Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission
博士 === 國立中正大學 === 電機工程研究所 === 107 === This thesis presents a system chip for intelligent health care system with ECG signal acquisition and wireless transmission. This system is according to EPCglobal class-1 generation-2 communication protocol. Based on this protocol, proposed System-on-a-chip (SoC...
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ndltd-TW-107CCU004420142019-05-16T01:31:56Z http://ndltd.ncl.edu.tw/handle/2tw9mr Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission 應用於生醫訊號擷取與無線傳輸系統晶片之 低功耗與高效能矽智財研究 WANG, CHENG-PIN 王承斌 博士 國立中正大學 電機工程研究所 107 This thesis presents a system chip for intelligent health care system with ECG signal acquisition and wireless transmission. This system is according to EPCglobal class-1 generation-2 communication protocol. Based on this protocol, proposed System-on-a-chip (SoC) can transmit signals without active RF circuits to achieve low power consumption and extend operating time of device. By fabricating a prototype chip to validate the proposed concept, the measurement results confirm that the SoC has characteristic of low power consumption, high data transmission efficiency, physiological signal recognition, and high-resolution signal conversion. The overall system includes a passive RF front-end circuit, a power management unit, a baseband processor, and an ECG signal acquisition circuit. The RF front-end circuit demodulates the received wireless signal and transmits the commands and parameters from the transmitter to the baseband processor. The baseband processor then controls the operation of the system according to the received commands and parameters. The ECG signal acquisition circuit includes a preamplifier, an analog filter, and a digital analog converter. The function of ECG signal acquisition circuit is to convert the physical electrical signal from electrode into digital information, and transmit the digitalized information to the external device through the baseband processor and backscatter. In the research of low-power analog circuit, this thesis proposes a low power analog filter with automatic bandwidth calibration mechanism. With the proposed transconductance operational amplifier, the power consumption of filter can be reduced by 46% while effectively increasing the linearity of the filter. Yu-Sun Chu Shuenn-Yuh Lee 朱元三 李順裕 2019 學位論文 ; thesis 91 en_US |
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博士 === 國立中正大學 === 電機工程研究所 === 107 === This thesis presents a system chip for intelligent health care system with ECG signal acquisition and wireless transmission. This system is according to EPCglobal class-1 generation-2 communication protocol. Based on this protocol, proposed System-on-a-chip (SoC) can transmit signals without active RF circuits to achieve low power consumption and extend operating time of device. By fabricating a prototype chip to validate the proposed concept, the measurement results confirm that the SoC has characteristic of low power consumption, high data transmission efficiency, physiological signal recognition, and high-resolution signal conversion. The overall system includes a passive RF front-end circuit, a power management unit, a baseband processor, and an ECG signal acquisition circuit. The RF front-end circuit demodulates the received wireless signal and transmits the commands and parameters from the transmitter to the baseband processor. The baseband processor then controls the operation of the system according to the received commands and parameters. The ECG signal acquisition circuit includes a preamplifier, an analog filter, and a digital analog converter. The function of ECG signal acquisition circuit is to convert the physical electrical signal from electrode into digital information, and transmit the digitalized information to the external device through the baseband processor and backscatter. In the research of low-power analog circuit, this thesis proposes a low power analog filter with automatic bandwidth calibration mechanism. With the proposed transconductance operational amplifier, the power consumption of filter can be reduced by 46% while effectively increasing the linearity of the filter.
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Yu-Sun Chu |
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Yu-Sun Chu WANG, CHENG-PIN 王承斌 |
author |
WANG, CHENG-PIN 王承斌 |
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WANG, CHENG-PIN 王承斌 Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission |
author_sort |
WANG, CHENG-PIN |
title |
Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission |
title_short |
Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission |
title_full |
Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission |
title_fullStr |
Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission |
title_full_unstemmed |
Research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission |
title_sort |
research of low power and high performance silicon intellectual property for system-on-chip with bio-signal acquisition and wireless transmission |
publishDate |
2019 |
url |
http://ndltd.ncl.edu.tw/handle/2tw9mr |
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