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Integration of cache data allocation and voltage/frequency scaling for temperature-constrained multi-core systems with 3-D stacked cache memory

机译:具有温度限制的多核系统与3-D堆栈式缓存存储器的缓存数据分配和电压/频率缩放的集成

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Three-dimensional (3-D) memory stacking can resolve memory bandwidth challenges in chip multi-cores by stacking multiple dies of cache memory via inter-die wires between the stacked memories and multiprocessors. However, high power density (i.e., power dissipation per unit volume) due to the high integration incurs temperature-related problems in reliability, power consumption, performance, and system cooling cost. In this paper, we propose a solution to maximize the instruction throughput for temperature-constrained multi-core systems with 3-D stacked cache memory. The proposed method combines cache data allocation (including power gating of cache memory banks) and voltage/frequency scaling of cores in a temperature-aware manner. Experimental results show that the proposed method offers performance improvement in terms of instructions per second (IPS) compared with existing methods that only perform either cache data allocation or voltage/frequency scaling.
机译:三维(3-D)存储器堆叠可通过堆叠的存储器和多处理器之间的裸片间导线堆叠多个高速缓存存储器,从而解决芯片多核中的存储器带宽挑战。然而,由于高集成度导致的高功率密度(即,每单位体积的功率耗散)在可靠性,功耗,性能和系统冷却成本方面引起了与温度相关的问题。在本文中,我们提出了一种解决方案,可在具有3D堆栈式高速缓存的温度受约束的多核系统中最大化指令吞吐量。所提出的方法以温度感知的方式结合了高速缓存数据分配(包括高速缓存存储库的电源门控)和内核的电压/频率缩放。实验结果表明,与仅执行高速缓存数据分配或电压/频率缩放的现有方法相比,该方法在每秒指令数(IPS)方面提供了性能改进。

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