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Hardware Design for LLMs and Deep Learning — NVIDIA Chief Scientist Bill Dally

Key insights from NVIDIA Chief Scientist Bill Dally on hardware architecture innovations driving large language model training and inference efficiency.

chatgpt, ai, llm

2026 update note

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Editorial note for 2026. This does not replace the historical article below.

  • Prefer current official docs for frameworks, APIs, and package names; sample code here is mostly pedagogical—check release notes when migrating.
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Hardware Design for LLMs — NVIDIA Chief Scientist Bill Dally

NVIDIA Chief Scientist Bill Dally presented hardware innovations driving LLM performance.

Memory Bandwidth

Memory bandwidth is the primary bottleneck for LLM inference. HBM technology has scaled from 1TB/s (A100) to 4TB/s (B200). HBM4 targets 8TB/s by 2027.

Sparsity

2:4 structured sparsity doubles throughput on Ampere+ architectures by skipping zero-weight computations. Fine-grained sparsity requires specialized hardware.

Precision

FP16 -> FP8 reduces memory and compute by 2x with minimal accuracy loss. FP4 inference is emerging for latency-sensitive applications.

Future Trends

On-chip SRAM for KV-cache reduces HBM traffic. Optical interconnects enable higher GPU-to-GPU bandwidth. Domain-specific accelerators for attention and softmax.

chatgptaillmprompt-engineeringprogramming

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