Young Darrin J
Case Western Reserve University, Cleveland, Ohio, USA.
Annu Int Conf IEEE Eng Med Biol Soc. 2009;2009:3221-4. doi: 10.1109/IEMBS.2009.5333163.
Wireless powering and data telemetry techniques for two biomedical implant studies based on (1) wireless in vivo EMG sensor for intelligent prosthetic control and (2) adaptively RF powered implantable bio-sensing microsystem for real-time genetically engineered mice monitoring are presented. Inductive-coupling-based RF powering and passive data telemetry is effective for wireless in vivo EMG sensing, where the internal and external RF coils are positioned with a small separation distance and fixed orientation. Adaptively controlled RF powering and active data transmission are critical for mobile implant application such as real-time physiological monitoring of untethered laboratory animals. Animal implant studies have been successfully completed to demonstrate the wireless and batteryless in vivo sensing capabilities.
本文介绍了两项生物医学植入研究的无线供电和数据遥测技术,分别基于:(1)用于智能假肢控制的无线体内肌电图传感器;(2)用于实时监测基因工程小鼠的自适应射频供电植入式生物传感微系统。基于电感耦合的射频供电和无源数据遥测对于无线体内肌电图传感是有效的,其中内部和外部射频线圈以较小的间隔距离和固定方向放置。自适应控制的射频供电和主动数据传输对于移动植入应用(如对不受束缚的实验动物进行实时生理监测)至关重要。动物植入研究已成功完成,以证明无线和无电池的体内传感能力。