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proof-checker证明检查员

Agent Skill

proof-checker 用于查找、检索和筛选相关信息,适合在 Codex、Claude、Cursor、Gemini CLI 中需要根据关键词、任务场景或来源线索快速定位候选结果时使用。可结合来源仓库、安装命令和原始 README 继续核验具体用法。安装前建议确认权限范围、维护状态,以及是否会触发联网、命令执行或文件读写。

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安装说明

本站只整理中文说明和来源信息,不托管安装包,也不代用户安装。

GitHub

来源数

2

许可证

unknown

最后核验

2026-05-01

来源状态

来源可访问

安装方式

通过对话安装

复制提示词发给支持本地命令或 Skills 的 AI 助手,先确认命令和权限,再让它执行。

请帮我安装这个 Agent Skill:proof-checker(证明检查员)
来源仓库:https://github.com/wanshuiyin/auto-claude-code-research-in-sleep
仓库路径:skills/proof-checker
安装命令:
npx skills add https://github.com/wanshuiyin/auto-claude-code-research-in-sleep --skill proof-checker
安装前请先检查当前环境是否支持对应 CLI,并向我确认将要执行的命令、安装目录、联网范围和文件读写权限;确认后再执行。

命令行安装

复制命令到本机终端执行。该命令会通过 npx skills 从第三方来源获取 Skill;本站只展示命令,不托管安装包,也不自动执行。

skills.shnpx skills
npx skills add https://github.com/wanshuiyin/auto-claude-code-research-in-sleep --skill proof-checker

简介

用于查找和检索事实核查、证据收集或可信度评估相关信息。

  • 适合在研究、写作或内容审核时辅助验证信息来源。
  • 使用时需区分公开数据和内部资料,避免越权访问。
  • 建议优先采用权威出版物和官方发布的内容。proof-checker 属于研究检索类 Skill,可作为该场景下的辅助能力补充。
  • 涉及敏感话题时应多源交叉验证,降低误判风险。

SKILL.md

Proof Checker: Rigorous Mathematical Verification & Fixing

Systematically verify a mathematical proof via cross-model adversarial review, fix identified gaps, re-review until convergence, and generate a detailed audit report with proof-obligation accounting.

Context: $ARGUMENTS

Constants

  • MAX_REVIEW_ROUNDS = 3
  • REVIEWER_MODEL = gpt-5.4 via Codex MCP, reasoning effort always xhigh
  • REVIEWER_BACKEND = codex — Default: Codex MCP (xhigh). Override with — reviewer: oracle-pro for GPT-5.4 Pro via Oracle MCP. See shared-references/reviewer-routing.md.
  • AUDIT_DOC: PROOF_AUDIT.md at the paper directory root, alongside main.tex (cumulative log; when invoked via /paper-writing, this is paper/PROOF_AUDIT.md)
  • REPORT_TEX: proof_audit_report.tex (formal before/after PDF)
  • STATE_FILE: PROOF_CHECK_STATE.json (for recovery)
  • SKELETON_DOC: PROOF_SKELETON.md (micro-claim inventory)

Acceptance Gate (objective, replaces subjective scoring)

The proof passes when ALL of the following hold:

  1. Zero open FATAL or CRITICAL issues
  2. Every theorem/lemma has: (i) explicit hypotheses, (ii) proof with all interchanges justified, (iii) every application discharges hypotheses in the ledger
  3. All big-O/Θ/o statements have declared parameter dependence and uniformity scope
  4. Counterexample pass executed on all key lemmas (log candidates even if none found)

Issue Taxonomy (20 categories, 4 groups)

Group A: Logic & Proof Structure

CategoryDescriptionExample
UNJUSTIFIED_ASSERTIONClaim stated without proof or reference"The Hessian splits into Gram blocks"
UNPROVEN_SUBCLAIM"Clearly" / "it follows" hides a nontrivial lemma"By symmetry, the cross-terms vanish" without checking
QUANTIFIER_ERRORWrong order ∀/∃, missing "for sufficiently small κ""For all π, there exists ε" vs "there exists ε for all π"
IMPLICATION_REVERSALUses (A⇒B) as (B⇒A), or claims equivalence with only one direction
CASE_INCOMPLETEMisses boundary/degenerate casesSingular covariance, zero weight, non-unique argmin
CIRCULAR_DEPENDENCYLemma uses theorem that depends on it
LOGICAL_GAPA step is not justified by what precedes itB=Θ(1) → β_K=0 without analyzing W

