prime-radiant-advanced-wasm

Compile advanced mathematical AI interpretability analyses to WebAssembly for browsers.

1|Updated Feb 8, 2026
One-click install
npx skills add https://github.com/ricable/cli-skills-builder --skill prime-radiant-advanced-wasm
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: prime-radiant-advanced-wasm
Source: https://github.com/ricable/cli-skills-builder/tree/main/.claude/skills/prime-radiant-advanced-wasm
Command: npx skills add https://github.com/ricable/cli-skills-builder --skill prime-radiant-advanced-wasm

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

This Skill provides a framework for understanding and auditing neural network behavior using advanced mathematical and theoretical concepts, making complex AI models more transparent and trustworthy.

Core Features & Use Cases

  • Mathematical AI Interpretability: Leverages Category Theory, Homotopy Type Theory, Spectral Analysis, Causal Inference, Quantum Topology, and Sheaf Cohomology.
  • WebAssembly Compilation: Enables high-performance execution directly in browsers or Node.js environments.
  • Use Case: Analyze the spectral properties of a neural network's layers to identify potential biases or vulnerabilities, or perform causal inference on AI decisions to understand their reasoning.

Quick Start

Use the prime-radiant-advanced-wasm skill to analyze model weights with spectral and causal modules.

Frequently Asked Questions about prime-radiant-advanced-wasm

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I perform causal inference on AI decisions in the browser?

Analyze the spectral properties of neural network layers to identify biases by computing spectral analysis directly on model weights. This approach highlights structural vulnerabilities within the network architecture.

Can I use category theory and homotopy type theory for AI interpretability?

Use category theory and homotopy type theory for AI interpretability to mathematically audit neural network behavior. This framework makes complex AI models transparent by mapping their structural relationships.

Does WebAssembly support high-performance neural network auditing in Node.js?

WebAssembly supports high-performance neural network auditing in Node.js environments by compiling advanced mathematical interpretability logic. This allows spectral analysis and causal inference to run efficiently locally or in browsers.

What is the best way to audit neural network behavior using spectral analysis?

The best way to audit neural network behavior using spectral analysis is applying mathematical frameworks via WebAssembly compilation. This computes spectral properties of model layers to detect potential biases or vulnerabilities.

When do I need sheaf cohomology or quantum topology for analyzing neural networks?

You need sheaf cohomology or quantum topology for analyzing neural networks when building mathematical AI auditing tools that require deep interpretability. These advanced concepts help understand complex model behaviors and structural vulnerabilities.