Title :
UniMESH: The light-weight unidirectional channel Network-on-Chip in 2D mesh topology
Author :
Feng Wang ; Xiantuo Tang ; Zuocheng Xing ; Hengzhu Liu
Author_Institution :
Sci. & Technol. on Parallel & Distrib. Process. Lab., Nat. Univ. of Defense Technol., Changsha, China
Abstract :
Power consumption, design complexity and areacost are limiting constraints in the design of interconnect for scalable many-core systems. To tackle the power and area concerns, we propose a light-weight unidirectional channel network-on-chip in 2D mesh topology (UniMESH), which simplifies router architectures, uses only half amount of channel links to guarantee a fully connected topology, and adopts a novel routing algorithm and deadlock recovery mechanism. As a result, it can reduce both design complexity and area-cost, and decrease some unwanted power consumption. Evaluations show that the proposed light-weight UniMESH can reduce 57.4% router areas, and save 39.3% total power consumption and only add few extra latency when compared with conventional 2D mesh design in SPLASH application simulations.
Keywords :
integrated circuit design; integrated circuit interconnections; mesh generation; multiprocessing systems; network routing; network topology; network-on-chip; 2D mesh topology; SPLASH application simulations; UniMESH; area-cost reduction; channel links; deadlock recovery mechanism; design complexity reduction; fully connected topology; interconnec design; light-weight unidirectional channel network-on-chip; limiting constraints; power consumption; routing algorithm; scalable many-core systems; total power consumption; Latches; Network topology; Nickel; Ports (Computers); Routing; System recovery; Topology;
Conference_Titel :
Electronics, Communications and Computers (CONIELECOMP), 2015 International Conference on
Conference_Location :
Cholula
DOI :
10.1109/CONIELECOMP.2015.7086934