“…As for liquid-cooled 3D MPSoCs, Mizunuma et al use their thermal model to explore floorplanning solutions to homogenize temperature distributions in this architecture [108]. The results in this work, which is further assisted by the observations in other work [96], show that in the case of liquid cooled 3D MPSoC, temperatureaware floorplanning follows the trend of placing more heat dissipating modules at the fluid inlet port, while lower heat dissipating modules at the outlet port.…”
Section: Design-time Power and Thermal Optimizationsmentioning
“…As for liquid-cooled 3D MPSoCs, Mizunuma et al use their thermal model to explore floorplanning solutions to homogenize temperature distributions in this architecture [108]. The results in this work, which is further assisted by the observations in other work [96], show that in the case of liquid cooled 3D MPSoC, temperatureaware floorplanning follows the trend of placing more heat dissipating modules at the fluid inlet port, while lower heat dissipating modules at the outlet port.…”
Section: Design-time Power and Thermal Optimizationsmentioning
“…Compact thermal models for MPSoCs have been widely used in designspace thermal explorations [52] and developing thermally-aware optimization schemes [12], as they provide superior speed-ups with acceptable accuracy compared to the finite-element methods. Initial work on faster modeling approach has been conducted by Koo et al [51].…”
Section: Compact Thermal Modeling For 3d Mpsocsmentioning
confidence: 99%
“…As for liquid-cooled 3D MPSoCs, Mizunuma et al use their thermal model to explore floorplanning solutions [72] to homogenize temperature distributions in this architecture [52]. In particular, this work explored the impact of the Polish expressions-based, simulated annealing (SA) thermal placer [72] on the allocation of modules in liquid-cooled 3D MPSoCs.…”
“…Microchannels are integrated into a substrate or a heat sink and then inserted between layers. Heat is transmitted by the intermediate structure through a coolant [12,22,29].…”
Abstract-For future multi-core processors, 3D integration is regarded as one of the most promising techniques since it improves performance and reduces power consumption by decreasing global wire length. However, 3D integration causes serious thermal problems since the closer proximity of heat generating dies makes existing thermal hotspots more severe. Conventional air cooling schemes are not enough for 3D multi-core processors due to the limit of the heat dissipation capability. Without more efficient cooling methods such as liquid cooling, the performance of 3D multi-core processors should be degraded by dynamic thermal management. In this paper, we examine the architectural impact of cooling methods on the 3D multi-core processor to find potential benefits of liquid cooling. We first investigate the thermal behavior and compare the performance of two different cooling schemes. We also evaluate the leakage power consumption and lifetime reliability depending on the temperature in the 3D multi-core processor.
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