期刊文献+

UWB在生物医学电子中的应用研究进展 被引量:1

Progress of applied research on UWB in biomedical electronics
下载PDF
导出
摘要 在介绍UWB技术在植入式和体外生物医学电子系统中的应用研究成果及进展的基础上,分析其在生物医学电子系统中广泛应用所面临关键技术、难点以及可能的解决方法;最后讨论了生物医学电子系统的发展方向,使UWB在生物医学中所需要研究的问题和方向更加具体化和明确化。 Based on the introduction about the development of ultra wide band (UWB) technique in application research achievement and progress of implantable and off-body biomedical electronic systems,the key techniques,challenges and possi-ble solutions of the implementation of UWB biomedical electronic devices are discussed. The developing trend of the biomedical electronic devices are discussed to make the issues which need to be researched in biomedicine using UWB technology and the research direction more materialized and specified.
出处 《现代电子技术》 2014年第10期132-136,140,共6页 Modern Electronics Technique
基金 国家自然科学基金(61166004 61161003 61264001) 广西高校科研教育厅立项项目(201106LX203)资助
关键词 超宽带技术 生物医学电子系统 植入式电子系统 无线体域网 ultra wide band technology biomedical electronic technology implantable electronic device wireless body area network
  • 相关文献

参考文献2

二级参考文献51

  • 1[23]Schwan M A K,Troyk P R.High efficiency driver for transcutaneously coupled coils [A].Engineering in Medicine and Biology Society,Images of the Twenty-First Century,Proceedings of the Annual International Conference of the IEEE Engineering [C].USA:IEEE,1989.1403-1404.
  • 2[24]Scanlon W G,Burns B,Evans N E.Radiowave propagation from a tissue-implanted source at 418 MHz and 916.5 MHz [J].Biomedical Engineering,IEEE Transactions on,2000,47(4):527-534.
  • 3[25]Arnold R,Manck O.An implantable low power mixed signal telemetry chip for measurements of the frequency dependent impedance of transplanted kidneys for rejection control [A].Low Power/Low Voltage Mixed-Signal Circuits and Systems,2001.(DCAS-01).Proceedings of the IEEE 2nd Dallas CAS Workshop [C].USA:IEEE,2001.3-6.
  • 4[26]Yamu Hu,Sawan M.CMOS front-end amplifier dedicated to monitor very low amplitude signal from implantable sensors [A].Circuits and Systems,2000.Proceedings of the 43rd IEEE Midwest Symposium [C].Lansing MI:IEEE,2000,1.298-301.
  • 5[27]Papathanasiou K,Ehmann T L.An implantable CMOS signal conditioning system for recording nerve signals with cuff electrodes [A].Circuits and Systems,Proceedings.ISCAS 2000 Geneva.The 2000 IEEE International Symposium [C].Geneva,Switzerland:IEEE,2000.281-284.
  • 6[28]Nielsen J H,Lehmann T.An implantable CMOS amplifier for nerve signals [A].Electronics,Circuits and Systems,2001.ICECS 2001.The 8th IEEE International Conference [C].USA:IEEE,2001.1183-1186.
  • 7[29]Enz C C,Temes G C.Circuit techniques for reducing the effects of op-amp imperfections:autozeroing,correlated double sampling,and chopper stabilization [J].Proceedings of the IEEE,1996,84(11):1584-1614.
  • 8[30]Kyung Hwan Kim,Sung June Kim.Noise performance design of CMOS preamplifier for the active semiconductor neural probe [J].Biomedical Engineering,IEEE Transactions on,2000,47(8):1097-1105.
  • 9[31]Harb A,Sawan M.Low-power CMOS implantable nerve signal analog processing circuit [A].Electronics,Circuits and Systems,2000.ICECS 2000.The 7th IEEE International Conference [C].Canada:IEEE,2000.911-914.
  • 10[32]Laizou P C.Signal-processing techniques for cochlear implants [J].IEEE Engineering in Medicine and Biology Magazine,1999,18(3):34-46.

共引文献16

同被引文献2

引证文献1

二级引证文献1

相关作者

内容加载中请稍等...

相关机构

内容加载中请稍等...

相关主题

内容加载中请稍等...

浏览历史

内容加载中请稍等...
;
使用帮助 返回顶部