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symmetry-discovery-questionnaire

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Use when ML engineers need to identify symmetries in their data but don't know where to start. Invoke when user mentions data symmetry, invariance discovery, what transformations matter, or needs help recognizing patterns their model should respect. Works collaboratively through domain analysis, transformation testing, and physical constraint identification.

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thinking-frameworks-skills

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lyndonkl/claude
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skills/symmetry-discovery-questionnaire/SKILL.md

Last Verified

January 24, 2026

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npx add-skill https://github.com/lyndonkl/claude/blob/main/skills/symmetry-discovery-questionnaire/SKILL.md -a claude-code --skill symmetry-discovery-questionnaire

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.claude/skills/symmetry-discovery-questionnaire/
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Instructions

# Symmetry Discovery Questionnaire

## What Is It?

This skill helps you **discover hidden symmetries** in your data through a structured collaborative process. Symmetries are transformations that leave important properties unchanged - and building them into neural networks dramatically improves performance (better sample efficiency, faster convergence, improved generalization).

**You don't need to know group theory.** This skill guides you through domain-specific questions to uncover what symmetries might be present.

## Workflow

Copy this checklist and track your progress:

```
Symmetry Discovery Progress:
- [ ] Step 1: Classify your domain and data type
- [ ] Step 2: Analyze coordinate system choices
- [ ] Step 3: Test candidate transformations
- [ ] Step 4: Analyze physical constraints
- [ ] Step 5: Determine output behavior under transformations
- [ ] Step 6: Document symmetry candidates
```

**Step 1: Classify your domain and data type**

Ask user what their primary data type is. Use this table to identify likely symmetries and guide further questions. Images (2D grids) → likely translation, rotation, reflection. 3D data (point clouds, meshes) → likely SE(3), E(3). Molecules → E(3) + permutation + point groups. Graphs/Networks → permutation. Sets → permutation. Time series → time-translation, periodicity. Tabular → rarely symmetric. Physical systems → conservation laws imply symmetries. For detailed worked examples by domain, consult [Domain Examples](./resources/domain-examples.md).

**Step 2: Analyze coordinate system choices**

Guide user through coordinate analysis questions: Is there a preferred origin? (NO → translation invariance). Is there a preferred orientation? (NO → rotation invariance). Is there a preferred handedness? (NO → reflection invariance). Is there a preferred scale? (NO → scale invariance). Is element ordering meaningful? (NO → permutation invariance). Document each answer with reasoning.

**Step 3: Test candidate transformations**

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