on exactly the tasks subagents are used for: research synthesis, review, and writing.\n\n3. **It can create the failure mode you're trying to prevent.** Forcing determinism on long text payloads may cause **repetition** — degenerate loops and stuck phrasing. That's a new instability introduced by the \"stability\" setting, and it's most likely on the long-form artifacts subagents are supposed to write to disk.\n\n4. **Determinism belongs at the protocol layer, not the text layer.** The skill notes DS4 already does deterministic handling for protocol structures. That's the right place for determinism. Long-form prose and analysis are not protocol structures.\n\n5. **It contradicts the methodology's core stance.** The AI Programming Mindset skill is explicit: **outcome determinism over process determinism**. You get reliable subagents by fixing the *outcome* — clear success criteria, checkable output formats, evidence requirements, file-first handoff with a manifest — not by freezing the *process* (sampling parameters).\n\n## What to do instead\n\n- **Don't set temperature at all.** Let the provider/server use its defaults.\n- **Only set it when you have specific knowledge** that a particular model needs fixed sampling for your use case.\n- **Get stability from the workflow, not the sampler:**\n  - Write specific prompts with explicit acceptance criteria and required output paths.\n  - Require results to land on disk first; the last message returns only path, status, key conclusions, and open issues.\n  - Have the parent merge from artifacts and cross-validate overlapping scopes rather than trusting a child's natural-language summary.\n  - Use 2–3 well-designed subagents instead of 5 loose ones.\n  - Preserve boundaries (scratchpads, checkpoints, partial outputs) so an interrupted child can be resumed from files.\n\nIn short: temperature 0 is a process-level knob applied to a problem that is fundamentally about context, criteria, and handoff — and on long text it can make things worse by inducing repetition.",
  "error": null,
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   "workflow_parallel_subagents",
   "bestpractice_ai_programming_mindset"
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    "name": "search",
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 },
 {
  "id": "T08",
  "target": "bestpractice_markdown_html_conversion",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "**Recommended minimum padding: 24px or more** on the `body` or main container.\n\nThat's the figure given in the Markdown-to-HTML best practice guidance (section 4, \"CSS Details for Mobile Adaptation\" → \"Spacing Management\"): ensure the HTML `body` or main container has sufficient `padding` (recommended 24px or more) so text doesn't hug the screen edge on mobile devices.\n\nA few practical notes for applying it:\n\n- **Apply it to the container, not just `body`.** If your generated HTML wraps content in a `<main>` or `<article>`, put the padding there so it survives any layout wrapper.\n- **Use a slightly larger value on small screens if you like breathing room**, e.g. `padding: 24px 20px;` — but don't go below 24px on the horizontal axis, which is the point of the rule.\n- **Watch for double padding.** If both `body` and the inner container have padding, you'll get 48px+ of inset and a cramped text column on phones. Pick one place.\n- **Pair it with `box-sizing: border-box`** and a `max-width` (e.g. `max-width: 42rem; margin: 0 auto;`) so the padding doesn't push content off-screen or create horizontal scroll.\n- **Don't let code blocks or tables defeat it.** Wide `<pre>` blocks and tables are the usual culprits for edge-clinging on mobile; give them `overflow-x: auto` rather than reducing the container padding.\n\nThe other lessons in that same document are worth keeping in mind while you're styling, since they affect how the HTML renders at all: leave a blank line between a paragraph and a following list (otherwise Pandoc may emit the list as plain text with no bullets), insert at least one blank line between merged chapter files so headings parse correctly, and strip decorative brackets from headings (e.g. `## 【Chapter Summary】` → `## Chapter Summary`) so the auto-generated TOC stays clean.",
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   "bestpractice_markdown_html_conversion"
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 {
  "id": "T09",
  "target": "codex_cli",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "I don't have a skill in the library that covers OpenAI-compatible backend configuration or disabling `web_search` — none of the indexed skills address that specific config key or its value type. I also can't search the web in this environment, so I can't verify the exact schema for your particular backend.\n\nRather than guess at a config key and value type (which is exactly the kind of thing that would produce another 400), here's how to get the authoritative answer quickly:\n\n**1. Identify which layer is rejecting the request**\nThe 400 \"`web_search` is not supported\" is almost always raised by the *server* (your custom backend or the gateway in front of it), not the client. Check the response body — most OpenAI-compatible servers return something like:\n```json\n{\"error\": {\"message\": \"...\", \"type\": \"invalid_request_error\", \"param\": \"tools[0].type\"}}\n```\nThe `param` field tells you exactly which field to change.\n\n**2. Find the config surface**\n- If you're using a proxy/gateway (LiteLLM, one-api, OpenRouter-style routers, vLLM, Ollama, LM Studio, llama.cpp server), the setting lives in *that* tool's config, not in the OpenAI SDK.\n- If it's your own service, grep the codebase for the string `web_search` — the rejection site will show you the accepted enum of tool types.\n\n**3. The two common shapes**\nDepending on the layer, disabling it is usually one of:\n- **Client side:** remove the tool entry from the request, i.e. drop `{\"type\": \"web_search\"}` (or `web_search_preview`) from the `tools` array, or set `tools: []`.\n- **Server side:** a boolean/feature flag in the config, e.g. `web_search: false` or `enable_web_search: false`, or an allow-list of supported tool types that simply omits `web_search`.\n\n**4. Value type caution**\nThis is the part I can't confirm for your stack. In most OpenAI-compatible configs these flags are **booleans** (`false`, not `\"false\"`), but some YAML/JSON loaders coerce strings, and some gateways use an **enum or list** instead (e.g. `tools: [\"function\"]`). Passing the wrong type is a very common cause of a *second* 400.\n\n**What I'd need to answer precisely:** the name of the backend/gateway you're running, and either the config file's current contents or the full 400 response body. With those I can give you the exact key and value.\n\nIf you can paste the error body and tell me which server software it is, I'll pin down the exact edit.",
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 {
  "id": "T10",
