无电池力传感器用于膝关节植入物

S. Almouahed, C. Hamitouche, P. Poignet, E. Stindel
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引用次数: 4

摘要

人体内部的能量收集是为植入式长期生物医学设备供电的关键。在本文中,通过仿真评估了压电能量收集器嵌入定制的膝关节植入物中为射频发射器供电的性能。这个电力采集器由四个压电发电机和四个现成的电力调节电路组成。它可以从膝关节植入物内部在行走过程中耗散的动力中获取电能。研究结果表明,在模拟行走周期中,该电池有可能提供59.4兆瓦的恒定电力。这种调节功率可以操作现成的超低功率射频发射机。这可能会消除对可充电电池的需求,为膝关节植入物提供动力。所提出的压电发电机以及超微型电源调节和遥测电路可以集成在膝关节植入物中,而不会增加其物理尺寸或显著改变其几何形状。因此,它的动态功能和机械寿命可能不会受到影响。
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Battery-free force sensor for instrumented knee implant
Energy harvesting inside human body is crucial for powering implantable long-term biomedical devices. In this paper, the performance of a piezoelectric energy harvester embedded within custom-designed knee implant in powering RF transmitter was evaluated through simulations. This power harvester is composed of four piezoelectric generators along with four off-the-shelf power conditioning circuits. It can harvest electric power from dynamic forces dissipated inside knee implant during walking. The results demonstrate the possibility to deliver a constant electric power of 59.4mW during a simulated walking cycle. This conditioned power can operate an off-the-shelf ultra-low power RF transmitter. This may eliminate the need for rechargeable batteries to power instrumented knee implants. The proposed piezoelectric generator along with the ultra-miniature power conditioning and telemetry circuits may be integrated within the knee implant without increasing its physical size or changing its geometrical shape significantly with respect to the conventional one. Therefore, its dynamic functionality and mechanical longevity may not be affected.
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