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Cohomological Ai

AI community

Description

Applying advanced the mathematics of cohomology to AI research (invented by Claude)

Installation

This entry records only its repository, not the path inside it, so there is no exact command to give. Open the source below and copy the folder into ~/.claude/skills/, or the file into ~/.claude/agents/.

README

Cohomological Transformer


  1. OVERVIEW & CONTEXT

Welcome to **cohomological_transformer**, a single-file Python codebase that explores advanced—and quite speculative—ideas at the intersection of:

  • Deep Neural Networks
  • Algebraic Topology (particularly cohomology, exact sequences, and spectral sequences)
  • Transformer Architectures (with attention-based processing)
  • Novel Loss Functions & Training Objectives (to enforce “exactness” or “local-to-global” constraints)
  • Circuit Detection & Pruning (inspired by sheaf cohomology analogies)

This project combines numerous code snippets from prior research interactions, providing a single-file library that demonstrates how one might incorporate the language and structure of algebraic topology—particularly **exact sequences** and **spectral sequences**—into the design of neural architectures and their training objectives.

1.1 Purpose of This Repository

This repository is for **experimental** usage. The code is not guaranteed to produce better results than standard Transformers; rather, it’s a kind of conceptual playground for those curious about:

  1. Whether advanced mathematics—like cohomology—can inspire new ways to track or constrain feature representations in a neural network
  2. How one might systematically incorporate ideas like “exactness,” “kernel→image sequences,” or “local-to-global spectral sequences” into the forward pass, the loss, and the optimizer
  3. Potential architectural motifs that blend local processing with global multi-head attention in a “topologically aware” manner
  4. Potential strategies for detecting “critical circuits” in a large model and pruning unimportant weights, with a topological or cohomological rationale

1.2 Why Is This Interesting?

**Cohomology** is a powerful branch of