• Journal of Infrared and Millimeter Waves
  • Vol. 40, Issue 5, 647 (2021)
Zi-Xian WU1, Cheng GUO1、*, Xiao-Zhu WEN1, Xu-Bo SONG2, Shi-Xiong LIANG2, Guo-Dong GU2, Li-Sen ZHANG2, Yuan-Jie LYU2, An-Xue ZHANG1, and Zhi-Hong FENG2、*
Author Affiliations
  • 1School of Electronic Science and Engineering,Xi'an Jiaotong University,Xi'an 710049,China
  • 2Hebei Semiconductor Cooperation,China Electronics Technology Group Corporation,Shijiazhuang 050051,China
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    DOI: 10.11972/j.issn.1001-9014.2021.05.011 Cite this Article
    Zi-Xian WU, Cheng GUO, Xiao-Zhu WEN, Xu-Bo SONG, Shi-Xiong LIANG, Guo-Dong GU, Li-Sen ZHANG, Yuan-Jie LYU, An-Xue ZHANG, Zhi-Hong FENG. Design of high power tripler based on on-chip schottky diodes[J]. Journal of Infrared and Millimeter Waves, 2021, 40(5): 647 Copy Citation Text show less
    Schematic and 3-D model of the 110 and 220 GHz balanced triplers:(a)Schematic of the balanced triplers;(b)3-D model of 110 GHz tripler;(c)3-D model of 220 GHz tripler
    Fig. 1. Schematic and 3-D model of the 110 and 220 GHz balanced triplers:(a)Schematic of the balanced triplers;(b)3-D model of 110 GHz tripler;(c)3-D model of 220 GHz tripler
    3-D model of integrated on-chip capacitance:(a)Top view of integrated on-chip capacitor and surrounding circuits;(b)Enlarged side view of integrated on-chip capacitor
    Fig. 2. 3-D model of integrated on-chip capacitance:(a)Top view of integrated on-chip capacitor and surrounding circuits;(b)Enlarged side view of integrated on-chip capacitor
    3-D model of integrated on-chip capacitance:(a)Top view of integrated on-chip capacitor and surrounding circuits;(b)Enlarged side view of integrated on-chip capacitor
    Fig. 3. 3-D model of integrated on-chip capacitance:(a)Top view of integrated on-chip capacitor and surrounding circuits;(b)Enlarged side view of integrated on-chip capacitor
    Configuration of proposed band stop filter in tripler
    Fig. 4. Configuration of proposed band stop filter in tripler
    Simulated results of the band stop filter and stepped impedance LPF:(a)Simulated results for 110 GHz tripler;(b)Simulated results for 220 GHz tripler
    Fig. 5. Simulated results of the band stop filter and stepped impedance LPF:(a)Simulated results for 110 GHz tripler;(b)Simulated results for 220 GHz tripler
    Test module of 110 GHz tripler and details of the circuits:(a)The split-block of 110 GHz tripler;(b)Enlarged view of surrounding circuits and the chip in tripler;(c)Enlarged view of the details on diodes
    Fig. 6. Test module of 110 GHz tripler and details of the circuits:(a)The split-block of 110 GHz tripler;(b)Enlarged view of surrounding circuits and the chip in tripler;(c)Enlarged view of the details on diodes
    Test platform of 110/220 GHz tripler
    Fig. 7. Test platform of 110/220 GHz tripler
    Measured results of 110 GHz tripler
    Fig. 8. Measured results of 110 GHz tripler
    Test module of 220 GHz tripler and details of the circuits:(a)The split-block of 220 GHz tripler;(b)Enlarged view of surrounding circuits and the chip in tripler;(c)Enlarged view of single path
    Fig. 9. Test module of 220 GHz tripler and details of the circuits:(a)The split-block of 220 GHz tripler;(b)Enlarged view of surrounding circuits and the chip in tripler;(c)Enlarged view of single path
    Measured and simulated results of 220 GHz tripler
    Fig. 10. Measured and simulated results of 220 GHz tripler
    文献倍频系数

    频率范围

    (GHz)

    最大输出

    功率(mW)

    峰值效率二极管工艺
    8×3200-22017.51.5%GaN
    14]-1×3200-23038.217.8%GaAs
    14]-2×3205-23018.44.7%GaN
    22×3211-226177.3%GaAs
    27×3216-2326.35%GaAs
    本文×3210-2254515%GaAs
    Table 1. Comparison of several types of triplers operating at 220 GHz
    Zi-Xian WU, Cheng GUO, Xiao-Zhu WEN, Xu-Bo SONG, Shi-Xiong LIANG, Guo-Dong GU, Li-Sen ZHANG, Yuan-Jie LYU, An-Xue ZHANG, Zhi-Hong FENG. Design of high power tripler based on on-chip schottky diodes[J]. Journal of Infrared and Millimeter Waves, 2021, 40(5): 647
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