Self-Folding Non-Invasive Miniature Robots: Progress and Trend in the Biomedical Field

Vienna Parnell
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引用次数: 1

Abstract

Developments in surgery have been geared toward minimizing the invasiveness of the procedure to improve both the treatment itself and the patient’s postoperative wellbeing. As such, attention has been directed toward reducing human error and miniaturizing clinical devices by developing smaller devices and robotic systems. While there have already been significant advancements in this area, apparatus can further benefit from being foldable, expandable, and further condensable. By promoting these characteristics, origami engineering, which extrapolates the fundamental principles of paper folding to real-world projects, has become increasingly prevalent in the biomedical field. This paper reviews the field of origami engineering, its fundamental mechanical and mathematical properties, and the recent progress in specific research areas. Then, this paper discusses several devices that have emerged over the past decade in detail based on their characteristics and implementations. Finally, this paper addresses the technical challenges and general research trend of selffolding non-invasive miniature robots.
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自折叠无创微型机器人:生物医学领域的进展与趋势
外科手术的发展旨在最大限度地减少手术的侵入性,以改善治疗本身和患者的术后健康。因此,人们的注意力已经转向通过开发更小的设备和机器人系统来减少人为错误和使临床设备小型化。虽然在这一领域已经取得了重大进展,但该设备可以进一步受益于可折叠、可扩展和可进一步冷凝。通过推广这些特性,折纸工程将纸张折叠的基本原理外推到现实世界的项目中,在生物医学领域变得越来越普遍。本文综述了折纸工程领域,折纸工程的基本力学和数学性质,以及在特定研究领域的最新进展。然后,本文根据其特点和实现方式,详细讨论了过去十年中出现的几种设备。最后,本文阐述了自折叠无创微型机器人的技术挑战和总体研究趋势。
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来源期刊
Nano Biomedicine and Engineering
Nano Biomedicine and Engineering Engineering-Biomedical Engineering
CiteScore
3.00
自引率
0.00%
发文量
9
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