  "target": "apple_photos",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "**50 pairs per delete manifest.**\n\nFrom the skill's **Delete Batch Bound** rule:\n\n> Limit each delete manifest to 50 pairs. Split larger evidence sets into independent plans and require fresh review and authorization for each; never reuse a token or retry an uncertain batch.\n\nPractical implications when planning:\n\n1. **Chunk your evidence set** into groups of ≤50 byte-different, single-resource still-image pairs.\n2. **One plan per chunk** — each chunk gets its own frozen, integrity-checksummed JSON manifest.\n3. **Fresh authorization per chunk** — a new short-lived, single-use, manifest-bound HMAC token for each plan. Tokens are bound to action, manifest, snapshot, count, expiry, nonce, and CLI major version, so a token from chunk 1 cannot be reused for chunk 2.\n4. **Fresh review per chunk** — the human review and interactive TTY confirmation phrase must be repeated for each independent plan.\n5. **Never retry an uncertain batch** — if a chunk ends in `partial` or `outcome_unknown`, reconcile read-only through fresh PhotoKit and library reads rather than re-running it.\n\nAlso worth remembering while planning: only byte-different, single-resource still-image pairs are eligible (no Live Photos, RAW+JPEG, edited compound assets, unavailable or non-photo resources), and each pair must pass equal dimensions, RGB MAE ≤ 1%, luma MAE ≤ 1%, RGB P99 ≤ 5%. Byte-identical duplicate deletion is unsupported — use Photos' built-in duplicate handling for those.",
  "error": null,
  "opened": [
   "apple_photos"
  ],
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   "apple_photos"
  ],
  "opened_target": true,
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 },
 {
  "id": "T11",
  "target": "colab",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "On CLI 0.7.4, an unrecognized `--gpu` value is **not rejected** — the CLI silently sends it as **A100**.\n\nThat's stated directly in the skill: \"On 0.7.4 an unrecognized `--gpu` value is sent as A100, not rejected.\"\n\nWhat this means for you in practice:\n\n1. **You get no error.** There's no invalid-argument abort, so a typo like `--gpu G44` or `--gpu g4` won't fail fast. You'll just be allocated an A100 (or attempt to be).\n2. **Don't trust the flag as evidence of what you got.** The skill's rule is that a successful accelerator request is not proof of the allocation. After allocation, probe the actual hardware and keep the line:\n   ```\n   nvidia-smi --query-gpu=name,compute_cap,memory.total --format=csv,noheader\n   ```\n   Record that probed line — not the `--gpu` value you typed. `colab status` repeats your *request* and also prints a runtime endpoint; record only the probed line, never the endpoint or any URL.\n3. **Rebuild if the architecture differs.** If you wrote the typo expecting, say, a G4 (96 GB, `sm_120`) and landed on an A100 (`sm_80`), any binary you compiled for the other capability must be rebuilt. Don't run an `sm_80` binary on `sm_120` or vice versa.\n4. **Watch the `400` trap too.** If the request does fail, note that on 0.7.4 `session.new` (and the same branch in `colab run`) collapses any accelerator `400` into one message without reading the response body — the \"quota or entitlement\" wording there is the CLI's guess, not a diagnosis. A `400` can equally be a rejected parameter or shape.\n\nSo: fix the typo and re-run if you want a specific card, but verify with the probe either way, since the CLI will happily hand you an A100 for a garbage value.",
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 {
  "id": "T12",
  "target": "dataforseo",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "## What's happening\n\nError `40104` is not an authentication failure. Your credentials are fine — that's why `balance` works. The skill's Known Failure Modes section documents this exact case:\n\n> DataForSEO may return `40104` when the account is authenticated but not verified. In that case, account/balance can still work, but keyword data endpoints, including sandbox, may be blocked until the user completes verification in the DataForSEO panel.\n\nSo the pattern you're seeing is the signature of an **unverified account**:\n\n- `balance` hits an account-level endpoint → allowed for authenticated-but-unverified accounts.\n- `keyword-suggestions` / `related-keywords` / `keywords-for-site` hit data endpoints → gated behind verification.\n- The sandbox is gated too, which is the part that surprises people. Sandbox mode changes the *data source*, not the *account entitlement check*, so it does not bypass verification.\n\n## How to fix it\n\n1. **Log into the DataForSEO panel** (dashboard at dataforseo.com) with the same account whose login/password you put in `DATAFORSEO_AUTH_BASE64`.\n2. **Find the verification / account-activation prompt.** It's usually a banner or a status indicator on the dashboard, or under account/profile settings. DataForSEO typically requires identity/business verification before releasing data endpoints.\n3. **Complete the verification steps** it asks for (identity and/or business details, and any confirmation email or document upload). Submit them.\n4. **Wait for approval.** Verification is not always instant — it can be reviewed. Until it flips to verified, keyword endpoints will keep returning `40104` regardless of `--base-url`.\n5. **Re-test with a tiny limit** once verified:\n\n```bash\n.venv/bin/dataforseo-skill balance\n.venv/bin/dataforseo-skill keyword-suggestions \"agent harness\" --limit 3 --location-code 2840 --language-code en\n```\n\nIf that returns rows, you're unblocked. Then move to your real limits.\n\n## Things to rule out first (quick, cheap)\n\nBefore assuming verification, confirm you're not chasing a red herring:\n\n- **Confirm the error is really `40104`** and not a neighboring code. Run with `--raw` to see the full DataForSEO envelope, which includes the status message text alongside the code:\n\n```bash\n.venv/bin/dataforseo-skill --raw keyword-suggestions \"agent harness\" --limit 3\n```\n\n- **Confirm the credential is the right account.** If `DATAFORSEO_LOGIN` / `DATAFORSEO_PASSWORD` are set in your shell, they may take precedence over `DATAFORSEO_AUTH_BASE64` (or vice versa), so `balance` could be succeeding against a *different* account than the one you think you're using. Unset the pair you don't intend to use and re-run both commands.\n- **Confirm the token is well-formed.** It must be Base64 of `login:password` — no trailing newline, no quotes, no `Basic ` prefix. A malformed token usually gives an auth error rather than `40104`, but it's worth a glance since `balance` and data endpoints can behave differently.\n\n## What not to do\n\n- Don't rotate the key or re-issue credentials — `40104` is not a credential problem, and rotating won't help.\n- Don't keep retrying against the sandbox hoping it behaves differently. It won't; the gate is on the account, not the endpoint host.\n- Don't paste the Base64 token into a ticket, doc, or prompt while debugging. It's Base64, not encryption — anyone who sees it has your credentials. If it has already leaked into a log or a committed file, rotate it.\n\n## If verification is already complete and it still fails\n\nThen the remaining likely causes are: the verification is still pending review, the verification was applied to a different account than the one in your token, or the account has a separate restriction on data endpoints (e.g. a plan/entitlement issue). In that case, contact DataForSEO support with the account email and the exact `40104` response body — they can tell you which gate is closed.",
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 {
  "id": "T13",
