The evolutionary spintronic technologies and their usage in high performance computing

Hai Helen Li, Xiuyuan Bi, Zhenyu Sun
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引用次数: 1

Abstract

This paper gives a comprehensive summary of our study in using the spintronic technologies for the on-chip cache density improvement of high performance computing systems. We will start with the spin-transfer torque random access memory (STT-RAM) at the early of stage of commercialization and then extend it to the emerging racetrack memory that has been successfully demonstrated at device and small array level. In multi-level cell (MLC) STT-RAM cache, the cell design constrains, e.g., the switching current requirement and asymmetry in write operations, severely limit the density benefit. Moreover, the two-step read/write accesses and inflexible data mapping strategy may even result in system performance degradation. This paper will discuss our circuit and architecture combined solution. Advanced spintronic technology, i.e., racetrack memory, enables an extremely high storage density and offers a faster-than-Moores law scaling path. Unorthodox new memory hierarchies are necessary to minimize the impact of pseudo-sequential accesses of racetrack memory.
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进化自旋电子技术及其在高性能计算中的应用
本文对自旋电子技术在提高高性能计算系统片上缓存密度方面的研究进行了综述。我们将从商业化早期阶段的自旋转移扭矩随机存取存储器(STT-RAM)开始,然后将其扩展到已经在设备和小阵列级别成功演示的新兴赛道存储器。在多层单元(MLC) STT-RAM缓存中,单元设计的限制,例如开关电流要求和写操作中的不对称,严重限制了密度效益。此外,两步读/写访问和不灵活的数据映射策略甚至可能导致系统性能下降。本文将讨论我们的电路和架构相结合的解决方案。先进的自旋电子技术,即赛道存储器,可以实现极高的存储密度,并提供比摩尔定律更快的缩放路径。非正统的新内存层次结构是必要的,以尽量减少伪顺序访问赛道内存的影响。
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