双侧耗尽浅斜角端接GaN-on-GaN p-n结二极管2.8 ~ 3.5 MV/cm平行平面击穿场

T. Maeda, T. Narita, Hiroyuki Ueda, M. Kanechika, T. Uesugi, T. Kachi, T. Kimoto, M. Horita, Jun Suda
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引用次数: 23

摘要

我们报道了具有新颖斜面结构的同外延GaN p-n结二极管。制备了掺杂浓度相当的n层和p层。利用TCAD模拟发现,结构中不存在电场拥挤现象。所制备的器件击穿电压为180 ~ 480 V,漏电流小,具有优异的雪崩性能。温度升高时击穿电压升高。击穿时,所有器件的整个p-n结几乎均匀发光。这些结果是设备发生均匀雪崩击穿的有力证据。我们仔细地表征了击穿时的耗尽层宽度,并获得了2.8-3.5 MV/cm的平行平面击穿电场,这是目前报道的非穿孔GaN垂直器件中最好的。
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Parallel-Plane Breakdown Fields of 2.8-3.5 MV/cm in GaN-on-GaN p-n Junction Diodes with Double-Side-Depleted Shallow Bevel Termination
We report homoepitaxial GaN p-n junction diodes with novel beveled-mesa structures. The n-layers and p-layers, the doping concentrations of which are comparable, were prepared. We found that electric field crowding does not occur in the structure using TCAD simulation. The fabricated devices showed the breakdown voltages of 180–480 V, small leakage currents, and excellent avalanche capabilities. The breakdown voltages increased at elevated temperature. At the breakdown, nearly uniform luminescence in the entire p-n junctions was observed in all the devices. These results are strong evidences that the uniform avalanche breakdowns occurred in the devices. We carefully characterized the depletion layer width at the breakdown, and the parallel-plane breakdown electric fields of 2.8-3.5 MV/cm were obtained, which are among the best of the reported non-punch-through GaN vertical devices.
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