nWave/skills/nw-po-review-dimensions/SKILL.md
Requirements quality critique dimensions for peer review - confirmation bias detection, completeness validation, clarity checks, testability assessment, and priority validation
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When invoked in review mode, apply these critique dimensions to requirements documents.
Persona shift: from requirements analyst to independent requirements reviewer. Focus: detect confirmation bias | validate completeness | ensure clarity and testability. Mindset: fresh perspective -- assume nothing, challenge assumptions, verify stakeholder needs.
Return complete YAML feedback to calling agent for display to user.
Every user story MUST contain an ### Elevator Pitch subsection with three lines: Before / After / Decision enabled. The reviewer checks these invariants:
@infrastructure, the slice has no release value. BLOCKING at slice level — recommend re-slicing so that each slice contains at least one user-visible story.Return this dimension first in the YAML feedback. If any BLOCKING issue is found, the overall review verdict MUST be BLOCKED regardless of other dimensions.
Pattern: requirements assume specific technology without stakeholder requirement. Examples: "Deploy to AWS" when deployment not discussed | "Use PostgreSQL" in requirements instead of architecture. Detection: check for technology specifics (cloud, database, frameworks). Verify stakeholder interviews mentioned these. Severity: HIGH (constrains solution space unnecessarily).
Pattern: requirements focus on successful scenarios, minimal error/exception coverage. Examples: login documented but account lockout missing | payment success but fraud/timeout/decline not specified. Detection: count happy path stories vs error scenarios. Check each story has "sad path" alternatives. Severity: CRITICAL (incomplete requirements, production error handling missing).
Pattern: requirements reflect recent experiences or familiar patterns over comprehensive analysis. Examples: "Same auth as previous project" without validating fit | requirements mirror competitor without stakeholder validation. Detection: check if requirements justified by stakeholder needs or "like previous project." Severity: MEDIUM (sub-optimal solution, missed opportunities).
Stakeholder groups to verify: end users (primary, secondary, occasional) | business owners/sponsors | operations/support teams | compliance/legal | technical teams. Detection: list stakeholder groups in requirements, check each group's needs represented, verify conflicting needs documented. Severity: HIGH.
Required: invalid input validation | authentication/authorization failures | network timeouts | external service unavailability | data integrity violations | concurrent modification conflicts | resource exhaustion. Detection: for each user story, check for corresponding error scenarios. Severity: CRITICAL.
NFRs to validate: performance (latency, throughput) | security (auth, data protection) | scalability (concurrent users, data volume) | reliability (uptime, error rates) | compliance (regulatory, legal) | accessibility (WCAG). Detection: check NFR section exists, each NFR has measurable criteria, stakeholders provided expectations. Severity: CRITICAL.
Pattern: qualitative terms without quantitative thresholds. Vague: "System should be fast" | "User-friendly interface" | "Handle large volumes" | "Highly available." Detection: identify qualitative adjectives (fast, large, friendly, high, secure). Check for corresponding quantitative threshold. Severity: HIGH.
Pattern: requirements interpretable multiple ways. Detection: check if two architects could design differently from same requirements. Look for multi-meaning words. Verify pronouns have clear antecedents. Severity: HIGH.
Pattern: AC not observable, measurable, or automatable. Bad: "System should be easy to use" | "Code should be maintainable." Good: "User completes checkout in 3 or fewer clicks, 95% success rate" | "Cyclomatic complexity at most 10, test coverage at least 80%." Detection: for each AC, ask "Can an automated test verify this?" Check if AC specifies observable behavior with measurable pass/fail. Severity: CRITICAL.
Q1: Is this the largest bottleneck? Does timing data show this is the primary problem? Is there a larger problem being ignored?
Q2: Were simpler alternatives considered? Does the document include rejected alternatives? Are rejection reasons evidence-based?
Q3: Is constraint prioritization correct? Are user-mentioned constraints quantified by impact? Is a minority constraint dominating the solution?
Q4: Is the approach data-justified? Is the key decision supported by quantitative data? Would different data lead to different approach?
review_id: "req_rev_{YYYYMMDD_HHMMSS}"
reviewer: "product-owner (review mode)"
artifact: "{document path}"
iteration: {1 or 2}
strengths:
- "{Positive aspect with specific example}"
issues_identified:
confirmation_bias:
- issue: "{Specific bias detected}"
severity: "critical|high|medium|low"
location: "{Section or US-ID}"
recommendation: "{How to address}"
completeness_gaps:
- issue: "{Missing stakeholder/scenario/NFR}"
severity: "critical|high"
location: "{Section}"
recommendation: "{What to add}"
clarity_issues:
- issue: "{Vague or ambiguous requirement}"
severity: "high"
location: "{Requirement ID}"
recommendation: "{How to clarify}"
testability_concerns:
- issue: "{Non-testable AC}"
severity: "critical"
location: "{AC-ID}"
recommendation: "{How to make testable}"
priority_validation:
q1_largest_bottleneck: "YES|NO|UNCLEAR"
q2_simple_alternatives: "ADEQUATE|INADEQUATE|MISSING"
q3_constraint_prioritization: "CORRECT|INVERTED|NOT_ANALYZED"
q4_data_justified: "JUSTIFIED|UNJUSTIFIED|NO_DATA"
verdict: "PASS|FAIL"
approval_status: "approved|rejected_pending_revisions|conditionally_approved"
critical_issues_count: {number}
high_issues_count: {number}
testing
Acceptance test creation methodology for the DISTILL wave. Domain knowledge for the acceptance designer agent: port-to-port principle, prior wave reading, wave-decision reconciliation, graceful degradation, and document back-propagation.
development
Cross-agent collaboration protocols, workflow handoff patterns, and commit message formats for TDD/Mikado/refactoring workflows
development
Creates a phased roadmap.json for a feature goal with acceptance criteria and TDD steps. Use when planning implementation steps before execution.
testing
Acceptance test creation methodology for the DISTILL wave. Domain knowledge for the acceptance designer agent: port-to-port principle, prior wave reading, wave-decision reconciliation, graceful degradation, and document back-propagation.