用于下一代人工智能/ML 硬件的改变游戏规则的记忆技术

Kang Jun Bai, Jack Lombardi, Clare Thiem, Nathan R. McDonald
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引用次数: 0

摘要

神经形态计算在人工智能(AI)和机器学习(ML)领域具有重要意义,它可以避免现代计算系统中神经启发计算所固有的挑战。纵观神经形态计算的发展历程,采用新兴内存技术(如电阻式随机存取内存(RRAM))的内存计算(CIM)具有在内存中就地执行任务的优势,可显著提高架构复杂性、数据吞吐量、面积密度和能效。本文展示了公司内部为人工智能/移动计算相关工作负载设计和应用创新内存电路的研究成果。具体来说,乘法累加(MAC)运算和分类任务可在由 1 晶体管-1-RRAM(1T1R)单元组成的交叉棒阵列上完成。采用相同的电路结构,通过引导电流流经横条的路径,可以实现基于流的布尔运算。更妙的是,由 6 晶体管-1-RRAM(6T1R)单元组成的增强型横杆阵列可与双向电流控制机制一起实现用于现场训练的高精度运算。在可能的情况下,我们针对人工智能认知操作优化的神经形态解决方案可提供更快、更稳健、更高效的决策,为未来战场提供支持。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The game-changing memristive technology for next-gen AI/ML hardware
Neuromorphic computing is of high importance in Artificial Intelligence (AI) and Machine Learning (ML) to sidestep challenges inherent to neural-inspired computations in modern computing systems. Throughout the development history of neuromorphic computing, Compute-In-Memory (CIM) with emerging memory technologies, such as Resistive Random-Access Memory (RRAM), offer advantages by performing tasks in place, in the memory itself, leading to significant improvement in architectural complexity, data throughput, area density, and energy efficiency. In this article, in-house research efforts in designing and applying innovative memristive circuitry for AI/ML related workloads are showcased. To be specific, Multiply-and-Accumulate (MAC) operations and classification tasks can be obtained on a crossbar array made of 1-transistor-1-RRAM (1T1R) cells. With the same circuit structure, flow-based Boolean arithmetic is made possible by directing the paths of current flow through the crossbar. Better yet, high-precision operations for in-situ training can be realized with an enhanced crossbar array made of 6-transistor-1-RRAM (6T1R) cells alongside the bidirectional current control mechanism. Where possible, our neuromorphic solutions optimized for AI-enabled cognitive operations offer faster and more robust yet more efficient decision-making to support future battlespaces.
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