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Use when entering Refinement phase of epic-stage-workflow - guides user testing, feedback incorporation, and iteration
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Baseado na classificação ocupacional SOC
Use when creating new projects requiring structured phased development, bootstrapping epic/stage hierarchy, creating new epics, or creating new stages.
Use when implementing or working on existing epics and stages, after running /next_task, during Design/Build/Refinement/Finalize phases, or when session protocols apply.
Use when reviewing learnings and journal entries to identify improvement opportunities across skills, documentation, and processes
Use when entering Build phase of epic-stage-workflow - guides implementation planning, code writing, and verification
Use when entering Design phase of epic-stage-workflow - guides task discovery, context gathering, and approach selection
Use when entering Finalize phase of epic-stage-workflow - guides code review, testing, documentation, and final commits
| name | phase-refinement |
| description | Use when entering Refinement phase of epic-stage-workflow - guides user testing, feedback incorporation, and iteration |
The Refinement phase validates the implementation through user testing. It ensures the feature works correctly across viewports (frontend) or integration scenarios (backend).
epic-stage-workflow skill has been invoked (shared rules loaded)Refinement verifies "does this work in reality?" not "does this compile?" (that's Build's job).
What to validate: Visual correctness and responsive behavior How:
Example: Stats cards component
What to validate: Integration with real data and dependencies How:
Example: New API endpoint
Anti-pattern: Re-running unit tests and type-check (Build already did this)
What to validate: Actual feature behavior through manual command execution How:
Example: New CLI flag for filtering output
tool list --filter activeAnti-pattern: "Unit tests pass, so CLI works" - Tests verify parameters are PASSED, not APPLIED Critical insight: Parameter acceptance ≠ Parameter application (see game-master pattern)
What to validate: Completeness and accuracy How:
Example: Component documentation
Anti-pattern: Looking for functionality to test (docs don't have functionality)
What to validate: End-to-end workflow with real usage How:
Example: New build script
Build = "Does the code work?" (types, tests, lint) Refinement = "Does it work in the real world?" (integration, data, viewports)
If you find yourself just re-running Build's verification commands, you're missing Refinement's purpose.
IF YOU ARE THINKING ANY OF THESE THOUGHTS, YOU ARE VIOLATING THE RULE:
| Thought | Why You're Wrong |
|---|---|
| "This change is mobile-specific CSS" | STOP - analyzing scope means you're rationalizing |
| "Desktop won't be affected technically" | STOP - technical analysis is irrelevant to this rule |
| "Desktop was approved before the change" | STOP - timing doesn't matter |
| "The CSS only targets mobile breakpoints" | STOP - CSS scope doesn't matter |
| "It's just padding, not a layout change" | STOP - change severity doesn't matter |
| "Only the changed viewport needs re-test" | STOP - you misunderstand the rule |
Self-Check Question: Did you just analyze whether a code change will "affect" a viewport? If yes, you are rationalizing. The rule doesn't care about your analysis.
if (ANY_code_changed_during_refinement) {
reset_BOTH_viewport_approvals();
require_re_test_for_BOTH_viewports();
}
There are ZERO exceptions based on:
Why no exceptions:
This is a WORKFLOW rule, not a technical rule. It exists to ensure comprehensive testing coverage regardless of what you think the technical impact is.
When resuming Refinement in a new session:
Check for code changes since last session:
git log --oneline <last-session-commit>..HEAD
git status --porcelain
Read stage file to check viewport state from previous session
If code has CHANGED (new commits OR uncommitted changes):
If code is CLEAN (no commits since last session, no uncommitted changes):
Why mandatory git check: Between sessions, teammates may push changes, dependencies may update, or local edits may occur. Trusting stale approvals without verification risks shipping untested code.
If you make ANY code change in this session (even to fix an approved viewport):
If you have NOT made any code changes yet:
The viewport reset rule applies across session boundaries. Previous-session approvals are convenience, not guarantees.
Even if user is watching you test both viewports live:
The rule is about workflow consistency, not trust.
| Thought | Why You're Wrong |
|---|---|
| "User saw it working before the change" | Approval is for code STATE, not visual memory |
| "We never left the session" | Session continuity doesn't override reset rule |
| "User confirmed visually" | Visual ≠ explicit approval via workflow |
Formal approval workflow:
Timing matters:
NOT formal approval:
Multi-viewport approval:
Approval lifecycle:
Re-approval after retraction:
Batch approval after retractions:
State after cascading retractions:
Example: approve → retract → approve → retract → "approve both"
If user wants to skip re-testing:
Why this matters:
CRITICAL: Any code change during Refinement resets the OTHER viewport's approval!
