SASVAAI/Museglimmer-30b-triton-kernelgen

VISIONPricing:Input $1.2 / Cached $0.04 / Output $4.4Concurrent Unit Cost:2Model Size:30BQuant:FP8Context Size:128kPublished:Oct 13, 2026License:apache-2.0Architecture:Transformer0.0K Open Weights Featherless Exclusive Cold

SASVAAI/Museglimmer-30b-triton-kernelgen is a 30-billion parameter language model, a LoRA fine-tune of meta-models/Muse-Glimmer-30B, specifically designed to generate Triton GPU kernels from PyTorch modules. Its key differentiator is training within an agentic loop, allowing it to compile, read errors, and iteratively fix code. This model excels at automated GPU kernel generation and refinement, making it suitable for optimizing PyTorch module performance.

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Museglimmer-30b-triton-kernelgen Overview

This model is a 30-billion parameter language model, a LoRA fine-tune of meta-models/Muse-Glimmer-30B, specialized in generating Triton GPU kernels from PyTorch modules. It represents a reduced-scale reproduction of the Refinement Fine-Tuning (RFT) stage of the CUDA Agent research. A core innovation is its training within an agentic loop, where it learns to write a kernel, call a verifier, interpret errors, and iteratively correct its code across multiple turns.

Key Capabilities

  • Automated Triton Kernel Generation: Translates PyTorch modules into optimized Triton GPU kernels.
  • Agentic Error Correction: Trained to identify and fix compilation or functional errors in generated kernels through an iterative process.
  • High Context Length: Supports a maximum sequence length of 16,384 tokens, crucial for complex code generation tasks.
  • Performance Optimization: Aims to produce kernels that can outperform torch.compile and PyTorch eager execution, particularly when used within an agent loop.

Good For

  • GPU Performance Optimization: Developers looking to automatically generate and refine high-performance Triton kernels for PyTorch operations.
  • Agentic AI Development: Research and applications involving AI agents that interact with compilers and debug code.
  • Reproducing CUDA Agent Research: Provides a smaller-scale model for exploring the RFT stage of the CUDA Agent methodology.

It's important to note that the model's full benefit is realized within a multi-turn agent loop, as it was trained on trajectories involving iterative refinement. Single-shot generation is possible but will not achieve the same verified performance improvements.