On the design of reliable hybrid wired-wireless network-on-chip architectures

Agyeman, Michael Opoku and Wan, Ji-Xiang and Vien, Quoc-Tuan and Zong, Wen and Yakovlev, Alex and Tong, Kenneth and Mak, Terrence (2015) On the design of reliable hybrid wired-wireless network-on-chip architectures. In: 2015 IEEE 9th International Symposium on Embedded Multicore/Many-core Systems-on-Chip (MCSoC-15). Institute of Electrical and Electronics Engineers (IEEE), pp. 251-258. ISBN 9781479986699

[img] PDF - Final accepted version (with author's formatting)
Restricted to Repository staff and depositor only

Download (1MB)

Abstract

With the ever increase in transistor density over technology scaling, energy and performance aware hybrid wire- less Network-on-Chip (WiNoC) has emerged as an alternative solution to the slow conventional wireline NoC design for future System-on-Chip (SoC). However, combining wireless and wireline channels drastically reduces the total reliability of the commu- nication fabric. Besides being lossy, existing feasible wireless solution for WiNoCs, which is in the form of millimeter wave (mm-Wave), relies on free space signal radiation which has high power dissipation with high degradation rate in the signal strength per transmission distance. Alternatively, low power wireless communication fabric in the form of surface wave has been proposed for on-chip communication. With the right design considerations, the reliability and performance benefits of the surface wave channel could be extended. In this paper, we propose a surface wave communication fabric for emerging WiNoCs that is able to match the channel reliability of traditional wireline NoCs. Here, a carefully designed transducer and commercially available thin metal conductor coated with a low cost dielectric material are employed to general surface wave signal to improve the wireless signal transmission gain. Our experimental results demonstrate that, the proposed communication fabric can achieve a 5dB operational bandwidth of about 60GHz around the center frequency (60GHz). By improving the transmission reliability of wireless layer, the proposed communication fabric can improve maximum sustainable load of NoCs by an average of 20.9% and 133.3% compared to existing WiNoCs and wireline NoCs, respectively.

Item Type: Book Section
Research Areas: A. > School of Science and Technology > Computer and Communications Engineering
Item ID: 19407
Notes on copyright: Access to full text restricted pending copyright check
Useful Links:
Depositing User: Quoc-Tuan Vien
Date Deposited: 19 Apr 2016 16:25
Last Modified: 14 Mar 2018 08:23
URI: http://eprints.mdx.ac.uk/id/eprint/19407

Actions (login required)

Edit Item Edit Item

Full text downloads (NB count will be zero if no full text documents are attached to the record)

Downloads per month over the past year