No exceptions. Ever.
Scenario:
Rule: Treat this identically to both viewports being reset. Test Desktop first (again), then Mobile.
Why: The code state Desktop was approved against no longer exists. Both viewports must be validated against the new code state.
When encountering errors during Refinement phase, select the appropriate debugger:
| Error Type | Start With | Escalate To |
|---|---|---|
| Runtime errors (null ref, type errors at runtime) | debugger-lite (Sonnet) | - |
| Test failures with clear stack traces | debugger-lite (Sonnet) | debugger if 2+ attempts fail |
| Build/compilation errors | debugger (Opus) | - |
| Toolchain issues (bundler, transpiler, loader) | debugger (Opus) | - |
| Module resolution / import errors | debugger (Opus) | - |
| CI/environment configuration | debugger (Opus) | - |
Escalation trigger: If debugger-lite fails to identify root cause after 2 attempts, escalate to debugger (Opus).
Common Rationalizations (All Invalid):
| Rationalization | Reality |
|---|---|
| "Config errors are straightforward" | Toolchain subtleties (path resolution, loader config) need Opus-level reasoning |
| "Module resolution is just config" | Bundler/transpiler interactions are complex - use Opus |
| "I'll try debugger-lite one more time" | After 2 failures, escalate - more of the same won't work |
| "Opus is overkill" | Wasted cycles with wrong agent costs more than using Opus upfront |
Pattern from journal: debugger-lite missed compiler/tooling issues that required Opus-level analysis.
1. User tests Desktop viewport
2. User reports any issues
3. [IF issues] → Delegate to debugger-lite/debugger → Delegate to fixer → Delegate to verifier
4. [LOOP until Desktop approved]
5. User tests Mobile viewport
6. User reports any issues
7. [IF issues] → Delegate to debugger-lite/debugger → Delegate to fixer → Delegate to verifier
8. [LOOP until Mobile approved]
9. Delegate to doc-updater (Haiku) to update tracking documents:
- Mark Refinement phase complete in STAGE-XXX-YYY.md
- Update stage status in epic's EPIC-XXX.md table (MANDATORY)
- Add regression items to epic's epics/EPIC-XXX/regression.md
1. Delegate to e2e-tester (Sonnet) to design and run API/integration tests
2. [IF issues found] → Delegate to debugger-lite/debugger → Delegate to fixer → Delegate to verifier
3. [LOOP until e2e-tester passes]
4. Delegate to doc-updater (Haiku) to update tracking documents:
- Mark Refinement phase complete in STAGE-XXX-YYY.md
- Update stage status in epic's EPIC-XXX.md table (MANDATORY)
- Add regression items to epic's epics/EPIC-XXX/regression.md
Use this workflow when the stage adds or modifies CLI commands, flags, or behavior.
1. Manual CLI Testing (REQUIRED - cannot be automated):
a. Identify all CLI commands/flags added or modified in this stage
b. For each command/flag:
- Execute command with realistic inputs
- Verify output matches expectations
- Test edge cases (empty input, invalid values, missing required args)
- Verify help text is accurate and helpful
c. Parameter Application Verification:
- Run command WITHOUT new parameter → capture baseline behavior
- Run command WITH new parameter → verify behavior CHANGED
- Compare outputs to confirm parameter was APPLIED, not just accepted
**Edge Case Testing (REQUIRED for each parameter):**
- Empty/null inputs: How does parameter behave with no data?
- Invalid values: Does parameter reject bad input gracefully?
- Boundary conditions: Min/max values, length limits, etc.
- Combination conflicts: Does parameter work with other flags?
- Error messages: Are errors helpful and accurate?
