Rohan Paul@rohanpaul_ai
48AI 编辑部评分,满分 100
2026-08-12 03:17· 46分钟前
AI 导读

Google 新论文提出 PROMPTS,用智能体将 LLM 基础设施优化从穷举搜索转为先理解瓶颈再定向搜索。其 Analyzer Agent 将瓶颈分为计算、内存或通信三类,Proposal Agent 生成三种 TPU 并行映射方案。在 8 个生产负载中,人工验证配置每次都出现在首批方案里,7/8 情况下是首个被测试的配置。

New Google paper shows LLM infrastructure optimization does not have to be a giant brute-force search if an agent can understand why the system is slow.

The key shift is from "search everything" to "understand the bottleneck, then search the tiny part that matters."

Instead of asking, "Which of these 100 configurations is fastest?", this work asks, "What is actually causing the slowdown?" That one change dramatically shrinks the search.

Its Analyzer Agent reads profiler traces and classifies the bottleneck as compute, memory, or communication, then a Proposal Agent retrieves engineering knowledge and generates three targeted ways to map data, model, and sequence parallelism across TPU chips.

Across eight production workloads spanning dense and MoE models, pre-training, post-training, serving, and TPU systems from 2 to 2,048 chips, the human-validated production configuration appeared in PROMPTS' first batch every time.

In seven of eight cases, it was also the first configuration tested, and the agent's top-ranked proposal matched what engineers ultimately adopted in 87.5% of cases.

来源:Rohan Paul · x.com

Rohan Paul · @rohanpaul_ai · X·2026-08-12 03:17·46分钟前
AI 导读

Google 新论文提出 PROMPTS,用智能体将 LLM 基础设施优化从穷举搜索转为先理解瓶颈再定向搜索。其 Analyzer Agent 将瓶颈分为计算、内存或通信三类,Proposal Agent 生成三种 TPU 并行映射方案。在 8 个生产负载中,人工验证配置每次都出现在首批方案里,7/8 情况下是首个被测试的配置。

New Google paper shows LLM infrastructure optimization does not have to be a giant brute-force search if an agent can understand why the system is slow.

The key shift is from "search everything" to "understand the bottleneck, then search the tiny part that matters."

Instead of asking, "Which of these 100 configurations is fastest?", this work asks, "What is actually causing the slowdown?" That one change dramatically shrinks the search.

Its Analyzer Agent reads profiler traces and classifies the bottleneck as compute, memory, or communication, then a Proposal Agent retrieves engineering knowledge and generates three targeted ways to map data, model, and sequence parallelism across TPU chips.

Across eight production workloads spanning dense and MoE models, pre-training, post-training, serving, and TPU systems from 2 to 2,048 chips, the human-validated production configuration appeared in PROMPTS' first batch every time.

In seven of eight cases, it was also the first configuration tested, and the agent's top-ranked proposal matched what engineers ultimately adopted in 87.5% of cases.

来源:Rohan Paul· x.com