用于微型机器人全向无线能量传输的可穿戴3D发射器。

IF 4.9
Heng Zhang, Chi-Kwan Lee
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引用次数: 0

摘要

胶囊机器人已成为一种无创、无痛的胃肠检查诊断工具。然而,对高清视频和先进功能日益增长的需求大大增加了功耗,而胶囊的紧凑尺寸对电池施加了严格的限制。无线电力传输(WPT)为克服这一能源瓶颈提供了一个很有前途的解决方案。本文提出了一种可穿戴的三维发射线圈(3DTC)和一维接收线圈(1DRC),为胶囊机器人实现全方位、不间断的无线充电。通过从胶囊获取姿态数据,可穿戴3DTC的磁场可自适应控制,以最大限度地提高接收效率,尽管胶囊的位置和方向发生变化。胶囊内置的热和充电管理电路监控设备的温度、电池电压,并在必要时停止充电,以确保安全。除了展示最大接收功率1690兆瓦和峰值效率16.09%之外,这项工作还进一步研究了一系列实际挑战,包括对服装中柔性线圈弯曲的影响,各种胶囊运动下的充电稳健性以及热安全性。这些评价有助于更安全、更有效和更可持续的可食用生物医学设备。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wearable 3D Transmitter for Omnidirectional Wireless Energy Delivery for Microrobot.

Capsule robot has emerged as a non-invasive and painless diagnostic tool for gastrointestinal examination. However, the growing demand for high-definition video and advanced functionalities significantly increases power consumption, while the capsule's compact size imposes stringent battery constraints. Wireless power transfer (WPT) offers a promising solution to overcome this energy bottleneck. This paper presents a wearable three-dimensional transmitting coil (3DTC) and a one dimensional receiving coil (1DRC) to enable omnidirectional and uninterrupted wireless charging for capsule robots. By acquiring attitude data from the capsule, the magnetic field of the wearable 3DTC is adaptively controlled to maximise receiving efficiency despite changes in the capsule's position and orientation. The capsule's built-in thermal and charging management circuits monitor the device's temperature, battery voltage, and stop charging when necessary to ensure safety. Beyond demonstrating a maximum received power of 1690 mW and a peak efficiency of 16.09%, this work further examines a range of practical challenges including, the effects upon the flexible coil bending in garment, charging robustness under various capsule motions, and thermal safety. These evaluations contribute to safer, more efficient, and more sustainable ingestible biomedical devices.

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