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A Physics-Based Charge-Control Model for InP DHBT Including Current-Blocking Effect 被引量:4

A Physics-Based Charge-Control Model for InP DHBT Including Current-Blocking Effect
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摘要 We develop a physies-based charge-control lnP double hereto junction bipolar transistor model including three important effects: current blocking, mobile-charge modulation of the base-collector capacitance and velocity-field modulation in the transit time. The bias-dependent base-collector depletion charge is obtained analytically, which takes into account the mobile-charge modulation. Then, a measurement based voltage-dependent transit time formulation is implemented. As a result, over a wide range of biases, the developed model shows good agreement between the modeled and measured S-parameters and cutoff frequency. Also, the model considering current blocking effect demonstrates more accurate prediction of the output characteristics than conventional vertical bipolar inter company results. We develop a physies-based charge-control lnP double hereto junction bipolar transistor model including three important effects: current blocking, mobile-charge modulation of the base-collector capacitance and velocity-field modulation in the transit time. The bias-dependent base-collector depletion charge is obtained analytically, which takes into account the mobile-charge modulation. Then, a measurement based voltage-dependent transit time formulation is implemented. As a result, over a wide range of biases, the developed model shows good agreement between the modeled and measured S-parameters and cutoff frequency. Also, the model considering current blocking effect demonstrates more accurate prediction of the output characteristics than conventional vertical bipolar inter company results.
出处 《Chinese Physics Letters》 SCIE CAS CSCD 2009年第7期280-283,共4页 中国物理快报(英文版)
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参考文献15

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同被引文献15

  • 1D'Amore M, Monier C, Lin S, et al. A 0.25 mum InP DHBT 200GHz + Static Frequency Divider [ J ]. 2009 An- nual leee Compound Semiconductor Integrated Circuit Sym- posium - 2009 leee Csic Symposium, Technical Digest 2009, 2009 : 165 - 1 68.
  • 2Munkyo S, Urteaga M, Young A, et al. A 305-330 + GHz 2:1 Dynamic Frequency Divider Using InP HBTs [ J ]. IEEE Microwave and Wireless Components Letters, 2010: 468 - 470.
  • 3Knapp H, Meister T F, Liebl W, et al. 168 GHz dynamic frequency divider in SiGe:C bipolar technology [ J ]. 2009 IEEE Bipolar/BiCMOS Circuits and Technology Meeting - BCTM, 2009:190 - 1931209.
  • 4Su Y, Jin Z, Cheng W, et al. An InGaAs/InP 40 GHz CML static frequency divider [ J ]. Journal of Semiconduc- tors, 2011 : 035008 (035004 pp. ).
  • 5Leijun X, Zhigong W, Qin L, et ai. Modelling and Design of a Wideband Marchand Balun [ J ]. 2010 Asia-Pacific Symposium on Electromagnetic Compatibility (APEMC 2010), 2010:1374 - 1377.
  • 6Sun J S, Chen G Y, Huang S Y, et al. The wideband marchand balun transition design [ J ]. 2006 7th Interna- tional Symposium on Antennas, Propagation and EM Theo- ry, Vols 1 and 2, Proceedings, 2006: 796- 799.
  • 7O. Kappeler, A. Leuther, W. Benz, et al. 108 GHz dy- namic frequency divider in 100 nm metamorphic enhance- ment HEMT technology [ J ] Electron. Lett., 2003, 39: 989 - 990.
  • 8Satoshi Tsunashima, Hiroki Nakajima, Eiichi Sano, et al. 90-GHz operation of a novel dynamic frequency divider u- sing InP/InGaAs HBTs [ J ]. 2002 Indium Phosphide and Related Materials conference, 2002:43 - 46.
  • 9Satoshi Tsunashima, Koichi Murata, Minoru Ida, et al. A 15p-GHz dynamic frequency divider using lnPllnGaAs DH- BTs [ J]. IEEE GaAs Digest, 2003:284 - 287.
  • 10金智,苏永波,程伟,刘新宇,徐安怀,齐鸣.High-Speed InGaAs/InP Double Heterostructure Bipolar Transistor with High Breakdown Voltage[J].Chinese Physics Letters,2008,25(7):2683-2685. 被引量:5

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