A Scalable 3D Heterogeneous Multicore with an Inductive ThruChip Interface
The authors developed a scalable heterogeneous multicore processor. 3D heterogeneous chip stacking of a general-purpose CPU and reconfigurable multicore accelerators enables various trade-offs between performance and energy consumption. The stacked chips interconnect through a scalable 3D network on...
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Veröffentlicht in: | IEEE MICRO 2013-11, Vol.33 (6), p.6-15 |
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creator | Miura, Noriyuki Koizumi, Yusuke Take, Yasuhiro Matsutani, Hiroki Kuroda, Tadahiro Amano, Hideharu Sakamoto, Ryuichi Namiki, Mitaro Usami, Kimiyoshi Kondo, Masaaki Nakamura, Hiroshi |
description | The authors developed a scalable heterogeneous multicore processor. 3D heterogeneous chip stacking of a general-purpose CPU and reconfigurable multicore accelerators enables various trade-offs between performance and energy consumption. The stacked chips interconnect through a scalable 3D network on a chip (NoC). By simply changing the number of stacked accelerator chips, processor parallelism can be widely scaled. No design change is needed, and hence, no additional nonrecurring engineering (NRE) cost is required. An inductive-coupling ThruChip Interface (TCI) is applied to stacked-chip communications, forming a low-cost and robust high-speed 3D NoC. The authors developed a prototype system called Cube-1 with 65-nm CMOS test chips, and confirmed successful system operations, including 10 hours of continuous Linux OS operation. Simple filters and a streaming application were implemented on Cube-1 and performance acceleration up to about three times was achieved. |
doi_str_mv | 10.1109/MM.2013.112 |
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subjects | Acceleration Central processing units CMOS Communication CPUs heterogeneous multicore system inductive coupling through chip interface Interconnect Multicore processing Network-on-chip Scalability Three dimensional displays |
title | A Scalable 3D Heterogeneous Multicore with an Inductive ThruChip Interface |
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