用于组织扩张的化学反应驱动型无系容积变化机器人胶囊

IF 3.4 Q2 ENGINEERING, BIOMEDICAL IEEE transactions on medical robotics and bionics Pub Date : 2024-09-20 DOI:10.1109/TMRB.2024.3464728
Kaan Esendag;Mark E. McAlindon;Daniela Rus;Shuhei Miyashita;Dana D. Damian
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引用次数: 0

摘要

机器人胶囊提供了进入胃肠道的另一种途径,病人的不适感极小。随着毫微到微型机器人能力的提高,使用机器人胶囊的可能性也在增加,不仅可用于检查,还可用于外科手术。为了帮助在肠道内进行手术,胶囊可用于扩大手术部位,并固定在肠壁上以保持自身的位置。本文介绍了一种无系绳机器人胶囊,它可以利用化学反应提供体积膨胀,而无需机载电子元件。这种膨胀是基于可安全摄入的化学物质之间的反应,并在安全范围内的磁场和温度下进行操作。该胶囊能够在 44 分钟内膨胀到大于小肠直径,并提供 0.27N 的锚定力。我们建立并模拟了反应过程的理论模型,以预测胶囊膨胀的行为,并通过实验进行了验证。本文介绍的设计和模拟可用于根据特定临床需求制造胶囊。这项工作还为体内外科手术应用中的远程化学编程技术提供了可能性。
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A Chemical Reaction-Driven Untethered Volume Changing Robotic Capsule for Tissue Dilation
Robotic capsules provide an alternative route of entry to the gastrointestinal tract with minimal discomfort to patients. As capabilities of milli to micro robots progress, the potential of using robotic capsules not just for inspection, but for surgical procedures increase. To aid operations in the intestine, the capsule could be used to expand the site of surgery and anchoring to the intestinal walls to keep itself in place. This paper presents an untethered robotic capsule that can provide volumetric expansion using a chemical reaction without on-board electronic components. The expansion is based on the reaction between chemicals that are safe for ingestion, operated with magnetic fields and temperatures that are within safe limits. The capsule was able to expand greater than the diameter of the small intestine for 44 minutes and provided 0.27N of anchoring force. A theoretical model of the reaction process was built and simulated to predict the behavior of the capsule expansion and validated through the experiments. The design and the simulation presented in this paper can be used for fabricating capsules to specific clinical needs. The work also opens up the possibility of untethered technologies that are remotely and chemically programmed for in-vivo surgical applications.
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Table of Contents IEEE Transactions on Medical Robotics and Bionics Society Information Guest Editorial Special section on the Hamlyn Symposium 2023—Immersive Tech: The Future of Medicine IEEE Transactions on Medical Robotics and Bionics Publication Information IEEE Transactions on Medical Robotics and Bionics Information for Authors
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