Group B: Analysis & Measure Theory

CategoryDescriptionExample
ILLEGAL_INTERCHANGESwaps limit/expectation/derivative/integral without DCT/MCT/FubiniDifferentiating under E without domination
NONUNIFORM_CONVERGENCEPointwise convergence used as uniformsup and limit swapped
MISSING_DOMINATIONDCT cited but no dominating function given
INTEGRABILITY_GAPUses EX
REGULARITY_GAPDifferentiability/Lipschitz/convexity used but not established
STOCHASTIC_MODE_CONFUSIONMixes a.s./in prob./in L²/in expectation

Group C: Model & Parameter Tracking

CategoryDescriptionExample
MISSING_DERIVATIONA quantity is used but never derived from the modelRisk functional with undefined B, W
HIDDEN_ASSUMPTIONProof silently uses a condition not in the theoremGaussianity assumed but not stated
INSUFFICIENT_ASSUMPTIONHypotheses too weak for proof (counterexample exists)Moment conditions admitting 2-point distributions
DIMENSION_TRACKINGParameter dependence (d, n, K,...) not explicitd enters only through κ
NORMALIZATION_MISMATCHCoordinate/scaling conventions inconsistentRescaled vs raw coordinates
CONSTANT_DEPENDENCE_HIDDEN"C" depends on d,n,K but treated as universal

Group D: Scope & Claims

CategoryDescriptionExample
SCOPE_OVERCLAIMConclusion stated more broadly than proof supports"β_K=0" with only generic overlap
REFERENCE_MISMATCHCited theorem's hypotheses not verified at point of use

Two-Axis Severity System

Axis A — Proof Status (what is wrong)

StatusMeaning
INVALIDStatement false as written (counterexample exists or contradiction)
UNJUSTIFIEDCould be true, but current proof does not establish it
UNDERSTATEDTrue only after strengthening assumptions
OVERSTATEDTrue only after weakening conclusion / adding qualifiers
UNCLEARAmbiguous notation / definition drift (not wrong per se)

Axis B — Impact (how much breaks)

ImpactMeaning
GLOBALBreaks main theorem or core dependency chain
LOCALAffects a side result but not the main theorem
COSMETICExposition only

Severity Labels (derived)

LabelDefinition
FATALINVALID + GLOBAL
CRITICAL(INVALID + LOCAL) or (UNJUSTIFIED + GLOBAL)
MAJOR(UNJUSTIFIED + LOCAL) or (UNDERSTATED/OVERSTATED + GLOBAL)
MINORClarity / notation / dimension bookkeeping that doesn't change claims

Side-Condition Checklists for Common Theorems

When the proof invokes any of the following, require explicit verification of ALL listed conditions:

TheoremRequired Conditions
DCT (Dominated Convergence)Pointwise a.e. convergence + integrable dominating function
MCT (Monotone Convergence)Monotone increasing + non-negative
Fubini/TonelliProduct measurability + integrability (Fubini) or non-negative (Tonelli)
Leibniz integral ruleContinuity of integrand + dominating function for derivative
Implicit Function TheoremContinuous differentiability + non-singular Jacobian
Taylor with remainderSufficient differentiability + remainder form (Lagrange/integral)
Jensen's inequalityConvexity of function + integrability
Cauchy-SchwarzCorrect inner product space + integrability of both factors
Weyl/Davis-KahanSymmetry/Hermiticity + perturbation bound conditions
Analytic continuationDomain connectivity + identity theorem conditions
WLOG reductionInvariance under claimed symmetry + reduction is reversible

Workflow

Phase 0: Preparation

  1. Locate the proof: Find the main .tex file(s).
  2. Read the entire proof: Extract list of all theorems/lemmas/propositions/corollaries/definitions/assumptions.
  3. Read reference materials: Reference papers, prior results.
  4. Build a section map: Structured list with line numbers and key claims.
  5. Identify the main theorem: Central result, assumptions, claims.

Phase 0.5: Proof-Obligation Ledger

Build formal accounting artifacts. Save to PROOF_SKELETON.md:

1. Dependency DAG

Nodes = Definitions / Assumptions / Lemmas / Theorems. Edges = "uses". Detect cycles (including semantic circularity where Lemma A uses a corollary that quietly depends on A).