  "target": "firewalla",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The flag you need is **`--execute`**.\n\n## Why it's needed\n\nThe Firewalla CLI is **dry-run by default**. Every live collection command (`devices`, `alarms`, `health`, `snapshot`, `dump-format`) will print what it *would* do without ever opening an SSH connection to your physical Firewalla box. That's a deliberate safety default: the skill is read-only and local-first, so nothing touches your real device unless you explicitly opt in.\n\nSo your commands were \"not actually querying\" the device because they were running in dry-run mode.\n\n## What to run\n\nFrom `adhoc_jobs/firewalla_skill/`, with the venv activated:\n\n```bash\nsource .venv/bin/activate\n\nfirewalla-skill health --execute\n\nfirewalla-skill devices --execute --all --json --output reports/devices_all_latest.json\n\nfirewalla-skill alarms --execute --since-days 3 --include-archive --all --json --output reports/alarms_last3d_latest.json\n```\n\n## If `--execute` still doesn't reach the device\n\n`--execute` only removes the dry-run gate — it still needs a way to connect. Check your connection config:\n\n- Preferred: a git-ignored `.firewalla.local.json` in the project root:\n  ```json\n  {\"ssh_alias\": \"firewalla\"}\n  ```\n- Or environment variables: `FIREWALLA_SSH_ALIAS`, or the direct trio `FIREWALLA_HOST` / `FIREWALLA_SSH_USER` / `FIREWALLA_SSH_KEY`.\n\nVerify the SSH alias itself works (`ssh firewalla`) before blaming the CLI.\n\n## Two things to keep in mind\n\n1. **Keep artifacts local.** The JSON output contains real names, IPs, MACs, domains, and alarm/flow fields. Write to ignored paths like `reports/` and don't paste them into public docs, issues, PRs, screenshots, or messages.\n2. **Stay read-only.** Don't write Redis, change iptables, alter Firewalla policies, or edit service files. If you later want write operations, that requires a separate RFC and explicit opt-in — prefer the official Firewalla app's alarm/notification tuning or the local Encipher API.\n\nOnce you have the JSON on disk, the analysis subcommands (`device-summary`, `cluster`, `attribute`, `active-devices`) run purely locally and don't need `--execute`.",
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 {
  "id": "T14",
  "target": "apple_calendar",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "## Short answer\n\nCopy from the **group container**, not from `~/Library/Calendars`:\n\n```\n~/Library/Group Containers/group.com.apple.calendar/Calendar.sqlitedb\n```\n\nAnd copy the sidecars too — `Calendar.sqlitedb-wal` and `Calendar.sqlitedb-shm` — into the same temp directory, preserving the file names.\n\n## Why `~/Library/Calendars/Calendar.sqlitedb` failed\n\nIt's a **0-byte decoy**. On current macOS that path still exists, so your script finds a file, opens it successfully, and runs its query — but there are no tables and no rows, so every query returns empty. Nothing errors out, which is exactly why it looks like \"my calendar has no events\" instead of \"I copied the wrong file.\" This is a documented real incident (P2 in the skill's pit log): a wrong \"no such event\" conclusion was nearly drawn from it.\n\nThe real EventKit store lives only in the group container path above.\n\n## Two more things that will bite you even after you fix the path\n\n1. **Copy all three files, not just the main one.** Uncheckpointed writes sit in the `-wal` / `-shm` sidecars. A main-file-only copy can silently read stale data (P4). Snapshot `Calendar.sqlitedb`, `Calendar.sqlitedb-wal`, and `Calendar.sqlitedb-shm` (if present) together, then open the *copy* with `sqlite3` in `mode=ro` so the live store is never touched.\n\n2. **Don't retry the AppleScript / pyobjc-EventKit route.** Both go through macOS TCC and are denied for a non-interactive process tree (`-1743: Not authorized to send Apple events to Calendar`). The sqlite snapshot is the only no-permission path (P3).\n\n## Verify before trusting output\n\nAfter copying, assert two things: the file is non-empty, and it's the real store (e.g. it has the expected tables and returns a known event). The skill's `selftest` does exactly this — store identity + non-decoy, all-day shape, `end >= start`, IANA zone resolution, and a non-empty display round-trip sample — and exits 1 on failure. Run it after any change to your script, and before acting on output that looks inconsistent.\n\n## Time-semantics trap while you're in there\n\nOnce you're reading the right file, note that `start_date` / `end_date` are **absolute instants** (seconds since `2001-01-01 00:00:00 UTC`, the NSDate reference), not wall-clock values. `start_tz` / `end_tz` are only for rendering. Reading `start_date` as a wall clock in `start_tz` produced a 7-hour error in a real case (12:00 UTC read as 12:00 PT). Act on the UTC instant; treat local time as display-only. All-day events are stored at UTC midnight with tz `float`, so match timed events by instant and all-day events by their UTC date rather than building one instant range.",
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 {
  "id": "T15",
  "target": "skill_image_generation",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "I don't have a skill in the library that covers GPT Image 2.5 infographic generation specifically, and I can't search the web in this environment. So let me be honest about what I can and can't tell you, then give you the closest applicable workflow from the library.\n\n**What I can't confirm:** I have no reliable knowledge of a model called \"GPT Image 2.5\" — my knowledge cutoff predates it, and there's no skill here documenting it. Any specific claim I made about its prompting behavior would be invented. Treat anything below as a general principle, not a verified fact about that model.\n\n**The workflow principle that applies (and is well-supported):**\n\nDon't ask a text-to-image model to render an infographic from a prose prompt. Instead, **compose the infographic as structured layout + generated assets**, i.e. separate *content and layout* from *image synthesis*:\n\n1. **Author the structure deterministically** — write the infographic as HTML/CSS (or SVG) with a real layout engine: grid, flexbox, explicit type scale, real text nodes. Text, numbers, labels, and arrows are laid out by code, not hallucinated by a diffusion model.\n2. **Generate only the visual assets** — use the image model for the parts it's actually good at: background textures, hero illustrations, icons, decorative plates. These are placed into the DOM as `<img>` elements.\n3. **Render and audit** — screenshot the composed page (headless browser) and inspect it: check text overflow, contrast, alignment, and that every number matches the source data.\n\n**Why this beats prompting from text alone:**\n\n- **Text fidelity.** Diffusion models garble glyphs, misspell words, and invent digits. Layout engines render text exactly. For an infographic, wrong numbers are a correctness failure, not a cosmetic one.\n- **Iterability.** You can change one data point or one label and re-render in seconds. Re-prompting an image model to fix a single typo usually perturbs the whole composition.\n- **Auditability.** The source of truth is a file you can diff, review, and version. A generated PNG is opaque.\n- **Determinism.** Same input → same output. Prompted generation is stochastic, so you can't reproduce a deck or a chart reliably.\n- **Separation of concerns.** The model does what it's uniquely good at (pixels, texture, style); code does what it's uniquely good at (precision, structure, repetition).\n\n**Relevant skills in this library if you want the concrete tooling:**\n\n- `bestpractice_internal_visuals` — internal document layout and adaptive visual components; the \"let form carry value\" framing.\n- `generated_assets` — how generated assets live inside a DOM-composed slide.\n- `html_decks` — the canvas-deck approach: one continuous animated sheet, camera-driven, composed in the DOM.\n- `skill_image_generation` — choosing between Gemini and OpenAI image models for local artifact-producing workflows.\n- `frontend_design` — avoiding generic AI aesthetics in the composed output.\n\nIf you can tell me what GPT Image 2.5 actually is (vendor, release, whether it has a layout/structured-output mode), I can give you a sharper answer — or if you'd like, I can pull the full text of any of the skills above.",
