skf-setup

name	skf-setup
description	Initialize forge environment, detect tools, and set capability tier (Quick/Forge/Forge+/Deep). Use when the user requests to "set up" or "initialize the forge".

Setup Forge

Overview

Initializes the forge environment by detecting available tools, determining the capability tier (Quick/Forge/Forge+/Deep), and writing persistent configuration to {project-root}/_bmad/_memory/forger-sidecar/. When ccc (cocoindex-code) is available, also augments .cocoindex_code/settings.yml with SKF exclusion patterns and creates or refreshes the project's semantic-search index. On Deep tier, reconciles the QMD collection registry; whenever ccc is available, reconciles the CCC index registry as well.

Conventions

• Bare paths (e.g. references/<name>.md) resolve from the skill root.
• references/ holds prompt content carved out of SKILL.md — workflow stages chained via frontmatter nextStepFile, plus static reference docs.
• Deterministic work is delegated to shared Python helpers under src/shared/scripts/ (installed as _bmad/skf/shared/scripts/). Each step's frontmatter declares a *ProbeOrder array for the helpers it needs: run the first path in the array that exists, and halt if none resolve — the script owns that logic, with no prose fallback.
• {skill-root} resolves to this skill's installed directory (where customize.toml lives, if present).
• {project-root}-prefixed paths resolve from the project working directory.
• {skill-name} resolves to the skill directory's basename.

Role

You are a system executor performing environment resolution. Run each step in sequence, write configuration files, and report results at completion.

Workflow Rules

• Only load one step file at a time — never preload future steps.
• Communicate in {communication_language}.
• If {headless_mode} is true, or if {orphan_action} is non-null, auto-resolve the step 3 orphan-removal gate non-interactively and log the decision.

Stages

#	Step	File
1	Detect Tools & Set Tier	references/detect-and-tier.md
1b	CCC Index (only when ccc is available)	references/ccc-index.md
2	Write Config	references/write-config.md
3	QMD + CCC Registry Hygiene	references/auto-index.md
4	Report	references/report.md
5	Workflow Health Check	references/health-check.md

Invocation Contract

Aspect	Detail
Inputs	(none)
Flags	--headless / -H (skip prompts, auto-resolve gates to defaults); --require-tier=<Quick|Forge|Forge+|Deep> (halt with failure if calculated tier does not satisfy the requirement); --orphan-action=<keep|remove> (resolve the orphan-removal gate non-interactively, even outside --headless); --ccc-skip-index (skip CCC indexing; envelope ccc_index.status becomes "skipped" — the fast re-probe lane for an expert re-running only to refresh the detected tier without paying the full ccc re-index cost); --quiet (suppress the human-readable FORGE STATUS banner — pipelines and expert re-runners get the envelope only)
Gates	One optional: orphaned QMD collection removal (step 3, Deep tier only; default: Keep, or whatever --orphan-action set)
Outputs	forger-sidecar/forge-tier.yaml, forger-sidecar/preferences.yaml, {forge_data_folder}/; when ccc is available, .cocoindex_code/settings.yml (exclusion patterns merged) and the project ccc index
Headless	All gates auto-resolve with default action when {headless_mode} is true. Under --headless or --quiet, step 4 emits a single-line SKF_SETUP_RESULT_JSON: {…} envelope as the only stdout line — the FORGE STATUS banner is suppressed. Branch on the envelope's top-level status field: success, tier_failure (require-tier miss), or blocked (any pre-report halt — the error.phase names the cause). skf-emit-result-envelope.py derives status from the payload, so pipelines never compose it from require_tier_satisfied + error. Schema in references/report.md §4.
Failure modes	--require-tier not satisfied → status tier_failure, the envelope sets "require_tier_satisfied": false, and the workflow halts before step 5 (interactive runs also print a "REQUIRED TIER NOT MET" block). A write failure (forge-tier.yaml or preferences.yaml could not be written) halts step 2 with a blocked envelope whose error.phase (step 2:write-tools or step 2:init-prefs) and error name the path and reason.

On Activation

Halt contract for headless/quiet runs. Any halt below must first emit a blocked envelope when {headless_mode} or {quiet_mode} is true, before printing the human diagnostic — a pipeline observer that sees no envelope treats the run as not-completed-cleanly. Pipe {"phase":"<phase>","reason":"<reason>","path":"<path>"} to python3 <helper> emit-blocked where <helper> is the first existing path of {project-root}/_bmad/skf/shared/scripts/skf-emit-result-envelope.py then {project-root}/src/shared/scripts/skf-emit-result-envelope.py. The emit-blocked subcommand declares zero dependencies (no uv, no pyyaml), so it works even when uv itself is the thing that's missing.

1. Parse invocation flags first (so every halt below knows whether to emit an envelope): {headless_mode} (true on --headless / -H), {require_tier} (--require-tier=<Quick|Forge|Forge+|Deep>, case-sensitive; null if absent or unparseable), {orphan_action} (--orphan-action=<keep|remove>; null if absent), {ccc_skip_index} (true on --ccc-skip-index), {quiet_mode} (true on --quiet).

2. Probe uv runtime. Run uv --version. Every step invokes shared Python helpers via uv run (PEP 723 inline metadata auto-resolves pyyaml). If uv is missing, halt with phase on-activation:uv-missing and the human diagnostic:

   "Setup cannot proceed: uv is not installed. SKF helpers depend on uv to auto-resolve their Python dependencies. Install it from https://docs.astral.sh/uv/getting-started/installation/ and re-run /skf-setup."

3. Load config from {project-root}/_bmad/skf/config.yaml and resolve project_name, output_folder, user_name, communication_language, document_output_language, skills_output_folder, forge_data_folder, sidecar_path. Halt with phase on-activation:config-missing if the file does not exist, or on-activation:config-malformed if the YAML is invalid, with the matching human diagnostic.

4. Reconcile {headless_mode} with preferences.yaml: OR the parsed flag with headless_mode: true from the YAML.

5. Resolve workflow customization. Run:

   python3 {project-root}/_bmad/scripts/resolve_customization.py \
       --skill {skill-root} --key workflow
   

   The script merges the three customization layers per bmad-customize's structural merge rules (scalars override, arrays append): {skill-root}/customize.toml (bundled defaults), _bmad/custom/<skill-name>.toml under {project-root} (team overrides, committed), and _bmad/custom/<skill-name>.user.toml under {project-root} (personal overrides, gitignored). If the script fails or is missing, fall back to reading {skill-root}/customize.toml directly.

   Apply the resolved values so the surface is not a silent no-op: execute each entry in workflow.activation_steps_prepend in order now (org-wide pre-flight checks such as auth, network, or compliance); treat every entry in workflow.persistent_facts as standing context for the whole run (file:-prefixed entries are paths or globs whose contents load as facts); stash {onCompleteCommand} ← workflow.on_complete (empty string = no-op) for references/report.md §5 to invoke at the terminal stage. After activation completes, execute each entry in workflow.activation_steps_append in order, before the first stage runs.

6. Execute references/detect-and-tier.md.