2. Assumption Ledger

For each theorem/lemma, list every hypothesis with WHERE each is verified (or mark "UNVERIFIED"). Track usage-minimal assumption sets — which assumptions were actually used vs merely stated.

3. Typed Symbol Table

Each symbol must have a type signature:

κ : scalar ∈ (0,1), depends on (d, α_t, Σ, μ)
u* : vector ∈ ℝ^d, u* = C^{-1}m
B^even : matrix ∈ ℝ^{(L+1)×(L+1)}, symmetric PSD
Ψ_v : function ℝ → ℝ, analytic in (ζ,κ), parity determined by v

Flag any symbol whose meaning changes or whose type is inconsistent across uses.

4. Canonical Quantified Statements

For each theorem/lemma, rewrite the statement with explicit quantifiers, domains, and limit order:

∀K ≥ 3, ∀π ∈ Π_K^{ms,∘} \ E_K, ∃κ_0 > 0 such that ∀κ ∈ (0, κ_0):
  h_act^{(K,π)} = Θ(κ^{α_K^act})  [uniform in π on compact subsets]

If you cannot restate a theorem this precisely, mark it UNCLEAR — needs disambiguation.

5. Micro-Claim Inventory

Every nontrivial step becomes a numbered micro-claim in sequent form:

MC-17: Context: [Lemma 3.1, κ < κ_0, Z_κ has bounded moments up to order 2m+2]
       ⊢ Goal: P̂_0 is positive definite
       Rule: monomials linearly independent on support of continuous distribution
       Side-conditions: positive density near origin ✓ (by GMM weak convergence)

Each micro-claim has: justification rule name + required conditions + where conditions are proven.

6. Limit-Order Map

Track every asymptotic statement's limit order and uniformity scope:

h_act = Θ(κ^α)  [as κ→0, uniform in π on compact subsets of Π_K, for fixed K]
τ_act ~ (b/a)n   [as n→∞, for fixed κ,K,π with x_K ≪ 1]

Flag any statement where limit order is ambiguous or uniformity is unclear.

Phase 1: First Review (Codex GPT-5.4 xhigh)

Submit the complete proof content with the following mandatory reviewer checklist in the prompt:

mcp__codex__codex:
  config: {"model_reasoning_effort": "xhigh"}
  prompt: |
    You are performing a rigorous mathematical proof review. For EVERY theorem,
    lemma, and proposition, check ALL of the following:

    ## MANDATORY CHECKS

    A. DEFINITIONS: List any symbol whose meaning is ambiguous or changes.
    B. HYPOTHESIS DISCHARGE: For each lemma/theorem APPLICATION (not statement),
       list each hypothesis and whether it was verified, with location.
    C. INEQUALITY AUDIT: For each inequality chain, verify direction, missing
       absolute values, missing conditions (convexity, PSD, integrability).
    D. INTERCHANGE AUDIT: Flag every limit/derivative/expectation/integral
       interchange. State which theorem justifies it (DCT/MCT/Fubini/Leibniz)
       and which conditions are verified/missing.
    E. PROBABILITY MODE: Track whether claims are a.s./in prob./in expectation/
       w.h.p. Ensure transitions are justified.
    F. UNIFORMITY & CONSTANTS: For every O(·), o(·), Θ(·), ≲, state whether
       it is uniform over all parameters. List hidden parameter dependence.
    G. EDGE/DEGENERATE CASES: Attempt to break each key lemma with a 1D,
       low-rank, or extreme-parameter construction.
    H. DEPENDENCY CONSISTENCY: Detect cycles or forward references to unproven
       results.

    ## OUTPUT FORMAT (per issue)
    For each issue found, provide:
    - id: sequential number
    - status: INVALID / UNJUSTIFIED / UNDERSTATED / OVERSTATED / UNCLEAR
    - impact: GLOBAL / LOCAL / COSMETIC
    - category: [from taxonomy]
    - location: section/equation/line
    - statement: what the proof claims
    - why_invalid: why this is wrong or unjustified
    - counterexample: YES (describe) / NO / CANDIDATE (describe attempt)
    - affects: which downstream results break if this is wrong
    - minimal_fix: how to fix it

    [FULL PROOF CONTENT HERE]

Save the threadId. Parse into structured issue list. Write to PROOF_AUDIT.md.

