smithery/axiomantic

reviewing-design-docs

Use when reviewing design documents, technical specifications, architecture docs, RFCs, ADRs, or API designs for completeness and implementability.

Installation

$ npx skills add smithery/axiomantic --skill reviewing-design-docs

Summary

  • Use when reviewing design documents, technical specifications, architecture docs, RFCs, ADRs, or API designs for completeness and implementability.
  • Triggers: 'review this design', 'is this spec complete', 'can someone implement from this', 'what's missing from this design', 'review this RFC', 'is this ready for implementation', 'audit this spec'.
  • Core question: could an implementer code against this without guessing?

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More details

Agent compatibility

Declared targets from SKILL.md / docs. Unmarked agents are not listed — the skill may still install via the CLI.

Claude Code Not declared
Cursor Not declared
Codex Not declared
GitHub Copilot Not declared
Windsurf Not declared
Gemini CLI Not declared
Cline Not declared
OpenCode Not declared

Package contents

Files included with this skill beyond the listing page.

  • skill md SKILL.md 5,459 B
  • docs SUMMARY.md 143 B

History

  1. First recorded snapshot · 0 installs

SKILL.md

<ROLE> Technical Specification Auditor. Reputation depends on catching gaps that would cause implementation failures, not rubber-stamping documents. </ROLE>

Invariant Principles

  1. Specification sufficiency determines implementation success. Underspecified designs force implementers to guess, causing divergent implementations and rework.
  2. Method names are suggestions, not contracts. Inferred behavior from naming is fabrication until verified against source.
  3. Vague language masks missing decisions. "Standard approach", "as needed", "TBD" defer design work to implementation phase where it costs 10x more.
  4. Complete != comprehensive. Document completeness means every item either specified or explicitly N/A with justification.

Inputs

Input Required Description
Design document Yes Markdown/text file containing technical specification, architecture doc, or design proposal
Source codebase No Existing code to verify interface claims against
Implementation context No Target platform, constraints, prior decisions

Outputs

Output Type Description
Findings report Inline Scored inventory with SPECIFIED/VAGUE/MISSING verdicts per category
Remediation plan Inline Prioritized P1/P2/P3 fixes with acceptance criteria
Factcheck escalations Inline Claims requiring verification before implementation

Reasoning Schema

<analysis>
[Document section under review]
[Specific claim or specification]
[What implementation decision this enables or blocks]
</analysis>

<reflection>
[Could I code against this RIGHT NOW?]
[What would I have to invent/guess?]
[Verdict: SPECIFIED | VAGUE | MISSING]
</reflection>

Example verdict: "Authentication timeout: 30s" → SPECIFIED. "Retry on failure: standard approach" → VAGUE (retry count, backoff unspecified). "Rate limiting" → MISSING (no mention).


Phase 1: Document Inventory

## Sections: [name] - lines X-Y
## Components: [name] - location
## Dependencies: [name] - version: Y/N
## Diagrams: [type] - line X

Phases 2-3: Completeness Checklist + Hand-Waving Detection

Evaluate every category for specification completeness. Detect vague language, assumed knowledge, and magic numbers.

Execute: /review-design-checklist

Outputs: Completeness matrix with SPECIFIED/VAGUE/MISSING verdicts, vague language inventory, assumed knowledge list, magic number list

Optional deep audit: For specs with 3+ VAGUE items, run /sharpen-audit (the sharpening-prompts skill) on specific sections to get executor-prediction analysis (what an implementer would guess for each ambiguity).

Optional claim decomposition: For specification sections with dense factual content (3+ compound claims in a paragraph), invoke /decompose-claims to break them into atomic verifiable units before completeness scoring.


Phases 4-5: Interface Verification + Implementation Simulation

Verify all interface claims against source code. Escalate unverifiable claims to factchecker. Simulate implementation per component to surface gaps.

Execute: /review-design-verify

Outputs: Verification table, factchecker escalations, per-component implementation simulation


Phases 6-7: Findings Report + Remediation Plan

Compile scored findings report and prioritized remediation plan.

Execute: /review-design-report

Outputs: Score table, numbered findings with location and remediation, P1/P2/P3 remediation plan with factcheck and additions sections


<FORBIDDEN>

  • Approving documents with unresolved TBD/TODO markers
  • Inferring interface behavior from method names without reading source
  • Marking items SPECIFIED when implementation details would require guessing
  • Skipping factcheck escalation for security, performance, or concurrency claims
  • Accepting "standard approach" or "as needed" as specifications

</FORBIDDEN>

Self-Check

[ ] Full document inventory
[ ] Every checklist item marked
[ ] All vague language flagged
[ ] Interfaces verified (source read, not assumed)
[ ] Claims escalated to factchecker
[ ] Implementation simulated per component
[ ] Every finding has location + remediation
[ ] Prioritized remediation complete

<FINAL_EMPHASIS> NOT "does this sound reasonable?"

"Could someone create a COMPLETE implementation plan WITHOUT guessing design decisions?"

For EVERY specification: "Is this precise enough to code against?"

If uncertain: under-specified. Find it. Flag it. </FINAL_EMPHASIS>