cpp-pro

Provide C++20/23 design guidance covering SIMD, coroutines, CMake, and testing workflows.

6|Updated Feb 25, 2026
One-click install
npx skills add https://github.com/archibate/archibate-skills --skill cpp-pro-archibate
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: cpp-pro
Source: https://github.com/archibate/archibate-skills/tree/main/old-skills/redundant-skills/cpp-pro
Command: npx skills add https://github.com/archibate/archibate-skills --skill cpp-pro-archibate

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

Provides senior-level guidance to design, implement, and optimize modern C++20/23 codebases, removing uncertainty when using advanced language features and performance techniques.

Core Features & Use Cases

  • Expert design and implementation guidance for modern C++ features: concepts, ranges, coroutines, and modules.
  • Performance engineering: SIMD, cache-friendly data layouts, custom allocators, profiling, and sanitizer-guided debugging.
  • Template metaprogramming and type-safety: variadic templates, CRTP, SFINAE/if constexpr, and expressive concepts.
  • Build and tooling support: CMake recommendations, static analysis, testing patterns, and CI configuration for cross-platform builds.
  • Use Case: Refactor a hot-path subsystem to eliminate allocations, add SIMD-friendly data structures, update CMake, and produce unit tests and benchmarks.

Quick Start

Ask the cpp-pro skill to design a C++20 component that minimizes heap allocations and returns header, implementation, CMake changes, tests, and a brief performance rationale.

Frequently Asked Questions about cpp-pro

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

FAQPage Schema
How do I optimize C++ code to eliminate heap allocations and improve performance?

To optimize C++ performance and eliminate heap allocations, implement cache-friendly data layouts, custom allocators, and SIMD optimization. This approach minimizes dynamic memory overhead and maximizes throughput in hot-path subsystems.

How do I use C++20 concepts and template metaprogramming for type safety?

C++20 concepts and template metaprogramming provide type safety through expressive constraints, variadic templates, CRTP, and if constexpr. These features enable zero-overhead abstractions by resolving complex type logic at compile time.

What is the best way to configure CMake for cross-platform C++ builds and testing?

Configuring CMake for cross-platform C++ builds involves setting up CI configurations, integrating static analysis, and defining testing patterns. This ensures consistent compilation, dependency management, and automated validation across different environments.

How do I apply C++ Core Guidelines for safety and zero-overhead abstractions?

Applying C++ Core Guidelines ensures safety and zero-overhead abstractions by enforcing strict type safety, resource management, and boundary checking. This methodology prevents common memory errors while maintaining maximum runtime performance.

Does this C++ optimization approach work for embedded codebases and production environments?

Yes, this C++ optimization approach is designed for embedded codebases and production environments. It provides expert guidance for systems programming, performance tuning, and sanitizer-guided debugging tailored to resource-constrained platforms.

How do I debug C++ performance issues using sanitizers and static analysis?

Debugging C++ performance issues requires combining sanitizer-guided debugging with static analysis recommendations. This identifies memory leaks and undefined behavior, while profiling tools pinpoint cache misses and allocation bottlenecks.