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基于忆阻器的存算一体加速器综述

A Review of Memristor-Based Computing in Memory Accelerators

  • 摘要: 为应对人工智能(artificial intelligence, AI)算法的快速发展,计算资源的需求正呈指数级增长,这为AI模型的硬件部署带来了巨大挑战。基于忆阻器的存算一体加速器为解决大型AI模型部署中的能效与时延问题提供了极具前景的方案——即计算直接在存储数据的存储单元中完成。这种方式显著减少了冯·诺依曼架构中处理单元与存储单元之间频繁的数据搬运,从而极大降低了时间和能耗开销。近年来,该领域研究发展迅速,忆阻器技术正经历从概念验证走向商业化产品的关键转变,现有产品原型系统已能在多种应用场景中加速AI模型推理。本文系统地梳理了忆阻器件及交叉阵列、系统架构、软件工具、典型应用及发展趋势,并给出了当前仍需解决的关键技术问题。

     

    Abstract: To meet the rapid evolution of artificial intelligence (AI) algorithms, the demand for computing resources is growing exponentially, posing significant challenges for deploying AI models on hardware. Memristor-based computing in memory accelerators offer a promising solution to the energy efficiency and latency issues in large-scale AI model deployment—by performing computation directly within the memory cells where data are stored. This approach eliminates the frequent data transfers between processing units and memory units inherent in the von Neumann architecture, thereby greatly reducing both time and energy consumption. In recent years, research in this field has progressed rapidly, and memristor technology is undergoing a critical transition from proof-of-concept to commercialization, with prototype systems already capable of accelerating AI model inference across various application scenarios. This article systematically reviews memristor devices and crossbar arrays, system architectures, software tools, representative applications, and development trends, and highlights the key technical challenges that remain to be addressed.

     

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