Substrate Effects in GaN-on-Silicon RF Device Technology

被引:0
|
作者
Chandrasekar H. [1 ]
机构
[1] Department of Electrical and Computer Engineering, Ohio State University, 205 Dreese Labs, 2015 Neil Avenue, Columbus, 43210, OH
关键词
back-biasing; current collapse; dielectric loss; GaN devices; GaN-on-Silicon; highly-resistive Si substrate; parasitic channel; RF loss; temperature-dependent loss;
D O I
10.1142/S0129156419400019
中图分类号
学科分类号
摘要
The influence of the semiconducting Si substrate on the performance of GaN-on-Si RF technology is reviewed. Firstly, the formation of a parasitic conduction channel at the substrate-epitaxy interface is discussed in terms of its physical mechanism and its influence on RF loss, followed by schemes to minimize this effect. Secondly, it is shown that the presence of the parallel channel serves to backbias the III-nitride epitaxial stack and lead to current collapse even on the highly-resistive Si substrates used for RF device fabrication, analogous to GaN-on-doped Si power devices. Strategies to mitigate this issue are also presented and critically compared. Thirdly, thermal generation of carriers in Si at elevated operating temperatures leading to increased substrate loss is quantified, also followed by a discussion of possible techniques to reduce its influence on RF loss. © 2019 World Scientific Publishing Company.
引用
收藏
相关论文
共 50 条
  • [1] GaN-on-Silicon Integration Technology
    Ng, G. I.
    Arulkumaran, S.
    Vicknesh, S.
    Wang, H.
    Ang, K. S.
    Kumar, C. M. Manoj
    Ranjan, K.
    Lo, G-Q
    Tripathy, S.
    Boon, C. C.
    Lim, W. M.
    PROCEEDINGS OF THE 2012 IEEE INTERNATIONAL SYMPOSIUM ON RADIO-FREQUENCY INTEGRATION TECHNOLOGY (RFIT), 2012, : 159 - 161
  • [2] Improving GaN-on-silicon properties for GaN device epitaxy
    Dadgar, A.
    Hempel, T.
    Blaesing, J.
    Schulz, O.
    Fritze, S.
    Christen, J.
    Krost, A.
    PHYSICA STATUS SOLIDI C: CURRENT TOPICS IN SOLID STATE PHYSICS, VOL 8, NO 5, 2011, 8 (05): : 1503 - 1508
  • [3] GaN-on-Silicon Devices and Technologies for RF and Microwave Applications
    Hsu, Shawn S. H.
    Tsou, Chuan-Wei
    Lian, Yi-Wei
    Lin, Yu-Syuan
    2016 IEEE INTERNATIONAL SYMPOSIUM ON RADIO-FREQUENCY INTEGRATION TECHNOLOGY (RFIT), 2016,
  • [4] Lateral epitaxial overgrowth of GaN on a patterned GaN-on-silicon substrate by molecular beam epitaxy
    Wang, Yongjin
    Hu, Fangren
    Hane, Kazuhiro
    SEMICONDUCTOR SCIENCE AND TECHNOLOGY, 2011, 26 (04)
  • [5] Low Contact Resistance CMOS-Compatible RF GaN-on-Silicon HEMTs
    Lu, Hao
    Si, Zeyan
    Hou, Bin
    Yang, Ling
    Ma, Xiaohua
    Hao, Yue
    2021 IEEE 8TH WORKSHOP ON WIDE BANDGAP POWER DEVICES AND APPLICATIONS (WIPDA), 2021, : 75 - 78
  • [6] CHARACTERIZATION OF GAN CANTILEVERS FABRICATED WITH GAN-ON-SILICON PLATFORM
    Lv, J. N.
    Yang, Z. C.
    Yan, G. Z.
    Cai, Y.
    Zhang, B. S.
    Chen, K. J.
    2011 IEEE 24TH INTERNATIONAL CONFERENCE ON MICRO ELECTRO MECHANICAL SYSTEMS (MEMS), 2011, : 388 - 391
  • [7] A monolithically integrated micro-LED display based on GaN-on-silicon substrate
    Jung Hun, Choi
    Lee, Seung Jun
    Kwon, Kyu Oh
    Choi, Jae Yong
    Jung, Taeil
    Han, Myungsoo
    Han, Seung Jun
    APPLIED PHYSICS EXPRESS, 2020, 13 (02)
  • [8] High Electron Confinement under High Electric Field in RF GaN-on-Silicon HEMTs
    Medjdoub, Farid
    Kabouche, Riad
    Dogmus, Ezgi
    Linge, Astrid
    Zegaoui, Malek
    ELECTRONICS, 2016, 5 (01):
  • [9] GaN-on-silicon MicroLEDs for neural interfaces
    Kim, Kanghwan
    Wu, Fan
    Wise, Kensall D.
    Yoon, Euisik
    MICRO LEDS, 2021, 106 : 123 - 172
  • [10] High voltage GaN-on-silicon HEMT
    Boles, T.
    Varmazis, C.
    Carlson, D.
    Palacios, T.
    Turner, G. W.
    Molnar, R. J.
    PHYSICA STATUS SOLIDI C: CURRENT TOPICS IN SOLID STATE PHYSICS, VOL 10, NO 5, 2013, 10 (05): : 844 - 848