**Common "Simple Parameter" Rationalization:**
| Thought | Why You're Wrong |
|---------|------------------|
| "It's just a formatting flag" | Format bugs can break pipelines/scripts |
| "Edge cases are unlikely" | Production always hits unlikely cases |
| "I tested the happy path" | Happy path ≠ comprehensive validation |
| "No business logic changed" | Output layer bugs are still bugs |
**Anti-pattern Alert:**
- "Unit tests pass" → Tests verify code execution, NOT actual CLI behavior
- "Parameter is accepted" → Acceptance ≠ Application (game-master pattern)
- "Help text is correct" → Documentation ≠ Functionality
**Real example from baseline testing:**
- Stage 4.3 added --verbose flag
- Unit tests passed (flag parsing worked)
- Manual testing revealed: verbosity parameter was PASSED but NOT APPLIED
- Output was identical with/without flag
2. [IF issues found] → Report to user with examples:
- Expected behavior: [command output]
- Actual behavior: [command output]
- Delegate to debugger-lite/debugger for investigation
- Delegate to fixer for implementation
- Delegate to verifier for build verification
- RETURN TO STEP 1 (manual CLI testing is REQUIRED after fixes)
3. [LOOP until user approves CLI behavior]
**What "User Approval" Means for CLI:**
User approval requires ONE of these outcomes for each tested scenario:
**Option A: Test passes** → Behavior matches expectation
**Option B: User waives test** → Explicit documented waiver
- User states: "I waive [specific scenario] because [reason]"
- Agent documents in stage file: "Waived: `tool generate --format pdf` (PDF library not installed, user confirmed non-critical)"
- Waiver is NOT approval of functionality - it's documented risk acceptance
**Option C: User approves degraded behavior** → Feature intentionally limited
- Example: "PDF format not supported in this release"
- Update help text to reflect limitation: `--format (json|xml)` (remove pdf)
- User approves accurate help text
**INVALID "Approval":**
| Statement | Why This Doesn't Count as Approval |
|-----------|-------------------------------------|
| "PDF isn't critical" | Doesn't address whether test should pass or be waived |
| "Just document it" | Ambiguous - document as bug? limitation? known issue? |
| "Environment issue, not our problem" | Dependencies are part of the product experience |
| "We'll fix it later" | Not a Refinement resolution - either fix now or formally waive |
**Environment Issues Require Decision:**
- Missing dependency is a **bug** if tool requires it but doesn't check for it
- Missing dependency is a **limitation** if tool gracefully handles absence
- Agent must present both options to user - never assume "environment issue" = skip test
4. Delegate to doc-updater (Haiku) to update tracking documents:
- Mark Refinement phase complete in STAGE-XXX-YYY.md
- Update stage status in epic's EPIC-XXX.md table (MANDATORY)
- Add CLI regression items to epic's epics/EPIC-XXX/regression.md
(e.g., "Run `tool command --flag value` and verify output contains X")
Why Manual CLI Testing Cannot Be Skipped:
Unit tests verify code paths, not user experience
parseArgs(['--verbose']) → Returns {verbose: true} ✅tool --verbose → No verbose output 🚫Integration tests verify components work together, not that parameters are applied
handler.execute({verbose: true}) → Calls logger.verbose() ✅tool --verbose → Logger not configured to show verbose messages 🚫The CLI is the user interface for your tool
CLI Testing Is Equivalent to Frontend Viewport Testing:
Common Rationalization Patterns (All Invalid):
| Rationalization | Why You're Wrong |
|---|---|
| "Tests are passing, CLI must work" | Tests verify code execution, not parameter application |
| "I just need to run it once to confirm" | That IS manual testing - do it systematically |
| "The parameter is definitely being used" | Prove it: show output WITH and WITHOUT parameter |
| "This is simple, nothing to test manually" | Simple code often has simple bugs in wiring |
| "Manual testing is for complex features" | Manual testing is for USER-FACING features (CLI is user-facing) |
| "I'll just spot-check one command" | Spot-checking misses wiring bugs in other commands |
For backend-only stages (no frontend changes), use this 4-scenario validation approach to ensure comprehensive coverage:
1. Existing Tests
2. Direct Service-Layer Interaction
curl -X POST http://localhost:3001/api/activity-logs3. Frontend Layer Interaction
4. Full Flow Verification
Why all 4 scenarios matter:
Edge Case: Internal Refactors (no API changes) When the change is purely internal (same API contract, different implementation):
Under time pressure: All 4 scenarios are still required. Each takes 2-5 minutes. Skipping a layer creates risk of production issues that take hours to debug.
Use this workflow when the stage ONLY produces documentation (markdown files, guides, READMEs) with NO code changes.
1. Detect documentation type and verification requirements:
**When Does Automated Verification Apply?**
Documentation stage requires automated verification if it contains ANY of:
- Environment variable names (even in examples)
- Command-line commands (even partial/simplified)
- Class, function, or method names (even in conceptual examples)
- File paths or directory structures
- Configuration values or formats
- Technical claims about behavior ("this is safe", "this will restart")
**Exclusions (explicit opt-out only):**
- Design documents explicitly marked "Future API - Not Yet Implemented"
- Pedagogical examples using obviously fictional names (`ExampleService`, `DemoClass`)
- Both require clear labeling and disclaimer boxes
**Decision:**
- If ANY of above present → Automated verification REQUIRED (step 1a)
- If pure conceptual/process docs with NO technical references → Skip to step 2
1a. [IF code references exist] Spawn general-purpose subagent for automated accuracy verification:
Prompt: "Run automated documentation accuracy verification:
**MANDATORY CROSS-REFERENCE CHECKS:**
**Verification Completeness (ALL means 100%):**
When instructions say "ALL" or "EACH":
- ALL = 100% of items, not "main ones" or "important ones"
- EACH = every single instance, no shortcuts, no sampling
- Complete verification or no verification
**Rationalization check:**
- Thinking "I'll verify the main classes"? → STOP. ALL means ALL.
