Mark D. Schultz, Fanghao Yang, et al.
InterPACK 2015
Power dissipation in microprocessors is projected to reach a level that may necessitate chip-level liquid cooling in the near future. An on-chip microchannel heat sink can reduce the total thermal interfaces between an integrated circuit chip and the convective cooling medium and therefore yield smaller junction-to-ambient thermal resistance. This paper reports the fabrication, assembly, and testing of a silicon chip with complementary metaloxidesemiconductor process compatible microchannel heat sink and thermofluidic chip input/output (I/O) interconnects fabricated using wafer-level batch processing. Ultra-small form factor, low-cost fabrication and assembly (system integration) are achieved for 2D and 3D chips, as the microchannel heat sink is fabricated directly on back-side of each chip. Through-wafer electrical and fluidic vias are used to interconnect the monolithically integrated microchannel heat sink to thermofluidic chip I/O interconnections. The feasibility of the novel fluidic I/O interconnect is demonstrated through preliminary thermal resistance measurements. © 2006 IEEE.
Mark D. Schultz, Fanghao Yang, et al.
InterPACK 2015
John Knickerbocker, Russell A. Budd, et al.
ECTC 2018
Paul Andry, Russell A. Budd, et al.
ECTC 2014
Y. Liu, S.L. Wright, et al.
ECTC 2014