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 {
  "id": "T16",
  "target": "skill_intake",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The sync step reads only two extensions:\n\n- **`.m4a`** — copied/normalized directly\n- **`.qta`** — converted via `ffmpeg` (this is why `ffmpeg` is a hard requirement; without it, `.qta` conversion fails)\n\nEverything else in the source folder is ignored. That's the most likely cause of your \"skipped\" recordings.\n\nThings to check, in order:\n\n1. **Confirm the actual extensions in the source folder.** Voice Memos normally stores `.m4a`, but if you have `.wav`, `.mp3`, `.aac`, `.caf`, or `.mp4` files sitting there, sync will silently skip them. Run:\n   ```bash\n   ls -la ~/Library/Group\\ Containers/group.com.apple.VoiceMemos.shared/Recordings/\n   ```\n   (or your `--source` path if you overrode it).\n\n2. **Check `ffmpeg` availability.** If `ffmpeg` is missing, `.qta` files can't be converted and effectively drop out of the pipeline. Verify with:\n   ```bash\n   python -m intake_skill doctor\n   ```\n   Look at `checks.ffmpeg_available`. If it's `false`, install ffmpeg with your normal package manager and rerun `doctor`.\n\n3. **Watch for the `.wav` fallback trap.** `make-sample-audio` falls back to `.wav` when ffmpeg is broken — and sync ignores `.wav`. If you generated test audio and it didn't sync, that's the reason.\n\n4. **Run a dry run and inspect the JSON `items` array** to see exactly which files were picked up and which were not:\n   ```bash\n   python -m intake_skill sync --date YYYYMMDD --dry-run\n   ```\n   Files absent from `items` are the ones being skipped.\n\n5. **Also verify the date filter.** Sync is date-scoped (`--date YYYYMMDD`), so a recording whose timestamp falls outside the requested day won't appear even if the extension is correct. If you're not sure of the date, check the file mtimes against the `--date` you passed.\n\nIf your recordings genuinely are in a non-`.m4a`/`.qta` format, the skill's scope is Voice Memos only — it deliberately does not add other sources or formats. The fix is to convert those files to `.m4a` (e.g., `ffmpeg -i input.wav -c:a aac output.m4a`) before they land in the source folder, or to let Voice Memos itself produce the `.m4a` files.",
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 {
  "id": "T17",
  "target": "watch_development",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The Developer Mode toggle is hidden until the watch has been paired with your Mac at least once. It's not a bug — watchOS only surfaces that setting after an initial developer pairing. Here's the fix:\n\n## Steps to make Developer Mode appear\n\n1. **Pair the watch with your Mac via Device Hub.**\n   - On the Mac: *Xcode > Open Developer Tool > Device Hub* (or the run-destination menu > *Manage Devices…*).\n   - Click **\"+\" → \"Pair Nearby Device\"**.\n   - A numeric pairing code appears on the watch face — confirm it on the watch to establish trust.\n\n   Note: the watch's magnetic charging cable connected to the Mac provides **power only** — there is no USB data link. The Mac reaches the watch entirely through the **paired iPhone**, so:\n   - The iPhone must be paired and trusted with the Mac (USB or same local network).\n   - Bluetooth and Wi-Fi must be enabled on **both** the iPhone and the watch.\n\n2. **Restart the Apple Watch.**\n\n3. **After rebooting**, open *Settings > Privacy & Security* on the watch. The **Developer Mode** toggle will now be present. Toggle it on.\n\n4. **Restart the watch again** when watchOS prompts you to apply the change.\n\n## Why this happens\n\nThe Developer Mode entry is only surfaced by watchOS after the watch has established its initial pairing with the Mac. Until that pairing happens, the setting simply doesn't exist in the menu — so there's nothing to toggle and no amount of navigating will reveal it.\n\n## What to expect next (so you're not surprised)\n\nOnce Developer Mode is on, the watch still isn't ready to accept installs immediately:\n\n- Xcode will run **DDI preparation** (\"Preparing \\<watch\\>\", or `copy OS library symbols from <watch>` on the CLI). During this, keep the watch **on its charger, unlocked and awake, near the paired iPhone**, with the iPhone connected to the Mac and Bluetooth/Wi-Fi active on both.\n- Check progress with `xcrun devicectl list devices`. A freshly paired watch shows `connected (no DDI)`; when preparation finishes it advances to `connected`.\n- If you build from the command line while preparation is still running, `xcodebuild` will abort with `Timed out waiting for all destinations…`. Pass `-destination-timeout <seconds>` with enough headroom.\n\nIf the toggle still doesn't appear after pairing + restart, re-check that the pairing actually completed (the watch should be listed in Device Hub) — the restart only reveals the setting if the pairing step succeeded.",
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 {
  "id": "T18",
  "target": "koyeb",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "## Why not the native `metrics get` command\n\nThe Koyeb CLI's built-in metrics command is **lossy for exactly the question you're asking**. Per the skill's telemetry rule:\n\n> *Rule*: Native CLI maps upstream nulls to 0. Always use `scripts/request_metrics.py` when evaluating scale-to-zero eligibility or confirming inactivity.\n\nThe upstream metrics API distinguishes between:\n\n- **`null`** — no data point was reported for that bucket (the series didn't exist, the scrape was missing, or the service was already asleep). This is *absence of evidence*.\n- **`0`** — a real data point was reported and the value genuinely was zero. This is *evidence of absence*.\n\nThe native CLI collapses both into `0`. So a service that was already scaled to zero, or whose metrics pipeline simply didn't report, looks identical to a service that was up and serving zero requests. If you automate a scale-down decision on that output, you can't tell \"confirmed idle\" from \"no telemetry at all\" — you may scale down on a false positive, or fail to distinguish a broken metrics path from a genuinely quiet service.\n\nThere's a second, structural reason: the native command emits **chained JSON frames** and flattens per-series labels, so you lose the series identity you need to attribute traffic to a specific service/instance rather than an aggregate.\n\n## What to use instead\n\nUse the **lossless request metrics reader**, which preserves `null` vs `0` and keeps per-series labels:\n\n```bash\npython3 scripts/request_metrics.py --service-id <service-id> \\\n  --start 2026-01-01T00:00:00Z --end 2026-01-01T01:00:00Z --step 1h\n```\n\nNote this is the one **explicit, narrow read-only exception** to the launcher rule — it is invoked directly rather than through `scripts/koyeb_env.py`, precisely so the raw null request telemetry survives intact. Everything else still goes through the launcher.\n\n## How to wire the check\n\n1. Resolve the service ID first (via the launcher, JSON output):\n   ```bash\n   python3 scripts/koyeb_env.py -- services get example-app/example-service -o json\n   ```\n2. Query the window you care about with `scripts/request_metrics.py`, using a `--step` that matches your idle-delay granularity.\n3. Classify into **three states**, not two:\n   - **Confirmed zero traffic** — every bucket in the window is a real `0`. Safe to scale down.\n   - **No data** — buckets are `null`. Do *not* treat as idle; investigate the metrics path or the service state first.\n   - **Traffic present** — any non-zero bucket. Do not scale down.\n4. Only act on the first state. For the other two, report and stop.\n\n## Two adjacent traps worth encoding in the automation\n\n- **Don't poll HTTP to confirm idleness.** Inbound HTTP data traffic wakes instances and resets the idle timer, so a health-check probe in your verification loop will itself prevent sleep and corrupt the measurement. Control-plane queries (`describe`, `list`) are safe; HTTP is not.\n- **Sleep also requires `--min-scale 0`** on an eligible instance type. Zero traffic alone won't scale down if min-scale is still 1.\n\nFor the full null-vs-0 semantics and the three-state classification contract, see `references/metrics.md`; for idle-timer and wake mechanics, see `references/sleep.md`.",
