←Leaderboard/DevOps/AI-Infra-Auto-Driven-SKILLS
Last commit on October 16, 2026·Created on April 1, 2026

BBuf/AI-Infra-Auto-Driven-SKILLS

“A technical knowledge base for optimizing LLM serving frameworks through historical PR evidence.”
Combined rank
#381
across all skills
In DevOps
#9
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TL;DR

This repository provides specialized skills for LLM infrastructure engineers tasked with optimizing serving frameworks like vLLM, SGLang, and TensorRT-LLM. It transforms historical pull request data into actionable intelligence for selecting fast paths and kernel fusion ideas.

By leveraging documented optimization history, engineers can better evaluate regression risks and validate source paths when tuning model performance or managing GPU memory capacity.

WHO IT'S FOR
LLM infrastructure engineers
optimizing serving framework performance and kernels
MLOps / Deployment engineers
planning GPU memory and request capacity
AI performance architects
benchmarking serving frameworks against latency SLAs
Deep learning researchers
estimating FLOPs and MFU for model shapes
Compatible AgentsThe repository documents support for these agents. The skills may also work with other agents that can load SKILL.md files, but they may need some setup or small changes.

Use this skill collection

Follow the documented setup, then try a first task.

See the repository for installation instructions.

Open repository instructions ↗

Give it something to do.

Suggested first task

Find an original GLM-5 architecture diagram

Uses model-architecture-diagram

  • Model name: GLM-5
  • Python 3 available to run the bundled resolver
  • Access to the installed skill's resolver and diagram index

Make sure model-architecture-diagram is installed in your agent before trying this task.

Use model-architecture-diagram to find the indexed public original architecture diagram for GLM-5. Return the resolver's original image Markdown and source attribution. If there is no match, say so.
Suggested first task

Explain memory use and request capacity

Uses llm-serving-capacity-planner

  • Replace <startup-log-path> with an existing SGLang or vLLM startup log containing memory and token-capacity lines
  • GPU type or enough log information to infer it
  • Optional model config.json and nvidia-smi memory output for cross-validation
  • Request token length: 4096

Make sure llm-serving-capacity-planner is installed in your agent before trying this task.

Use llm-serving-capacity-planner to analyze my SGLang or vLLM startup log at <startup-log-path>. Explain the logged weight, KV cache, CUDA graph, and framework memory use, and estimate concurrent request capacity for 4096-token requests. Use final logged capacity and rank-local evidence; identify missing information instead of assuming an absent mem-fraction-static value.
Suggested first task

Find prior Qwen3 fusion evidence

Uses model-pr-history-knowledge

  • Python 3 available for the bundled query helper
  • Installed model-pr-optimization-history knowledge base; run its query commands from that directory
  • Framework: SGLang; model-family slug: qwen3-core
  • An active run-artifact directory for the short evidence note

Make sure model-pr-history-knowledge is installed in your agent before trying this task.

Use model-pr-history-knowledge to search the SGLang qwen3-core history for fused QK normalization and RoPE. Read the matching history and any dated opening notes, then summarize the relevant implementation paths, PR evidence, and validation or regression risks. Distinguish manually audited evidence from discovery inventories, and save a short evidence note in my active run artifacts before proposing any patch.