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Capillary-enhanced two-phase micro-cooler using copper-inverse-opal wick with silicon microchannel manifold for high-heat-flux cooling application

Heungdong Kwon, Qianying Wu, Daeyoung Kong, Sougata Hazra, Kaiying Jiang, Sreekant Narumanchi, Hyoungsoon Lee, James W. Palko, Ercan M. Dede, Mehdi Asheghi, Kenneth E. Goodson

2024International Communications in Heat and Mass Transfer32 citationsDOI

Topics & Concepts

MicrochannelMaterials scienceHeat fluxCapillary actionSiliconMechanicsManifold (fluid mechanics)CopperFlux (metallurgy)InverseTwo-phase flowPhase (matter)ThermodynamicsFlow (mathematics)Heat transferComposite materialMechanical engineeringOptoelectronicsNanotechnologyPhysicsMetallurgyEngineeringQuantum mechanicsMathematicsGeometryHeat Transfer and OptimizationHeat Transfer and Boiling StudiesHeat Transfer Mechanisms
Capillary-enhanced two-phase micro-cooler using copper-inverse-opal wick with silicon microchannel manifold for high-heat-flux cooling application | Litcius