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 {
  "id": "T19",
  "target": "narwal",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "I already have the full skill text, so no further lookup is needed. Here's the answer.\n\n`is_docked` and `charging_state` being `null` is **expected behavior, not a fault**. Per the skill's telemetry contract, those two fields are *always* `null` — the CLI deliberately never populates them, because the raw dock/charging codes vary by firmware and aren't reliably interpretable. So never try to read dock/charge state from those fields.\n\n## How to actually determine docked + charging\n\n### 1. Use the battery trend — this is the authoritative method\nThe skill is explicit: **to tell whether it is docked or charging, use the battery trend, not these fields.**\n\n- **Between snapshots:** run `narwal-local snapshot` twice, a few minutes apart, and compare `data.base_query.battery_percent`. A rising value indicates charging.\n- **Across a watch window (better):** run a bounded live capture and watch battery over time:\n\n```\nnarwal-local watch --duration 60\n```\n\nThis emits one JSONL line per broadcast. If `battery_percent` rises across the samples, it is charging. If it's flat at a high value (e.g., 100.0) and the robot is idle, it's plausibly docked and full — but a flat battery alone doesn't prove docked; combine it with the raw codes and the mode.\n\n### 2. Look at the raw fields, not the normalized ones\nThe raw values are preserved in:\n- `dock_raw` — raw dock status code\n- `charging_status_raw` — raw charging status code\n\nThese are firmware-specific, so treat them as opaque codes. You can compare them across runs to see if they change, but don't assume a specific code means \"docked\" or \"charging\" unless you've verified it against your own model/firmware (Flow 2, `v01.09.10.02`).\n\n### 3. Cross-check with mode and task state\nFrom `snapshot`, read `data.base_query.mode` and `data.task`:\n- `mode.semantic == \"standby\"` with null task fields (`area_m2`, `elapsed_seconds`) → idle, consistent with being docked.\n- A cleaning mode with non-null `area_m2` / `elapsed_seconds` → actively cleaning, so not docked.\n\n### 4. Optional side-effectful probe (control mode)\n`clean/start_clean` (used by `start` and `clean`) **only applies while the robot is docked**; otherwise the robot answers `NOT_READY` (exit 20). So an actual `start --yes` returning `NOT_READY` is evidence it isn't docked. Prefer the battery-trend method for pure inspection.\n\n## Practical recipe\n```\n# 1. Baseline\nnarwal-local snapshot\n\n# 2. Wait a few minutes, then re-check battery\nnarwal-local snapshot\n\n# 3. Or capture a live window and compare battery_percent across lines\nnarwal-local watch --duration 60\n```\n\n**Interpretation:**\n- Battery rising across samples → charging (and therefore docked).\n- Battery flat at ~100 with `mode.semantic == \"standby\"` and null task fields → docked and full (most likely).\n- Battery falling, or a cleaning mode with non-null task fields → not docked.\n\n## Caveats\n- **Absent telemetry is `null`, never `0`.** Don't read `null` as \"not docked\" or \"not charging\" — it means unknown/unpolled.\n- **A single snapshot can't show a trend.** You need at least two observations (two snapshots or one `watch` window).\n- **Quiet telemetry is not proof of sleep or disconnection.** Report what you observed rather than inferring a cause.\n- **Only one connection per source IP** — don't run snapshots/watch in parallel; serialize them.\n- For raw-code interpretation on your specific model, check `references/output-contract.md` (telemetry mapping) and `docs/tasks.md` in the project.",
  "error": null,
  "opened": [
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 },
 {
  "id": "T20",
  "target": "skill_opencode_data",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "I already have the two skill texts I need, so here is the answer.\n\n## Why subagent fan-out sessions are missing\n\nThe OpenCode `export` command writes **one Markdown file per session that has at least one user turn**, but it **skips subagent fan-out sessions by default**. That is the primary cause: the root/parent session gets a file, and every child session spawned by a subagent fan-out is silently dropped.\n\nTwo other causes worth ruling out:\n\n1. **No user turn.** A session with only assistant/tool activity and no user turn is never exported, regardless of the subagent flag.\n2. **You are reading a stale archive instead of a fresh export.** If the workspace already maintains a daily-exported archive (e.g. a cron that re-exports all sources each morning and rebuilds a semantic index), that archive may predate the fan-out sessions. Check the archive's last-run time before concluding the export is broken.\n\n## How to include them\n\n**1. Re-run the export with the subagent flag.**\n\n```bash\n.venv/bin/python -m opencode_skill export --out OUTPUT_DIR --include-subagent\n```\n\nScope it with `--since` (relative window like `30d`, or an ISO date), and use `--dry-run` first to see scanned/exported counts before writing:\n\n```bash\n.venv/bin/python -m opencode_skill export --out OUTPUT_DIR --include-subagent --since 30d --dry-run\n```\n\nAdd `--json` to get the written file paths so you can confirm the child sessions actually landed.\n\n**2. If you are using the multi-source exporter instead**, note that its OpenCode adapter reads `~/.local/share/opencode/opencode.db` directly and has no `--include-subagent` equivalent. The reliable path for fan-out children is the OpenCode skill's `export --include-subagent`, or querying the database yourself.\n\n**3. If you are selecting sessions for archiving rather than exporting**, remember that CLI selectors expand descendants through the session `parent_id` chain by default — that is what keeps root sessions and subagent children together. Do **not** pass `--no-expand` unless you explicitly want the raw selector result, since that splits fan-out children away from their parent.\n\n## Verification checklist\n\n- Run `stats --json` first to confirm the configured database paths exist and see table counts.\n- Run `plan` with your intended selector and compare the resolved session count to what you expect — a count matching only the roots is a sign children are being excluded.\n- After export, confirm the file count and spot-check that child session IDs appear in the output directory.\n- Treat all exported Markdown as private: it contains prompt and message bodies. Never commit it, and delete temporary export directories afterward so you do not leave a duplicate copy alongside the existing archive.",
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 {
  "id": "T21",
