cb.fabric-performance-loop

Identify and validate Fabric performance characteristics during profiling and benchmarking.

Updated Aug 27, 2026
One-click install
npx skills add https://github.com/Metta-AI/cortical --skill cb-fabric-performance-loop
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: cb.fabric-performance-loop
Source: https://github.com/Metta-AI/cortical/tree/main/skills/cb.fabric-performance-loop
Command: npx skills add https://github.com/Metta-AI/cortical --skill cb-fabric-performance-loop

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Fabric performance work often lacks a structured, repeatable approach to measure, compare, and improve throughput, latency, and resource usage across architectures and backends.

Core Features & Use Cases

  • Establish a live performance plan and progress doc.
  • Run parity-guarded benchmarks to verify fabric behavior across modes, batch sizes, and inner steps.
  • Capture and curate performance evidence to inform optimizations and regressions.

Quick Start

Begin by running the live Fabric performance benchmark path and log the results to the progress doc.

Frequently Asked Questions about cb.fabric-performance-loop

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

FAQPage Schema
How do I benchmark Fabric performance and ensure CUDA kernel ownership behaves correctly?

Benchmark Fabric performance by running parity-guarded benchmarks across modes, batch sizes, and inner steps to verify CUDA kernel ownership and scaling behaviors. This process requires current Fabric artifacts, parity gates, and a live progress doc to enforce reproducibility and collect evidence.

What is the best way to detect performance regressions across different architectures?

Detect performance regressions by capturing and curating performance evidence during profiling tasks. This structured approach measures throughput and resource usage across architectures and backends, ensuring scaling behaves as expected through parity-guarded benchmarking practices.

Do I need a live progress document to run Fabric profiling tasks?

Yes, a live progress document is required to run Fabric profiling tasks. It establishes a performance plan and logs benchmark results, enforcing checks for reproducibility, evidence collection, and safe benchmarking practices throughout the optimization workflow.

Can I use this approach to measure throughput and latency across multiple backends?

Yes, you can measure throughput, latency, and resource usage across multiple backends and architectures. It applies parity-guarded benchmarking to validate Fabric behavior, ensuring reproducible performance characteristics during scaling and optimization tasks.

Why does Fabric performance optimization require parity gates during benchmarking?

Parity gates are required during Fabric benchmarking to validate behavior consistency across modes, batch sizes, and inner steps. They ensure safe benchmarking practices by enforcing reproducibility and accurate evidence collection before applying optimizations or detecting regressions.