• Title/Summary/Keyword: IGM-DG MOSFET

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Design of RF Receiver using Independent-Gate-Mode Double-Gate MOSFET (Independent-Gate-Mode Double-Gate MOSFET을 이용한 RF Receiver 설계)

  • Jeong, Na-Rae;Kim, Yu-Jin;Yun, Ji-Sook;Park, Sung-Min;Shin, Hyung-Soon
    • Journal of the Institute of Electronics Engineers of Korea SD
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    • v.46 no.10
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    • pp.16-24
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    • 2009
  • Independent-gate-mode double-gate(IGM-DG) MOSFET overcomes the limitation of 3-terminal device structure, and enables to operate with different voltages for front-gate and back-gate. Therefore, circuit designs becomes not only simple, but also area-efficient due to the controllability of the 4th terminal provided by IGM-DG MOSFETs. In this paper, an RF receiver utilizing IGM-DG MOSFETs is presented and also, the circuit performance is verified by the HSPICE simulations. Besides, the circuit analysis and optimization are performed for various IGM-DG characteristics.

Design of Optical Receiver Using Independent-Gate-Mode Double-Gate MOSFETs (Independent-Gate-Mode Double-Gate MOSFET을 이용한 Optical Receiver 설계)

  • Kim, Yu-Jin;Jeong, Na-Rae;Park, Sung-Min;Shin, Hyung-Soon
    • Journal of the Institute of Electronics Engineers of Korea SD
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    • v.47 no.8
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    • pp.13-22
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    • 2010
  • Independent-Gate-Mode Double-Gate(IGM-DG) MOSFET overcomes the limitation of bulk-MOSFET's channel controllability and enables to control the front and back-gate voltages independently. Therefore, circuit designs utilizing the IGM-DG MOSFETs provide the advantage of setting 4-terminal freely, hence achieving not only the performance improvement but also the larger scale integration. This paper presents a 15Gb/s optical receiver with a 1.0V power supply voltage, which consists of a transimpedance amplifier (TIA), a feedforward limiting amplifier (LA), and an output buffer. HSPICE simulations were conducted to confirm the circuit performance, and also to verify the circuit stability issues which may occur from the variations of process and supply voltage.