  "target": "speaker_notes",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The strict upper limit is **22 words** for an ordinary spoken sentence.\n\nFrom the speaker notes contract (Section 1, \"Easy to Say\"):\n\n- **Target range**: keep ordinary sentences between **12–20 words**.\n- **Hard gate**: no ordinary spoken sentence may exceed **22 words**.\n\nThe reason given is that each sentence must be easy to say in one breath.\n\nTwo related constraints that travel with this rule:\n\n1. **Single payload**: one sentence may carry at most one main payload plus one supporting clause. A sentence can be under 22 words and still fail if it nests a condition, an exception, and a consequence — that's the \"Breathless Nesting\" trap, and it should be split at the logical turn.\n2. **Verify mechanically**: sentence length is one of the mechanical gates in the Rewrite QA pass, checked after the prose is assembled rather than trusted from a fluent draft.",
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 {
  "id": "T22",
  "target": "skill_semantic_search",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The option is **`--source-root`**.\n\n- **With it:** relative file-list entries are resolved against the directory you pass to `--source-root`.\n- **Without it:** they resolve against the CLI's **current working directory** — *not* the directory the file list was generated in.\n\nThat distinction is the trap the skill calls out: if you generated the list elsewhere (e.g. with `find` from a workspace root) and then run `semantic-search` from a different directory, the resolved paths won't match any cached identity, and the query **silently returns an empty result with no error**.\n\nTwo ways to avoid it:\n\n1. Generate the file list with absolute paths, or\n2. Pass `--source-root` pointing at the directory the relative entries were generated from.\n\nExample:\n\n```bash\nsemantic-search rebuild --file-list tmp/files.txt --source-root /path/to/workspace --cache-dir .knowledge_cache --workers 64\n```\n\nIf you already have a v2 cache with bad relative/duplicate identities, `canonicalize-paths --source-root /path/to/workspace` (dry run first, then `--apply`) rewrites the SQLite metadata without recomputing embeddings.",
  "error": null,
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 {
  "id": "T23",
  "target": "smart_home_skill",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "That search returned nothing relevant (reading-comprehension programs, home-buying goals, arena sustainability programs) — no smart home or Samsung TV material. So the answer stands on the skill text I already have.\n\n**No — you cannot retrieve volume level or mute status from the status endpoint.**\n\nThe skill's Known Pitfalls section is explicit about this:\n\n> Samsung TV control uses the local Tizen WebSocket API (`wss://TV_IP:8002`). The token is a one-time device-local credential stored in `data/samsung_tv_ws_token.txt`; it does not expire like a SmartThings PAT. First-run pairing requires pressing \"Allow\" on the TV screen. The TV must be on the same LAN. **Volume and mute state are not readable (protocol limitation); `get_status` returns `PowerState` only.**\n\nThis is a limitation of the Tizen WebSocket protocol itself, not a missing endpoint in the skill. No amount of schema-hunting will surface a volume or mute field, because the TV never reports them.\n\n## What you can do instead\n\n**1. Read power state (supported).** Follow the skill's required runtime checks — don't trust a documented path without confirming it against the live schema:\n\n```bash\ncurl -s {base_url}/health\ncurl -s {base_url}/openapi.json      # confirm the exact TV status path + method\n```\n\nThen call the dedicated endpoint you confirmed. You'll get `PowerState`, plus a `notification` object if one is configured — report `notification.sent` when present.\n\n**2. Maintain shadow state for volume/mute.** Since the TV won't report them, make your automation the source of truth: write volume/mute to a local state file every time *you* send a command. Treat it as a record of your own actions, not a reading — it drifts the moment someone uses the physical remote or another app.\n\n**3. Use a visual check as an independent signal.** If a camera is pointed at the TV and a check is configured, `visual_check` can read the on-screen volume/mute overlay:\n\n```bash\npython scripts/visual_check.py list\npython scripts/visual_check.py --json run <check_id>\n```\n\nRead only the JSON result for automation decisions — don't re-interpret the image unless the CLI/API fails. If `status` is `problem` or an assertion failed, report the failed assertion and artifact path; if `status` is `failed`, report `error` and treat the physical state as unknown. This is a workaround, not a status endpoint, and it only works when the overlay is actually visible.\n\n## Two traps to avoid\n\n- **Don't invent a generic action API.** The skill requires dedicated endpoints rather than a catch-all action route. If you find yourself building `POST /api/action` to \"get volume,\" that's exactly the failure mode being warned against.\n- **Pairing is a one-time manual step.** First run needs someone to press \"Allow\" on the TV screen, and the TV must be on the same LAN. If your automation can't reach the TV at all, check the Process Launcher path before assuming device failure — macOS Local Network permission depends on how the service was launched.\n\nIf you tell me what you're ultimately automating (e.g. \"normalize volume before a movie\"), I can suggest a design that doesn't depend on reading state the protocol won't give you.",
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 },
 {
  "id": "T24",
  "target": "skill_unifi",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "**Exit code 10** indicates an authentication failure — specifically an expired session cookie.\n\n**How to resolve it:** This is a human step, not something the agent can fix. Tell the human to refresh the session cookie, following the procedure in `docs/cookie_refresh.md` (the cookie is exported by a human and referenced via the local `.env`; private handles like the cookie path must never be written into workspace skill files).\n\nFor context, the other exit codes are:\n- **0** — success\n- **2** — usage error\n- **12** — rejected-no-data (bad flag/AP name, or controller rejection)\n- **13** — network/TLS/timeout (controller offline, or wrong `UNIFI_BASE_URL`)\n\nSo if you see 10, don't retry or attempt to re-authenticate programmatically — surface it to the human and ask them to refresh the cookie.",
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 {
  "id": "T25",
  "target": "asr",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "**7200 seconds (2 hours) per file.**\n\nFrom the skill's \"Testing and Boundaries\" section: *\"A single file longer than 7200 seconds is rejected before a model loads.\"*\n\nPractical notes for your interview batch:\n\n- **The limit is per file, not per batch.** Several files that add up to a long day are fine — only each individual file is capped.\n- **Rejection happens before any model loads**, so an oversized file fails fast rather than burning diarization/ASR compute.\n- **Splitting works, but has a cost:** \"Splitting a file makes separate files; a speaker letter does not continue across slices.\" If you cut a 3-hour interview in two, acoustic speaker labels (e.g. `SPEAKER_00`) are assigned independently per slice and won't be consistent across the boundary — you'll need to reconcile speaker identity yourself during the `prepare-edit` / `name_map` stage.\n- **Duplicate basenames in one batch are rejected**, so give slices distinct names (e.g. `interview01_part1.wav`, `interview01_part2.wav`).\n- **Resume is checkpoint-based** (input hash + parameter hash + diarization hash), so a partially failed batch only re-sends files that failed or lack a verified checkpoint — completed work isn't lost.\n\nIf your recordings are already under 2 hours each, run them as-is. If any exceed it, split at a natural pause and plan to unify speaker labels afterward.",