Phase 1.5: Counterexample Red Team

For each CRITICAL or MAJOR issue, and for every key lemma that introduces:

  • a new inequality bound
  • an identifiability/uniqueness claim
  • a curvature/PSD/strong convexity assertion
  • a uniform-in-parameter claim
  • a convergence mode upgrade (pointwise → uniform, in prob → w.h.p.)

Systematically attempt to construct counterexamples using:

StrategyDescription
Dimensional collapseSet d=1 or 2, K=2, n small
DegeneracySingular covariance, tiny weight, overlapping means, identical components
Extremal distributionsTwo-point ±a, bounded non-subGaussian, heavy tails
Adversarial parameter scalingPick parameters making neglected terms dominate
Numeric falsificationTranslate lemma to a function, brute-force optimize over small domain

Rule: Label "counterexample found" ONLY if algebraically verified. Otherwise log as "candidate counterexample — needs verification."

Record all attempts (successful or not) in PROOF_AUDIT.md.

Phase 2: Fix Implementation

For each issue, ordered by severity (FATAL → CRITICAL → MAJOR → MINOR):

Step 2a: Choose fix strategy

For each issue, explicitly choose one of:

  • ADD_DERIVATION: Write missing proof steps
  • STRENGTHEN_ASSUMPTION: Add conditions to theorem statement
  • WEAKEN_CLAIM: Reduce conclusion scope
  • ADD_REFERENCE: Cite known result + verify its conditions apply

Log this choice — it is a scope-changing decision when it alters theorem statements.

Step 2b: Derive the fix mathematically

  • Complete mathematical derivation, not just a claim
  • If new proposition/lemma needed, write in full theorem-proof style

Step 2c: Implement in LaTeX

  • Edit the .tex file
  • Preserve existing \label references where possible

Step 2d: Record the fix

### Fix N: [SHORT TITLE]
**Issue**: [id] [CATEGORY] — [description]
**Severity**: FATAL / CRITICAL / MAJOR / MINOR
**Status**: INVALID / UNJUSTIFIED / UNDERSTATED / OVERSTATED
**Impact**: GLOBAL / LOCAL / COSMETIC
**Fix strategy**: ADD_DERIVATION / STRENGTHEN_ASSUMPTION / WEAKEN_CLAIM / ADD_REFERENCE
**Location**: Section X, Lines Y-Z

**BEFORE**: [what the proof originally did]
**WHY WRONG**: [mathematical problem, with counterexample if applicable]
**AFTER**: [what the fix does]
**KEY EQUATION**: [central new equation]
**PROOF OBLIGATIONS ADDED**: [new conditions/lemmas introduced]
**DOWNSTREAM EFFECTS**: [which results now need re-checking]

Step 2e: Compile check

pdflatex -interaction=nonstopmode <file>.tex 2>&1 | grep -E "Error|Warning|undefined"

Phase 3: Re-Review (Codex GPT-5.4 xhigh)

Use codex-reply with saved threadId. Include fix summaries. Request the same mandatory checklist.

Check acceptance gate. If not met, repeat Phases 2-3 (up to MAX_REVIEW_ROUNDS).

Phase 3.5: Global Closure & Independent Verification

Global closure checks

After all fixes, verify the proof as a whole:

  • Statement–conclusion match: Does the proof end with EXACTLY what the theorem claims (quantifiers, constants, uniformity)?
  • All obligations discharged: Every node in the obligation DAG is proven or explicitly assumed (and the theorem statement includes it).
  • Case analysis coverage: Cases partition the domain AND include boundary/degenerate cases.
  • Induction correctness (if applicable): Base case, inductive step, correct use of IH, induction measure strictly decreases.
  • WLOG reductions: Each "without loss of generality" spawns a micro-claim proving the reduction is lossless.
  • No silent assumption strengthening: Any fix that strengthened assumptions has propagated to the main theorem statement.

