Strictly speaking, this is very domain-specific and doesn't enable any performance that Triton couldn't already achieve (eliminating global memory round-trips via epilogue fusion is nothing new). The real takeaway is the design shift for LLM-driven codegen rather than handcrafted kernels.
LLMs are still bad at low-level hardware optimizations, but really good at high-level composition. Designing compiler abstractions with a restricted, composable API so an LLM can easily glue expert-written blocks together is a smart move. I suspect this will eventually become the norm for codegens as we move to agentic development.
Strictly speaking, this is very domain-specific and doesn't enable any performance that Triton couldn't already achieve (eliminating global memory round-trips via epilogue fusion is nothing new). The real takeaway is the design shift for LLM-driven codegen rather than handcrafted kernels.
LLMs are still bad at low-level hardware optimizations, but really good at high-level composition. Designing compiler abstractions with a restricted, composable API so an LLM can easily glue expert-written blocks together is a smart move. I suspect this will eventually become the norm for codegens as we move to agentic development.
I imagine this is what’s already done for AI laying out hardware design.
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