aiqbench analysis
MKEolve addresses a critical bottleneck in scaling machine learning by using multi-agent systems to iteratively refine kernel code for hardware accelerators rather than generating it end-to-end. This approach significantly improves model correctness and execution speed while reducing the computational cost associated with large language model token usage during synthesis. By decomposing complex PyTorch modules into independently verified subkernels, the framework offers a more interpretable and adaptable solution for optimizing ML workloads on specialized hardware like Triton-based accelerators.
MKEvolve: A Modular Multi-Agent Framework for Kernel Code Generation
arXiv:2607.20501v1 Announce Type: new Abstract: Despite rapid progress in LLM-based code generation, writing correct and performant kernels for hardware accelerators remains a key bottleneck in scaling modern ML workloads. We present MKEvolve (Modular Kernel Evolve), a framework that iteratively co-evolves a modular decomposition of complex PyTorch modules and the LLM-generated kernel for each submodule, refining the decomposition by splitting and fusing across iterations while independently improving each subkernel via LLM-driven beam search. The resulting kernels are programmatic compositions of independently verified subkernels, making them configurable (subkernel implementations are swappable), interpretable (errors and speedups are traceable to specific subkernels), and readily adaptable to related model architectures. Experiments with Triton on KernelBench L2 and L3, spanning multi-operator sequences and full model architectures, show that MKEvolve improves both correctness and speedup over end-to-end direct synthesis baselines while reducing LLM token usage by up to 35%.
Abstract:Despite rapid progress in LLM-based code generation, writing correct and performant kernels for hardware accelerators remains a key bottleneck in scaling modern ML workloads. We present MKEvolve (Modular Kernel Evolve), a framework that iteratively co-evolves a modular decomposition of complex PyTorch modules and the LLM-generated kernel for each submodule, refining the decomposition by splitting and fusing across iterations while independently improving each subkernel via LLM-driven beam search. The resulting kernels are programmatic compositions of independently verified subkernels, making them configurable (subkernel implementations are swappable), interpretable (errors and speedups are traceable to specific subkernels), and readily adaptable to related model architectures. Experiments with Triton on KernelBench L2 and L3, spanning multi-operator sequences and full model architectures, show that MKEvolve improves both correctness and speedup over end-to-end direct synthesis baselines while reducing LLM token usage by up to 35%.
Artificial Intelligence (cs.AI); Multiagent Systems (cs.MA)
arXiv:2607.20501 [cs.AI]
(or arXiv:2607.20501v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2607.20501 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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