categorical-meta-prompting

Formalize meta-prompt pipelines with Functor, Monad, and Comonad constructs.

6|1|Updated Nov 29, 2025
One-click install
npx skills add https://github.com/manutej/categorical-meta-prompting --skill categorical-meta-prompting
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: categorical-meta-prompting
Source: https://github.com/manutej/categorical-meta-prompting/tree/main/.claude/skills/categorical-meta-prompting
Command: npx skills add https://github.com/manutej/categorical-meta-prompting --skill categorical-meta-prompting

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill provides a mathematically rigorous framework to design deterministic, composable meta-prompting pipelines using category-theory concepts such as Functor, Monad, and Comonad, along with 0-1 quality tracking.

Core Features & Use Cases

  • Formalizes prompt routing, iterative refinement, and context extraction across prompts.
  • Provides Python-based skeletons implementing F, M, W, and [0,1]-enriched quality with practical integration patterns.
  • Use cases include building reliable AI agents, scalable prompt ecosystems, and measurable quality control in prompt-driven workflows.

Quick Start

Install or run the Python skeleton in your environment, then adapt the F/M/W constructs to your prompts and integration points.

Frequently Asked Questions about categorical-meta-prompting

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

FAQPage Schema
How do I build deterministic, composable meta-prompt pipelines for AI workflows?

Composable meta-prompt pipelines use Python skeletons implementing Functor, Monad, and Comonad constructs to formalize prompt routing, iterative refinement, and context extraction, ensuring deterministic execution and verifiable quality tracking in AI workflows.

What is category-theory prompt engineering and how does it apply to AI agents?

Category-theory prompt engineering applies mathematical constructs like Functor, Monad, and Comonad to formalize prompt interactions, enabling reliable AI agents with scalable prompt ecosystems and measurable quality control via 0-1 enriched tracking.

Can I use Python to implement Functor, Monad, and Comonad patterns for prompt routing?

Yes, you can implement these patterns using provided Python-based skeletons for Functor F, Monad M, and Comonad W, which offer practical integration patterns for task routing, context extraction, and quality tracking in prompt-driven workflows.

What's the best way to track quality in iterative prompt refinement pipelines?

Track quality in iterative prompt refinement using a 0-1 enriched quality framework, which formalizes quality tracking across prompt pipelines to provide measurable quality control and verifiable laws for AI product workflows.

Do I need prior knowledge of category theory to use category-driven prompt patterns?

You need basic familiarity with Functor, Monad, and Comonad concepts to adapt the Python skeletons to your prompts, as the framework provides mathematical rigor requiring understanding these constructs to formalize task routing and context extraction effectively.

Why use category theory constructs instead of standard prompt chaining for AI workflows?

Category theory constructs provide verifiable laws and deterministic composition for prompt pipelines, unlike standard chaining, by formalizing routing, refinement, and context extraction mathematically to enable scalable prompt ecosystems with measurable quality control.