improve-codebase-architecture

Identify shallow modules and refactor candidates for improved testability.

2|Updated Apr 25, 2026
One-click install
npx skills add https://github.com/caezium/skills --skill improve-codebase-architecture-caezium
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: improve-codebase-architecture
Source: https://github.com/caezium/skills/tree/main/improve-codebase-architecture
Command: npx skills add https://github.com/caezium/skills --skill improve-codebase-architecture-caezium

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

The process helps teams surface architectural friction and opportunities to deepen shallow modules, improving testability, maintainability, and AI-navigability in a codebase.

Core Features & Use Cases

  • Identify deepening opportunities by analyzing module interfaces, dependencies, and boundary interactions.
  • Present candidate refactor clusters with context: involved modules, coupling, dependency category, and testing impact.
  • Frame a workflow that emphasizes boundary-based testing and avoids premature interface changes.

Quick Start

Ask the agent to begin a codebase analysis to surface deepening opportunities and outline RFC-ready candidates.

Frequently Asked Questions about improve-codebase-architecture

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

FAQPage Schema
How do I identify shallow modules in a large codebase for refactoring?

You identify shallow modules by analyzing module interfaces, dependencies, and boundary interactions to surface friction points and tight couplings. This targets evolving architectures to improve testability and maintainability.

What is the best way to improve codebase architecture for AI navigability?

Improving codebase architecture for AI navigability involves deepening shallow modules to reduce friction across interfaces. It categorizes dependencies and presents candidate refactor clusters to make modules easier for automated tools to parse.

How do I find refactor targets in a codebase with tight couplings?

Finding refactor targets in a codebase with tight couplings requires analyzing boundary interactions and dependency categories. This surfaces candidate clusters with context on involved modules and testing impact to guide structural improvements.

Can I generate RFC-ready candidates from a codebase architecture analysis?

Yes, you can generate RFC-ready candidates from a codebase architecture analysis. The workflow outputs candidate refactor clusters with detailed context on involved modules, coupling, and dependency categories intended directly for RFC creation.

Does this codebase refactoring approach work for evolving architectures?

Yes, this codebase refactoring approach works for evolving architectures by surfacing deepening opportunities across modules and interfaces. It defines a structured workflow emphasizing boundary-based testing while avoiding premature interface changes.

Why should I avoid premature interface changes during codebase refactoring?

You should avoid premature interface changes during codebase refactoring to emphasize boundary-based testing and ensure structural stability. Deepening shallow modules requires analyzing dependency categories and coupling impacts before modifying boundaries.