FUSE:将STT-MRAM融合到gpu中,以减轻片外内存访问开销

Jie Zhang, Myoungsoo Jung, M. Kandemir
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引用次数: 8

摘要

在这项工作中,我们提出了FUSE,一种将自旋传递扭矩磁随机存取存储器(STT-MRAM)集成到片上L1D缓存中的新型GPU缓存系统。FUSE可以最大限度地减少GPU多处理器互连网络上的出站内存访问次数,从而大大提高GPU的大规模计算并行性水平。具体来说,FUSE通过提取GPU运行时信息来预测GPU内存访问的读级,并将write-once-read-multiple (WORM)数据块放入STT-MRAM中,同时在L1D缓存中的一小部分SRAM上容纳write-multiple数据块。为了进一步减少片外内存访问,FUSE还允许在STT-MRAM中的任何位置分配WORM数据块,方法是通过与有限数量的标签比较器和I/O外设近似的关联性。我们的评估结果表明,与传统的GPU缓存相比,我们提出的异构缓存在互连网络中减少了32%的传出内存引用数量,从而将整体性能提高了217%,并降低了53%的能源成本。
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FUSE: Fusing STT-MRAM into GPUs to Alleviate Off-Chip Memory Access Overheads
In this work, we propose FUSE, a novel GPU cache system that integrates spin-transfer torque magnetic random-access memory (STT-MRAM) into the on-chip L1D cache. FUSE can minimize the number of outgoing memory accesses over the interconnection network of GPU's multiprocessors, which in turn can considerably improve the level of massive computing parallelism in GPUs. Specifically, FUSE predicts a read-level of GPU memory accesses by extracting GPU runtime information and places write-once-read-multiple (WORM) data blocks into the STT-MRAM, while accommodating write-multiple data blocks over a small portion of SRAM in the L1D cache. To further reduce the off-chip memory accesses, FUSE also allows WORM data blocks to be allocated anywhere in the STT-MRAM by approximating the associativity with the limited number of tag comparators and I/O peripherals. Our evaluation results show that, in comparison to a traditional GPU cache, our proposed heterogeneous cache reduces the number of outgoing memory references by 32% across the interconnection network, thereby improving the overall performance by 217% and reducing energy cost by 53%.
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