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/proof-writer

Writes rigorous mathematical proofs for ML/AI theory. Use when asked to prove a theorem, lemma, proposition, or corollary, fill in missing proof steps, formalize a proof sketch, 补全证明, 写证明, 证明某个命题, or determine whether a claimed proof can actually be completed under the stated

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auto-claude-code-research-in-sleep
14k187 skills
Install
$ npx -y skills add wanshuiyin/Auto-claude-code-research-in-sleep --skill proof-writer --agent claude-code

How it fires

How this skill gets triggered: by you, by Claude, or both.

  • Fires itselfAuto-invocation. Claude auto-loads it when your prompt matches the work.Auto-invocation is when the right skill fires by itself at the right moment, driven by a FLOW.md router and a hook, instead of you invoking it by name. It is the difference between a skill being installed and a skill actually getting used.Read the full definition →
  • You can call itInvoke it directly when you want it.
  • Slash command/proof-writer

Context preview

The summary Claude sees to decide when to auto-load this skill.

Writes rigorous mathematical proofs for ML/AI theory. Use when asked to prove a theorem, lemma, proposition, or corollary, fill in missing proof steps, formalize a proof sketch, 补全证明, 写证明, 证明某个命题, or determine whether a claimed proof can actually be completed under the stated

SKILL.md

proof-writer.SKILL.md
name: proof-writer
description: Writes rigorous mathematical proofs for ML/AI theory. Use when asked to prove a theorem, lemma, proposition, or corollary, fill in missing proof steps, formalize a proof sketch, 补全证明, 写证明, 证明某个命题, or determine whether a claimed proof can actually be completed under the stated assumptions.
argument-hint: "[theorem-statement-and-assumptions]"
allowed-tools: Read, Write, Edit, Grep, Glob

Proof Write: Rigorous Theorem / Lemma Drafting

Write a mathematically honest proof package, not a polished fake proof.

Constants

  • DEFAULT_PROOF_DOC = `PROOF_PACKAGE.md` in project root
  • STATUS = `PROVABLE AS STATED | PROVABLE AFTER WEAKENING / EXTRA ASSUMPTION | NOT CURRENTLY JUSTIFIED`

Context: $ARGUMENTS

Goal

Produce exactly one of: 1. a complete proof of the original claim 2. a corrected claim plus a proof of the corrected claim 3. a blockage report explaining why the claim is not currently justified

Inputs

Extract and normalize:

  • exact theorem / lemma / proposition / corollary statement
  • explicit assumptions
  • notation and definitions
  • any user-provided proof sketch, partial proof, or intended strategy
  • nearby lemmas or claims in local notes, appendix files, or theorem drafts if the request points to them
  • desired output style if specified: concise, appendix-ready, or full-detail

If notation or assumptions are ambiguous, state the exact interpretation you are using before proving anything.

Workflow

Step 1: Gather Proof Context

Determine the target proof file with this priority: 1. a file path explicitly specified by the user 2. a proof draft already referenced in local notes or theorem files 3. `PROOF_PACKAGE.md` in project root as the default target

Read the relevant local context:

  • the chosen target proof file, if it already exists
  • theorem notes, appendix drafts, or files explicitly mentioned by the user

Extract:

  • exact claim
  • assumptions
  • notation
  • proof sketch or partial proof
  • nearby lemmas that the draft may depend on

Step 2: Normalize the Claim

Restate:

  • the exact claim being proved
  • all assumptions, separately from conclusions
  • all symbols used in the claim

Identify:

  • hidden assumptions
  • undefined notation
  • scope ambiguities
  • whether the available sketch proves the full claim or only a weaker variant

Preserve the user's original theorem statement unless a change is explicitly required. If you use a stronger normalization or cleaner internal formulation only to make the proof easier, keep that as an internal proof device rather than silently replacing the original claim.

Step 3: Feasibility Triage

Before writing a proof, classify the claim into exactly one status:

  • `PROVABLE AS STATED`
  • `PROVABLE AFTER WEAKENING / EXTRA ASSUMPTION`
  • `NOT CURRENTLY JUSTIFIED`

Check explicitly:

  • does the conclusion actually follow from the listed assumptions?
  • is any cited theorem being used outside its conditions?
  • is the claim stronger than what the available argument supports?
  • is there an obvious counterexample, boundary case, or quantifier failure?

If the claim is not provable as stated, do NOT fabricate a proof. Do NOT silently strengthen assumptions or narrow the theorem's scope just to make the proof work.

Step 4: Build a Dependency Map

Choose a proof strategy, for example:

  • direct
  • contradiction
  • induction
  • construction
  • reduction to a known result
  • coupling / probabilistic argument
  • optimization inequality chaining

Then write a dependency map:

  • main claim
  • required intermediate lemmas
  • named theorems or inequalities that will be cited
  • which assumptions each nontrivial step depends on
  • boundary cases that must be handled separately

If one step is substantial, isolate it as a lemma instead of burying it in one sentence.

Step 5: Write the Proof Document

Write to the chosen target proof file.

If the target proof file already exists:

  • read it first
  • update the relevant claim section
  • do not blindly duplicate prior content

If the user does not specify a target, default to `PROOF_PACKAGE.md` in project root.

Do NOT write directly into paper sections or appendix `.tex` files unless the user explicitly asks for that target.

The proof package must include:

  • exact claim
  • explicit assumptions
  • proof status
  • announced strategy
  • dependency map
  • numbered major steps
  • justification for every nontrivial implication

Mathematical rigor requirements:

  • never use "clearly", "obviously", "it can be shown", "by standard arguments", or "similarly" to hide a gap
  • define every constant and symbol before use
  • check quantifier order carefully
  • handle degenerate and boundary cases explicitly, or state why they are excluded
  • if invoking a standard fact, state its name and why its assumptions are satisfied here
  • use `$...$` for inline math and `$$...$$` for display equations
  • never write math in plain text
  • if the proof uses an equivalent normalization that is stronger in appearance than the user's original theorem statement, label it explicitly as a proof device and keep the original claim separate

Step 6: Final Verification

Before finishing the target proof file, verify:

  • the theorem statement exactly matches what was actually shown
  • every assumption used is stated
  • every nontrivial implication is justified
  • every inequality direction is correct
  • every cited result is applicable under the stated assumptions
  • edge cases are handled or explicitly excluded
  • no hidden dependence on an unproved lemma remains

If a key step still cannot be justified, downgrade the status and write a blockage report instead of forcing a proof.

Required File Structure

Write the target proof file using this structure:

# Proof Package

## Claim
[exact statement]

## Status
PROVABLE AS STATED / PROVABLE AFTER WEAKENING / NOT CURRENTLY JUSTIFIED

## Assumptions
- ...

## Notation
- ...

## Proof Strategy
[chosen approach and why]

## Dependency Map
1. Main claim depends on ...
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Repo: wanshuiyin/Auto-claude-code-research-in-sleep