TY - CHAP
T1 - RF-interconnect for future network-on-chip
AU - Tam, Sai Wang
AU - Socher, Eran
AU - Chang, Mau Chung Frank
AU - Cong, Jason
AU - Reinman, Glenn D.
PY - 2011
Y1 - 2011
N2 - In the era of the nanometer CMOS technology, due to stringent system requirements in power and performance, microprocessor manufacturers are relying more on chip multi-processor (CMP) designs. CMPs partition silicon real estate among a number of processor cores and on-chip caches, and these components are connected via an on-chip interconnection network (Network-on-chip). It is projected that communication via NoC is one of the primary limiters to both performance and power consumption. To mitigate such problems, we explore the use of multiband RF-interconnect (RF-I) which can communicate simultaneously through multiple frequency bands with low power signal transmission and reconfigurable bandwidth. At the same time, we investigate the CMOS mixed-signal circuit implementation challenges for improving the RF-I signaling integrity and efficiency. Furthermore, we propose a micro-architectural framework that can be used to facilitate the exploration of scalable low power NoC architectures based on physical planning and prototyping.
AB - In the era of the nanometer CMOS technology, due to stringent system requirements in power and performance, microprocessor manufacturers are relying more on chip multi-processor (CMP) designs. CMPs partition silicon real estate among a number of processor cores and on-chip caches, and these components are connected via an on-chip interconnection network (Network-on-chip). It is projected that communication via NoC is one of the primary limiters to both performance and power consumption. To mitigate such problems, we explore the use of multiband RF-interconnect (RF-I) which can communicate simultaneously through multiple frequency bands with low power signal transmission and reconfigurable bandwidth. At the same time, we investigate the CMOS mixed-signal circuit implementation challenges for improving the RF-I signaling integrity and efficiency. Furthermore, we propose a micro-architectural framework that can be used to facilitate the exploration of scalable low power NoC architectures based on physical planning and prototyping.
UR - http://www.scopus.com/inward/record.url?scp=84892298415&partnerID=8YFLogxK
U2 - 10.1007/978-1-4419-6911-8_10
DO - 10.1007/978-1-4419-6911-8_10
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AN - SCOPUS:84892298415
SN - 9781441969101
SP - 255
EP - 280
BT - Low Power Networks-On-Chip
PB - Springer
ER -