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 {
  "id": "T26",
  "target": "skill_outlook",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "The web search returned nothing relevant (it's an offline environment, and the results are unrelated to any calendar CLI). So I'll answer from the skill text I already have.\n\n**Short answer: the `apple_calendar` skill cannot answer this, because it has no `calendar invite` or `calendar update` commands.**\n\nThe skill is **read-only by construction**. Its complete CLI surface is:\n\n- `calendars`\n- `list --start <date> --end <date> [--calendar <title>]`\n- `search --text <text> [--field summary|description|all]`\n- `get --uuid <uuid>` / `get --rowid <rowid>`\n- `selftest`\n\nThere is **no `--timezone` argument anywhere** in the skill, and it states explicitly:\n\n> \"Creating, editing, or deleting events is out of scope for this skill and would need its own design plus explicit user approval.\"\n\nSo there is no documented default timezone for `calendar invite` / `calendar update` — those subcommands don't exist in this library.\n\n**What I'd suggest:**\n\n1. **Check which tool actually defines those commands.** `calendar invite` / `calendar update` look like a different CLI (possibly a Google Calendar or generic calendar tool). No skill in this index exposes them. If you can name the repo or skill, I'll open it.\n2. **If you're designing that tool**, the skill's time-semantics guidance is directly relevant:\n   - Store **absolute instants (UTC)** as the source of truth; keep the original IANA zone only for wall-clock rendering (Pit P1).\n   - Resolve the default zone from **`/etc/localtime`** to get a real `ZoneInfo`, *not* `now().astimezone().tzinfo` — that returns a fixed offset and breaks across DST (Pit P6).\n   - Handle all-day events separately: they're date-only, stored at UTC midnight, with tz `float` (Pit P5).\n\nIf you can point me at the tool that defines `calendar invite` / `calendar update`, I can give you the exact default.",
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 },
 {
  "id": "T27",
  "target": "skill_resend_email",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "## Why it failed\n\n`received list --after` is **not a timestamp filter**. In this skill, `--after` and `--before` on `received list` / `received export-all-md` are **Resend pagination cursors**. The Resend API expects **UUID cursor values** (the id of a message to page from), not ISO-8601 timestamps. Passing `2023-10-01T00:00:00Z` therefore fails the API's validation — that's the error you saw.\n\nThe same applies to `suppressions list --after/--before`: those are cursor-based page boundaries, not date filters.\n\n## What `--after` actually expects\n\n- A **UUID** identifying a received email (a cursor), e.g. `--after 4ef9a417-02e9-4d39-ad75-9611e0fcc33c`.\n- Semantics: \"return the page of results that comes after this item,\" not \"return items created after this time.\"\n\n## How to do a real time-window query\n\nSince the API has no date filter here, filter locally:\n\n1. Verify config first:\n   ```bash\n   op run --env-file=.env -- .venv/bin/python -m resend_email_skill.cli doctor config --format json\n   ```\n\n2. Export a large recent page to Markdown:\n   ```bash\n   op run --env-file=.env -- .venv/bin/python -m resend_email_skill.cli received export-all-md \\\n     --limit 100 \\\n     --output-dir data/received/markdown \\\n     --format json\n   ```\n\n3. Filter the exported Markdown files **locally by the `created_at` frontmatter** to isolate your 2023-10-01 window. If the window is older than one page covers, page backwards using the UUID cursor of the oldest message you received (pass that id to `--after`) until you reach the window, then filter.\n\n4. Treat exported Markdown and attachments as private mailbox data — don't commit `data/received/`, attachments, raw MIME, or derived reports containing personal email content.\n\nSo: drop the ISO timestamp from `--after`, use it only with a UUID cursor, and do date-window selection after export by reading `created_at`.",
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 {
  "id": "T28",
  "target": "skill_firecrawl",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "I don't have a skill in the library that documents a CLI with site-inclusion plus site-exclusion domain filtering flags. The closest candidates are the search/extraction skills, but I can't confirm their exact flag syntax without opening them.\n\nIf you tell me which CLI you mean (e.g. `tavily_skill`, `firecrawl`, `dataforseo`, or a general search tool), I can pull the right skill. In the meantime, here's the general pattern these tools follow:\n\n**The standard approach: include-domains and exclude-domains as separate parameters**\n\nMost search CLIs expose two independent filters rather than one combined query string:\n\n- **Include / allowlist**: a list of domains to restrict results to (e.g. `--include-domains example.com,arxiv.org`)\n- **Exclude / blocklist**: a list of domains to drop (e.g. `--exclude-domains pinterest.com`)\n\nThey compose: results must match the include list *and* not match the exclude list. So \"only these sites, but not that one\" = pass both.\n\n**If the CLI only takes a raw query string**, fall back to search-operator syntax, which most engines support:\n\n```\nsite:example.com OR site:arxiv.org -site:pinterest.com\n```\n\nKey points:\n- `site:` restricts to a domain; repeat it with `OR` to allow several.\n- `-site:` (leading minus) excludes a domain.\n- Order matters in some parsers — put the positive `site:` terms first, then the negations.\n- Some engines cap the number of `site:` operators per query, so if you have many allowed domains, prefer the CLI's native include-list parameter over chaining `OR`.\n\n**Practical tips**\n- Prefer the CLI's structured flags over query operators when both exist — they're less likely to be mangled by quoting.\n- Quote the whole query if you use operators, so the shell doesn't eat the `-`.\n- Verify with a small test query and inspect the returned URLs' hostnames to confirm both filters actually applied.\n\nIf you name the specific CLI, I'll open its skill and give you the exact flags.",
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 {
  "id": "T29",
  "target": "video-scoring-audio",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "I don't need to open any skill for this — it's a signal-processing question I can answer directly.\n\n**Short answer: because downmixing changes the samples, so the peak you measure is no longer the peak of the original file.**\n\nHere's the mechanism, step by step:\n\n1. **What `-ac 1` actually does.** ffmpeg's default stereo→mono downmix is not \"pick one channel\" or \"average the two.\" It sums the channels with coefficients, typically `L*0.5 + R*0.5` (the standard `-1 -1` / `0.5 0.5` matrix, sometimes with a normalization factor). So every output sample is a *new* number derived from two input samples.\n\n2. **Constructive interference inflates the peak.** If L and R are correlated (which is the normal case for centered vocals, mono-compatible mixes, or anything panned to the middle), the two channels carry nearly the same waveform. Summing them at 0.5 each preserves amplitude — fine. But if the downmix matrix sums without the 0.5 scaling, or if the content is correlated and the matrix is `L+R`, you get up to **+6 dB** of gain. A file that peaks at −1 dBFS can measure as clipping (0 dBFS or above) after downmix. You'd then \"discover\" clipping that doesn't exist in the deliverable.