Independent second review for FATAL/CRITICAL fixes

For any fix that resolved a FATAL or CRITICAL issue, submit the fixed section alone (without showing the previous critique) to a fresh Codex thread:

mcp__codex__codex:
  config: {"model_reasoning_effort": "xhigh"}
  prompt: |
    Blind review of the following proof section. You have NOT seen any prior
    review or discussion. Check every step for correctness, hidden assumptions,
    illegal interchanges, and counterexamples.
    [FIXED SECTION ONLY]

If the blind reviewer finds new issues, re-enter Phase 2.

Regression proof-audit

After fixes, re-run:

  • DAG acyclicity check (no new cycles introduced)
  • Counterexample suite on all DOWNSTREAM lemmas of modified results
  • Assumption-delta report: what became stronger/weaker due to fixes?

Phase 3.9: Unrecoverable Proof Protocol

If acceptance gate is not met after MAX_REVIEW_ROUNDS, output a Proof Unrecoverable Report:

  1. Minimal set of blocking FATAL/CRITICAL issues that could not be resolved
  2. Salvage options ranked: (a) weaken claim, (b) strengthen assumptions, (c) add missing lemmas, (d) restructure argument
  3. Which parts of the proof are likely still reusable
  4. Recommended next steps for the author

Do NOT silently declare success. The report must be honest.

Phase 4: Audit Report Generation

Generate proof_audit_report.tex with:

  1. Overview table: All issues with two-axis severity, category, fix strategy, status
  2. Before/After logic chain: Red (BEFORE) → Green (AFTER) comparison
  3. For each fix: original proof → why wrong → counterexample (if any) → complete derivation → remaining subtleties
  4. Proof-obligation diff: What was unverified before, what is verified now
  5. Summary: Now proven / still assumed / open problems
  6. Colored boxes: BEFORE (red), AFTER (green), WHY WRONG (orange), KEY INSIGHT (blue), WARNING (yellow)

Compile: pdflatex proof_audit_report.tex && pdflatex proof_audit_report.tex

Phase 5: State Persistence

Write PROOF_CHECK_STATE.json:

{
  "status": "completed",
  "rounds": 2,
  "threadId": "...",
  "fatal_fixed": 0,
  "critical_fixed": 3,
  "major_fixed": 2,
  "minor_fixed": 1,
  "counterexamples_found": 1,
  "counterexample_candidates": 2,
  "acceptance_gate": "PASS",
  "timestamp": "..."
}

Key Rules

Mathematical rigor

  • Never accept a proof step on faith. "Clearly" / "it follows" / "by standard arguments" are red flags — each must spawn a micro-claim.
  • Hypothesis discharge: Every time a lemma is APPLIED, verify EACH of its hypotheses at that point. Use the side-condition checklists above.
  • Interchange discipline: Every swap of limit/expectation/derivative/integral must cite a theorem (DCT/MCT/Fubini/Leibniz) and verify its conditions with explicit dominating function or integrability proof.
  • Uniformity discipline: Every O(·)/Θ(·) must declare what parameters it is uniform over. "O(1)" that secretly depends on d,n,K is a CONSTANT_DEPENDENCE_HIDDEN issue.
  • Quantifier discipline: Check ∀/∃ order. "For sufficiently small κ" must specify: does κ₀ depend on K? On π? On d?
  • Counterexample-first: Before trying to fix a gap, first try to break it.
  • WLOG prohibition: Every "without loss of generality" must have an explicit micro-claim proving the reduction. No free WLOGs.
  • No silent assumption strengthening: Any fix that adds conditions must propagate to the theorem statement.

Cross-model protocol

  • Claude analyzes, Codex reviews: Claude reads proof, formulates questions, implements fixes. Codex provides adversarial review.
  • Codex reasoning always xhigh: Never downgrade.
  • Send full content: Don't summarize — send actual math for line-by-line checking.
  • Preserve threadId: Use codex-reply for follow-up rounds.

Fix quality

  • Minimal fixes: Fix exactly what's broken, nothing more.
  • Full derivation: Every fix includes complete mathematical argument.
  • Explicit scope decisions: Each fix is tagged ADD_DERIVATION / STRENGTHEN_ASSUMPTION / WEAKEN_CLAIM / ADD_REFERENCE.
  • Compile after each fix: LaTeX must compile cleanly.

Scope honesty

  • Don't overclaim: If a fix makes a result conditional, say so.
  • Separate "proven" from "assumed": The audit report has an explicit section for this.
  • Log open problems: Issues requiring future work are listed, not hidden.

