Pedro André Martins Bezerra, R.K. Aljameh, et al.
COMPEL 2017
Integrated Flow-Cell Arrays (FCAs) represent a combination of integrated liquid cooling and on-chip power generation, converting chemical energy of the flowing electrolyte solutions to electrical energy. The FCA technology provides a promising way to address both heat removal and power delivery issues in 3D Multiprocessor Systems-on-Chips (MPSoCs). In this paper we motivate the benefits of FCA in 3D MPSoCs via a qualitative analysis and explore the capabilities of the proposed technology using our extended PowerCool simulator. PowerCool is a tool that performs combined compact thermal and electrochemical simulation of 3D MPSoCs with inter-tier FCA-based cooling and power generation. We validate our electrochemical model against experimental data obtained using a micro-scale FCA, and extend PowerCool with a compact thermal model (3D-ICE) and subthreshold leakage estimation. We show the sensitivity of the FCA cooling and power generation on the design-time (FCA geometry) and run-time (fluid inlet temperature, flow rate) parameters. Our results show that we can optimize the FCA to keep maximum chip temperature below 95 °C for an average chip power consumption of 50 W/cm2 while generating up to 3.6 W per cm2 of chip area.
Pedro André Martins Bezerra, R.K. Aljameh, et al.
COMPEL 2017
Mohamed M. Sabry, Arvind Sridhar, et al.
DATE 2014
Suiying Ye, Arvind Sridhar, et al.
EMPC 2019
Vincent Lafage, Yann Beilliard, et al.
ECTC 2018