\n\n3. **Destructive interference deflates the peak.** Conversely, if L and R are out of phase (anti-correlated — common with wide stereo synth pads, some Haas-effect widening, or mid/side-processed material), the sum partially or fully cancels. A true peak of −0.5 dBFS can measure as −20 dBFS or lower. You'd then conclude the file has plenty of headroom when it actually clips on playback.\n\n4. **The measurement target is wrong.** Peak level is a property of the *delivered* signal — the stereo file the listener's DAC will actually convert. Measuring a mono fold-down answers a different question (\"what would this sound like on a mono speaker?\"), not \"does this file clip?\" Those are legitimately different questions, and only the second one matters for loudness-compliance checks, true-peak limiting verification, or delivery QC.\n\n5. **It also destroys inter-sample peak information.** Even ignoring the matrix, resampling/filtering during the channel-count change can alter sample values and mask or create inter-sample overs. If you're checking true peak (dBTP), you want to measure the original channel layout.\n\n**What to do instead:**\n\n- Measure peak on the untouched file: `ffmpeg -i in.wav -af astats=metadata=1:reset=0 -f null -` and read `Peak level dB` per channel, or use `ebur128` for true peak: `ffmpeg -i in.wav -filter_complex ebur128=peak=true -f null -`.\n- If you must fold down, do it *after* measurement, and use an explicit, documented matrix (`-af \"pan=mono|c0=0.5*c0+0.5*c1\"`) so the gain change is known and intentional.\n- For per-channel QC, check L and R separately — a file can be clean in one channel and clipping in the other, and a mono downmix hides exactly that.\n\nThe general principle: **never apply a lossy transform before a measurement whose whole purpose is to characterize the untransformed signal.** Downmixing is a creative/playback decision; peak measurement is a QC decision. Keep them separate.",
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 {
  "id": "T30",
  "target": "skill_playwright_test",
  "model": "deepseek-v4.1-flash",
  "condition": "index",
  "answer": "## What's causing the loop\n\nThis is the **stale CDP Chrome profile → SSO SDK infinite redirect loop**. It's documented as Pitfall #1 in the Playwright E2E skill, and it matches your symptoms exactly:\n\n> **Symptom:** Page oscillates between \"loading\" and \"signing in\" states; backend logs show repeated 401s.\n> **Cause:** The CDP Chrome `user-data-dir` contains session tokens from a previous test. The SSO SDK detects the old token, uses it, gets 401, refreshes, gets 401 again — infinite loop.\n\nThe mechanism, step by step:\n\n1. Chrome starts with a **reused `--user-data-dir`** that still holds cookies/localStorage from an earlier session — an old SSO token, an expired JWT, a stale `remember_user_token`, or a stale CSRF cookie.\n2. The SSO SDK on page load finds that token, treats it as a valid session, and skips interactive login — going straight to \"signing in\".\n3. The backend rejects the stale token → **401**.\n4. The SDK reads the 401 as \"token expired, refresh it\" and re-runs the silent auth/refresh path.\n5. The refresh either replays the same stale credential or fails to mint a new one, so the next request is 401 again.\n6. Loop: `loading → signing in → 401 → refresh → loading → …` forever. The page never reaches a terminal state, so `networkidle` never fires either.\n\nTwo related traps make this look like a product bug rather than a state bug:\n\n- **`networkidle` waits hang on SPAs** (Pitfall #2) — the refresh/polling traffic means the page never goes idle, so `goto` times out at 30s and you may misdiagnose it as a slow backend.\n- **A stale profile looks like a script bug** — repeated auth failures get blamed on the automation code instead of the browser state.\n\n## How to confirm it\n\nClassify the failure with diagnostics before changing any code:\n\n```bash\npw-test diagnose            # URL, title, referrer, body text, controls\npw-test storage             # cookies + localStorage — look for old SSO/JWT entries\npw-test url                 # stuck on the IdP, or on your app?\n```\n\nIf `storage` shows session cookies/JWTs whose `exp` is in the past, or IdP-domain cookies from a previous run, that's your confirmation. Also check whether the 401s in the backend log carry the **same** token value on every retry — a token that never changes across retries is the signature of a stale credential being replayed, not a fresh one being rejected.\n\n## The fix\n\n**1. Kill Chrome, wipe the profile, restart clean:**\n\n```bash\npkill -f \"remote-debugging-port=9222\"\nrm -rf /tmp/pw_debug_profile\n\"/Applications/Google Chrome.app/Contents/MacOS/Google Chrome\" \\\n  --remote-debugging-port=9222 --user-data-dir=/tmp/pw_debug_profile \\\n  --no-first-run --no-default-browser-check > /dev/null 2>&1 &\n```\n\nThen navigate and log in manually. SSO/OTP is a black box — do not try to automate the login itself.\n\n**2. In automation, never inherit a session.** Use a fresh context instead of attaching to a long-lived profile:\n\n```python\nbrowser = await p.chromium.launch()\ncontext = await browser.new_context()   # no inherited cookies/storage\n```\n\n**3. Use condition-based waits, not `networkidle`.** The `pw-test` CLI already uses `wait_until=\"domcontentloaded\"`; if you're writing raw Playwright, do the same, and wait on a concrete post-login selector or URL pattern:\n\n```bash\npw-test wait-for-url \"**/dashboard**\" 15000\npw-test wait-for-selector \"[data-testid=user-menu]\" visible 15000\n```\n\n**4. Clean up after every run** (acceptance criterion #6 of the E2E skill): kill Chrome and remove the `user-data-dir`, so the next run can't inherit the poisoned state.\n\n## If you actually *need* a persistent login\n\nIf the goal is a long-lived logged-in profile rather than a clean test run, don't fight the loop by hand — use the **session-keeper** pattern instead: a persistent profile at `~/.local/share/session-keeper/<site>/` (never `/tmp`, which a reboot destroys), one-time manual login, then passive header capture with **verify-before-write** against a read-only endpoint. Its failure modes are distinct and machine-readable (`no_cdp`, `no_captured_headers`, `verification_failed`), which is exactly what stops an \"error loop\" from masquerading as a product bug. And when `capture` keeps returning `no_captured_headers`, the correct human action is a one-time re-login in the managed window — surface that as a prompt, not a retry loop.\n\n## Quick triage checklist\n\n| Check | Command | Expected |\n|---|---|---|\n| Chrome running on CDP | `curl -s localhost:9222/json/version` | JSON, not connection refused |\n| Profile is fresh | `ls /tmp/pw_debug_profile` | empty / just recreated |\n| Stale tokens present | `pw-test storage` | no expired SSO/JWT cookies |\n| Page reached terminal state | `pw-test url` | app URL, not IdP or error page |\n| 401s carry changing tokens | backend log | token differs per retry (identical → stale replay) |\n\nThe single highest-value action: **`rm -rf` the user-data-dir and restart Chrome.** In the overwhelming majority of these cases that alone ends the loop.",
  "error": null,
  "opened": [
   "skill_session_keeper",
   "skill_playwright_test",
   "playwright_ajax_capture"
  ],
  "requested": [
   "skill_session_keeper",
   "skill_playwright_test",
   "playwright_ajax_capture"
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  "cost": 0.0222049,
  "web_tools": [],
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]