Output Files

FileContentWhen
PROOF_SKELETON.mdDependency DAG + assumption ledger + micro-claimsPhase 0.5
PROOF_AUDIT.mdCumulative round-by-round audit logUpdated each round
PROOF_AUDIT.jsonMachine-readable submission verdict (see below)Always emitted
proof_audit_report.tex/.pdfFormal before/after reportPhase 4
PROOF_CHECK_STATE.jsonState for recoveryPhase 5

Submission Artifact Emission

This skill always writes PROOF_AUDIT.json at the paper directory root (i.e. paper/PROOF_AUDIT.json when invoked from /paper-writing with paper-dir paper/; <your-paper-dir>/PROOF_AUDIT.json when invoked standalone), regardless of caller or whether the paper contains theorems. A paper with no \begin{theorem} / \begin{lemma} / \begin{proof} emits verdict NOT_APPLICABLE; silent skip is forbidden. paper-writing Phase 6 and tools/verify_paper_audits.sh both rely on this artifact existing at <paper-dir>/PROOF_AUDIT.json.

The artifact conforms to the schema in shared-references/assurance-contract.md:

{
  "audit_skill":      "proof-checker",
  "verdict":          "PASS | WARN | FAIL | NOT_APPLICABLE | BLOCKED | ERROR",
  "reason_code":      "all_proofs_complete | minor_gaps | critical_gap | no_theorems | ...",
  "summary":          "One-line human-readable verdict summary.",
  "audited_input_hashes": {
    "main.tex":                 "sha256:...",
    "sections/4.theory.tex":    "sha256:..."
  },
  "trace_path":       ".aris/traces/proof-checker/<date>_run<NN>/",
  "thread_id":        "<codex mcp thread id>",
  "reviewer_model":   "gpt-5.4",
  "reviewer_reasoning": "xhigh",
  "generated_at":     "<UTC ISO-8601>",
  "details": {
    "theorems_audited": <int>,
    "issues": [ { "id": "T1-H3", "severity": "FATAL|CRITICAL|MAJOR|MINOR",
                  "category": "quantifier|domination|...",
                  "location": "sections/4.theory.tex:L182",
                  "note": "..." }, ... ]
  }
}

audited_input_hashes scope

Hash the declared input set actually reviewed — the theorem-bearing .tex files passed into this invocation — not a repo-wide union and not the reviewer's self-reported opened subset. The external verifier rehashes these entries; any mismatch flags STALE.

Path convention (must match tools/verify_paper_audits.sh): keys are paths relative to the paper directory (no paper/ prefix — the verifier resolves relative to the paper dir; prefixing produces paper/paper/... and false-fails as STALE). Use absolute paths for files outside the paper dir.

Verdict decision table

Input stateVerdictreason_code example
No theorems / lemmas / proofs in paperNOT_APPLICABLEno_theorems
Theorems present but referenced files unreadableBLOCKEDsource_unreadable
All proof obligations discharged, no gapsPASSall_proofs_complete
Only MINOR issues (notation / exposition)WARNminor_gaps
Any FATAL or CRITICAL issue (logic gap, wrong claim)FAILcritical_gap
Reviewer invocation failed (network / malformed)ERRORreviewer_error

MAJOR issues alone map to WARN or FAIL at the reviewer's discretion and must carry an explicit justification in summary + details.issues.

Thread independence

Every invocation uses a fresh mcp__codex__codex thread. Never codex-reply across proof-checker runs. Do not accept prior audit outputs (PAPER_CLAIM_AUDIT, CITATION_AUDIT, EXPERIMENT_LOG) as input — the fresh thread preserves reviewer independence per shared-references/reviewer-independence.md.

This skill never blocks by itself; paper-writing Phase 6 plus the verifier decide whether the verdict blocks finalization based on the assurance level.

Example Invocations

/proof-checker "neurips_2025.tex"
/proof-checker "check the GMM generalization proof, focus on dimension dependence"
/proof-checker "verify proof in paper.tex — difficulty: nightmare"

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03

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安装后应在对应宿主中按原始 README 的触发条件使用;具体调用方式请以来源页面和 README 为准。

平台分布

Codex

36.33%
按下载量换算97

Claude

29.37%
按下载量换算78

Cursor

19.34%
按下载量换算52

Gemini CLI

9.01%
按下载量换算24

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