材料科学
钻石
光电子学
热导率
宽禁带半导体
氮化镓
结温
焦耳加热
界面热阻
电子迁移率
热阻
纳米技术
热的
复合材料
图层(电子)
气象学
物理
作者
Zhe Cheng,Fengwen Mu,Luke Yates,Tadatomo Suga,Samuel Graham
标识
DOI:10.1021/acsami.9b16959
摘要
K)) was observed and material characterization was performed to link the interfacial structure with the TBC. Device modeling shows that the measured TBC of the bonded GaN/diamond interfaces can enable high-power GaN devices by taking full advantage of the ultrahigh thermal conductivity of single-crystal diamond. For the modeled devices, the power density of GaN-on-diamond can reach values ∼2.5 times higher than that of GaN-on-SiC and ∼5.4 times higher than that of GaN-on-Si with a maximum device temperature of 250 °C. Our work sheds light on the potential for room-temperature heterogeneous integration of semiconductors with diamond for applications of electronics cooling, especially for GaN-on-diamond devices.
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