cpp-pro

Analyze C++ tasks and propose minimal safe fixes for performance, memory, and concurrency issues.

22|2|Updated Mar 24, 2026
One-click install
npx skills add https://github.com/jshsakura/awesome-opencode-skills --skill cpp-pro-jshsakura
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: cpp-pro
Source: https://github.com/jshsakura/awesome-opencode-skills/tree/main/skills/cpp-pro
Command: npx skills add https://github.com/jshsakura/awesome-opencode-skills --skill cpp-pro-jshsakura

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill provides a structured approach to tackle C++ tasks that require performance-sensitive changes, careful memory ownership handling, and robust concurrency and systems integration, helping engineers deliver safe, minimal-impact fixes.

Core Features & Use Cases

  • Boundary mapping: identify entry points, data paths, and external dependencies to prevent scope creep.
  • RAII and lifetime discipline: ensure deterministic cleanup, exception safety, and proper ownership transfer.
  • Concurrency & ABI safety: assess thread-safety, locking strategies, and compatibility of public interfaces during refactors.
  • Minimal-change philosophy: propose the smallest, verifiable change that preserves existing behavior while addressing root causes.
  • Use Cases: apply to bug fixes in performance-critical modules, memory ownership corrections, or small architectural adjustments in production code.

Quick Start

Identify the exact execution boundary for a C++ task and propose the smallest safe fix that preserves existing behavior.

Frequently Asked Questions about cpp-pro

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

FAQPage Schema
How do I ensure ABI compatibility when refactoring C++ production code?

To ensure ABI compatibility during C++ refactoring, you must assess public interfaces and assess thread-safety to prevent scope creep. This approach proposes the smallest verifiable change that preserves existing behavior while maintaining boundary clarity.

What is the best way to fix memory ownership issues in performance-critical C++ modules?

Fixing memory ownership issues in performance-critical C++ modules requires RAII and lifetime discipline to ensure deterministic cleanup and exception safety. This method maps data paths and external dependencies to propose minimal, safe corrections.

How do I apply RAII for deterministic cleanup in C++ concurrency scenarios?

Applying RAII for deterministic cleanup in C++ concurrency scenarios involves assessing thread-safety and locking strategies. It ensures proper ownership transfer and exception safety while identifying the exact execution boundary for the task.

Can I use minimal-change philosophy for C++ bug fixes in performance-sensitive codebases?

Yes, you can use the minimal-change philosophy for C++ bug fixes in performance-sensitive codebases. It targets the root cause by proposing the smallest verifiable change that preserves existing behavior without introducing unnecessary scope creep.

When do I need to map execution boundaries before modifying C++ memory management?

You need to map execution boundaries before modifying C++ memory management to prevent scope creep and ensure deterministic cleanup. It identifies exact entry points, data paths, and external dependencies for safe refactoring in production code.