Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/1847
標題: 低驅動電壓之可調變微帶通濾波器
Tunable Micro Bandpass Filters with Low Driving Voltage
作者: 洪俊榆
Hong, Jin-Yu
關鍵字: tunable-filter;可變濾波器;tunable-inductor;RF switch;CMOS;Q3D;可變電感;射頻開關;CMOS;Q3D
出版社: 機械工程學系所
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摘要: 
本論文利用TSMC標準0.35μm 2P4M CMOS製程製作可調變微帶通濾波器。可調變微帶通濾波器變頻原理,是藉由調變電路中的串聯電感值改變濾波頻段。串聯電感值改變的方法,為利用p-n junction射頻開關的開路與斷路達成變換之效果。此p-n junction射頻開關所需驅動電壓小於2伏特,其消耗功率低於應用可變電容的可調變帶通濾波器。測試結果顯示可調變微帶通濾波器在p-n junction射頻開關off時,濾波器中心頻率為1.10 GHz,插入損失為-26.895 dB及3 dB頻寬超過900 MHz。在開關on時,濾波器中心頻率為2.30 GHz,插入損失為-31.258 dB及3 dB頻寬亦超過900 MHz。量測結果顯示可調變微帶通濾波器的調變頻率比超過100%(1.1-2.3GHz)。於微電感量測部份,結果顯示電感值最大為4.077 nH,Q值最大點出現在頻率11.1 GHz,其值為15.291,且共振頻率超過26 GHz。
本文在附錄A.中也提供一種新型電路的微壓力感測器之製作,其壓力量測範圍為0~500 kPa,靈敏度約0.0254 mV/kPa。

This study investigates the fabrication of tunable micro bandpass filters using the standard TSMC 0.35μm 2P4M (double polysilicon four metal) CMOS (complementary metal oxide metal semiconductor) process. The micro tunable bandpass filters are tuned by the inductance of the series inductors, which are controlled by p-n junction switches. The driving voltage of the tunable micro bandpass filters is approximately 2V. In addition, its power consumption is less than the type of tunable capacitance filters.
When the p-n junction switches are unactuated, the insertion loss of the tunable
micro bandpass filter is -26.895dB at 1.10GHz, and the 3dB bandwidth is over 900MHz. When the switches are actuated, the insertion loss is -31.258dB at 2.3GHz, and the bandwidth is also over 900MHz.The experimental results show that the tunable micro bandpass filter has a tunability of 109%(1.1-2.3GHz).The maximum Q factor of the micro inductor is 15.291 at 11.1GHz, and the maximum inductance is 4.077nH. In addition, the resonant frequency of the micro inductor can be over 26GHz.
The fabrication of a micro-pressure sensor with a novel circuit is presented in the appendix A. The sensitivity of the pressure sensor is 0.0254mV/kPa in pressure range of 0-500kPa.
URI: http://hdl.handle.net/11455/1847
其他識別: U0005-1408200715283400
Appears in Collections:機械工程學系所

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