- Thinking "Most examples checked"? → STOP. 100% or nothing.
- Thinking "I'll spot-check a few"? → STOP. EACH means EACH.
For each documented class/function/type in [list docs files]:
1. Extract ALL class names, function names, type names from documentation
- "ALL" means 100% of items mentioned, regardless of perceived importance
- No skipping "minor" utilities or "obvious" examples
2. Grep codebase to verify EACH exists in actual source files
- Use Grep tool or ripgrep (not manual review)
- Search for exact names, including case sensitivity
3. For EACH code example (not spot-checking, not sampling):
- Extract imports and verify modules/files exist (Read tool)
- Extract function calls and verify methods exist on documented classes (Grep + Read)
- Extract type signatures and compare against actual source code (Read source files)
4. List all discrepancies:
- Classes referenced but not found in codebase
- Methods documented with wrong signatures (including parameter names, order, types)
- Type definitions that don't match actual types
- Code examples importing non-existent modules
- Properties documented but not present on actual classes
**VERIFICATION COMPLETENESS:**
- Class references: Class exists AND is exported/public
- Method references: Method exists AND signature matches (params, order, types)
- Function calls: Function exists AND example usage would compile/run
- Commands: Command exists in package.json AND subcommands/flags are valid
- Env vars: Variable referenced in .env.example or code
**Partial verification = incomplete:**
- Verifying class exists but not method signatures = INCOMPLETE
- Spot-checking 4 of 15 examples = INCOMPLETE
- Manual review without Grep/Read tool calls = NOT verification
**HOW TO VERIFY (AUTOMATED TOOLS REQUIRED):**
- REQUIRED: Use Grep tool to search for class/function definitions
- REQUIRED: Use Read tool to check actual signatures in source files
- REQUIRED: Compare documented signatures against actual source line-by-line
- Manual review (reading and thinking) is NOT verification
**Time estimate:** 10 items = ~5 minutes (30 sec each). Faster than debugging 1 wrong env var (30+ min).
Return detailed report:
- Total items checked (classes, functions, types, commands, env vars)
- Issues found (with line numbers in docs + source file references)
- Severity: MAJOR (doesn't exist) vs MINOR (signature mismatch)
- Tool usage: List Grep/Read commands used (proves automated verification)
**DO NOT rationalize:**
- 'Looks plausible' is NOT verification
- Markdown compiling is NOT accuracy verification
- Manual review is NOT sufficient for code references
- 'I verified the main classes' is NOT complete (verify ALL)
- 'These are conceptual examples' does NOT bypass verification (if they use real names, verify them)
- 'Code doesn't exist yet' requires 'TO BE VERIFIED' markers, not skipping verification"
2. [IF no automated verification OR after verification complete] Spawn general-purpose subagent for usability review:
Prompt: "Review this documentation for:
1. Readability: Clear language, appropriate technical level
2. Completeness: All promised sections present, no TODOs
3. Structure: Logical flow, good use of headings/lists
4. Links: All URLs/cross-references work
Files to review: [list documentation files from this stage]
Return a review report with specific issues found and severity (minor/major)."
3. User shares feedback:
- Present verification + usability findings to user
- If automated verification ran: "Accuracy verification: [N] classes checked, [X] issues found"
- Usability review: "[N] issues ([X] major, [Y] minor)"
- Ask: "Ready to review findings together?"
- User provides feedback on:
* Which issues to fix
* Additional concerns from their reading
* Content accuracy from domain knowledge
4. [IF issues found] → Spawn doc-updater with specific fix instructions
- Fix class/method/type references (from automated verification)
- Correct code example imports
- Update type signatures to match source
- Address missing sections
- Fix formatting issues
- Verify fixes with user
- **MANDATORY RE-VERIFICATION:** After making ANY changes to technical content:
**Re-Verification After Changes:**
| Change Type | Re-Verification Required? |
|------------|---------------------------|
| Typo fixes (spelling/grammar only) | NO - original verification still valid |
| Rewording for clarity (same technical content) | NO - original verification still valid |
| Restructuring sections (moving content around) | NO - original verification still valid |
| Changed env vars, commands, or code samples | YES - full re-verification required |
| Added new examples/sections with code references | YES - verify NEW content only |
**Verification of Fixes:**
When you fix an error found in verification, re-verify the fix:
- Example: Changed `DATABASE_CONNECTION` to `DATABASE_URL`
- Required: Re-grep codebase to confirm `DATABASE_URL` is correct (typo-check your fix)
- Why: You might misread codebase or typo the fix - 30 seconds to re-verify prevents shipping different wrong value
- Repeat until verification passes (0 issues)
5. Final confirmation:
- Ask user: "Documentation review complete. All issues addressed. Ready to move to Finalize phase?"
