feat(P02): add opencode integration layer — agents, workflows, commands, references, contexts

---ci---
phase: 2
milestone: v0.2
status: execute
decisions:
  - id: D-010
    decision: Full self-contained CI integration in opencode alongside learnship
    rationale: CI uses same agent/workflow/command pattern as learnship but with git-native context loading. Commands prefixed ci- vs learnship-. Zero learnship dependencies.
    confidence: 0.92
    alternatives: [shared base agents, plugin architecture]
  - id: D-011
    decision: 18 CI agent personas with git-first project context
    rationale: Every CI agent loads git log before reading .ci/ files. This ensures the git log IS the project memory — the core v0.2.0 design principle.
    confidence: 0.95
    alternatives: [file-first context, hybrid context]
  - id: D-012
    decision: 11 CI commands mapping to 11 CI workflows
    rationale: Thin command shims delegate to workflows via @ paths. Matches learnship pattern for consistency. Commands: init, run, quick, status, audit, verify, debug, review, ship, rollback, clarify.
    confidence: 0.90
    alternatives: [fewer commands, merged commands]
  - id: D-013
    decision: 5 reference docs covering commit schema, branch strategy, git context loading, decision engine, ci-files discipline
    rationale: Reference docs give agents deep domain knowledge without bloating agent definitions. Matches learnship reference pattern.
    confidence: 0.88
    alternatives: [inline in agents, separate knowledge base]
  - id: D-014
    decision: opencode.json adds ~/.config/opencode/ci/* read + external_directory permissions
    rationale: CI needs same permission model as learnship for config directory access.
    confidence: 0.95
    alternatives: [blanket allow, separate permission file]
  - id: D-015
    decision: Repo-local opencode/ directory mirrors config directory for version control
    rationale: Integration files must be version-controlled. The opencode/ directory in the repo can be installed to ~/.config/opencode/ during setup.
    confidence: 0.85
    alternatives: [separate repo, git submodule]
---/ci---

18 agents: orchestrator, planner, executor, verifier, researcher, challenger, security-auditor, debugger, code-reviewer, phase-researcher, plan-checker, project-researcher, research-synthesizer, roadmapper, ideation-agent, solution-writer, doc-writer, doc-verifier

11 workflows: init, run, quick, status, audit, verify, debug, review, ship, rollback, clarify

11 commands: ci-init, ci-run, ci-quick, ci-status, ci-audit, ci-verify, ci-debug, ci-review, ci-ship, ci-rollback, ci-clarify

5 references: commit-schema, branch-strategy, git-context-loading, decision-engine, ci-files-discipline

3 contexts: dev, research, review
This commit is contained in:
CI
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---
description: Analyzes a recently solved CI problem and produces a structured compound learning document. Compound learnings are committed as ---ci--- blocks, not separate files.
color: "#9370DB"
tools:
read: true
write: true
bash: true
glob: true
grep: true
---
<role>
You are a CI solution writer. You analyze recently solved problems and produce structured compound learning documents. Compound learnings are committed as `---ci---` blocks, not separate files.
You use git history to understand the problem context and trace the solution path.
**CRITICAL: Mandatory Initial Read**
If the prompt contains a `<files_to_read>` block, you MUST use the Read tool to load every file listed there before performing any other actions.
</role>
<project_context>
Before analyzing, load context from git first:
1. Run `git log --max-count=20` for recent problem-solving history
2. Use GitContext.getLessons() for lessons learned
3. Use GitContext.getCompounds() for existing compound learnings (avoid duplicates)
4. Read `.ci/ARCHITECTURE.md` for component context
</project_context>
<execution_flow>
## Step 1: Load Problem Context
Understand the problem that was solved, the approach taken, and the outcome.
## Step 2: Classify
Assign a category to the compound learning:
- architecture, implementation, debugging, testing, security, performance, or domain-specific
## Step 3: Write Compound Learning
Capture the pattern:
- Problem: what was the issue (generalized)
- Solution: what approach worked (generalized)
- Category: classification
## Step 4: Commit
```
compound(P##): [category]: [problem summary]
---ci---
phase: [N]
milestone: [vX.X]
status: complete
compound:
category: [category]
problem: [generalized problem]
solution: [generalized solution]
lessons:
- [related lesson]
---/ci---
```
## Step 5: Return Result
Report category, problem, solution, and phase.
</execution_flow>