Design and Optimization of Efficient Digital Machine Learning Accelerators: An overview of architecture choices, efficient quantization, sparsity exploration, and system integration techniques

Digital machine learning (ML) accelerators are popular and widely used. We provide an overview of the SIMD and systolic array architectures that form the foundation of many accelerator designs. The demand for higher compute density, energy efficiency, and scalability has been increasing. To address these needs, new ML accelerator designs have adopted a range of techniques, including advanced architectural design, more efficient quantization, exploiting data-level sparsity, and leveraging new integration technologies. For each of these techniques, we review the common approaches, identify the design tradeoffs, and discuss their implications.

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Publication Details

Journal
IEEE Solid-State Circuits Magazine
Published
2025-01-01
DOI
https://doi.org/10.1109/mssc.2025.3549361
Primary Topic
Neural Networks and Applications
Type
article
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article

Design and Optimization of Efficient Digital Machine Learning Accelerators: An overview of architecture choices, efficient quantization, sparsity exploration, and system integration techniques

Sung-Gun Cho, Zhengya Zhang, Wei Tang, Zhang Jie-Fang
IEEE Solid-State Circuits Magazine
Neural Networks and Applications
article

Design and Optimization of Efficient Digital Machine Learning Accelerators: An overview of architecture choices, efficient quantization, sparsity exploration, and system integration techniques

Sung-Gun Cho, Zhengya Zhang, Wei Tang, Zhang Jie-Fang
article en

Abstract

Digital machine learning (ML) accelerators are popular and widely used. We provide an overview of the SIMD and systolic array architectures that form the foundation of many accelerator designs. The demand for higher compute density, energy efficiency, and scalability has been increasing. To address these needs, new ML accelerator designs have adopted a range of techniques, including advanced architectural design, more efficient quantization, exploiting data-level sparsity, and leveraging new integration technologies. For each of these techniques, we review the common approaches, identify the design tradeoffs, and discuss their implications.

IEEE Solid-State Circuits MagazineVol. 17(2)
Google (United States) (US), University of Michigan (US), Nvidia (United States) (US)
Openalex Percentile: Top 93%
Neural Networks and Applications
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Design and Optimization of Efficient Digital Machine Learning Accelerators: An overview of architecture choices, efficient quantization, sparsity exploration, and system integration techniques — Sung-Gun Cho, Zhengya Zhang, et al. · IEEE Solid-State Circuits Magazine (2025) | TGRS Research Map | TGRS