- Wait for explicit approval before exiting Refinement
6. Delegate to doc-updater (Haiku) to update tracking documents:
- Mark Refinement phase complete in STAGE-XXX-YYY.md
- Update stage status in epic's EPIC-XXX.md table (MANDATORY)
- Add documentation verification items to epic's epics/EPIC-XXX/regression.md
(e.g., "Verify [feature] documentation still exists and is accurate")
Common Documentation Stage Patterns:
Edge Cases:
Documenting future/unimplemented code:
## Database Setup
<!-- TO BE VERIFIED: Once auth service is implemented (Stage 3.2) -->
Set the following environment variables:
- `AUTH_SERVICE_URL` (verify actual env var name)
- `AUTH_SECRET_KEY` (verify actual env var name)
Tutorial/teaching documentation with pedagogical examples:
ExampleService, DemoController, not UserService)> **Note:** This example uses simplified fictional code for teaching.
> For production API documentation, see `/docs/api-reference/`.
Common Rationalizations (All Invalid):
| Rationalization | Reality |
|---|---|
| "Markdown compiled without errors - it's accurate" | Markdown syntax ≠ API accuracy |
| "It's just documentation, not code" | Wrong docs are worse than no docs |
| "Examples look plausible" | Visual inspection misses 80% of accuracy bugs |
| "'Accuracy' review done manually" | Manual review can't catch non-existent class references |
| "We're behind schedule, ship it" | Inaccurate docs create support burden (30+ min per wrong env var) - verification takes 5 min total |
| "Users will adapt examples" | Users copy-paste and expect examples to work |
| "I'll verify the main classes, skip utilities" | Author likely copy-pasted utilities too - verify ALL (takes same 30 sec per item) |
| "I'll spot-check 4 examples, rest are probably fine" | Documentation errors cluster - one wrong means others may be wrong |
| "Class names are just conceptual, not real API" | If using real-sounding names, verify they exist (users will search for them) |
| "Automated verification takes too long" | 10 items = 5 minutes. Debugging 1 wrong env var = 30+ minutes. |
| "I'll do manual scan instead, faster" | Manual scan misses 60% of errors. Grep never misses. |
| "User approved the content already" | User approved structure/clarity. Verification checks technical accuracy (different concern). |
Pattern from meta-insights (game-master, 2 occurrences):
CLI Detection Logic (parallel to Frontend detection):
Check for CLI indicators:
bin/ directory existspackage.json has bin fieldsrc/cli.ts, cmd/, cli/)If CLI exists → CLI testing is REQUIRED before claiming Refinement complete
Mixed Projects (Frontend + CLI in same project):
Rationalization Alert:
| Thought | Why You're Wrong |
|---|---|
| "Frontend is more important, CLI can wait" | Both are user-facing, both require validation before Refinement complete |
| "User only cares about Frontend right now" | Urgency doesn't override testing requirements |
| "I'll do CLI testing in next session" | Refinement is atomic - complete all validations before exit gate |
| "CLI changes are small, low risk" | Risk assessment doesn't determine testing requirements |
What counts as "code changes":
Common rationalization to avoid: "I only changed comments, not real code" → Comments in source files ARE code changes. Use Backend/Frontend/CLI workflow, not Documentation-Only.
IF USER SAYS: "We're behind schedule" / "Just ship it" / "Go fast" / "Skip the formality"
YOU MUST STILL:
Time pressure is not a workflow exception. Fast delivery comes from efficient subagent coordination, not from skipping safety checks. Exit gates take 2-3 minutes total.
Before proceeding to Finalize phase, you MUST complete these steps IN ORDER:
lessons-learnedjournalWhy this order?
Lessons and journal need the full phase context, including final status updates. Running them before status updates means they lack complete information.
After completing all exit gate steps, use Skill tool to invoke phase-finalize to begin the next phase.
DO NOT skip any exit gate step. DO NOT proceed until all steps are done.
DO NOT proceed to Finalize phase until exit gate is complete. This includes:
Complete ALL exit gate steps FIRST. Then invoke phase-finalize.