人工纳米游泳者螺旋推进系统的实验研究:低雷诺数

Paul Varghese, S. Nain, J. Rathore, N. N. Sharma
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引用次数: 1

摘要

纳米技术领域的发展使纳米机器人的生产及其在人体内的各种生物医学应用成为可能。将纳米机器人引入人体面临着各种各样的挑战。其中一个主要的挑战是它的推进机制。由于流型是低雷诺数的,一般的推进系统在这种介质中不可能产生净向前推力。刚性螺旋可以产生推力,是低雷诺数推进的理想起点。本文在宏观上制备了一组螺旋鞭毛,并利用阻力理论研究了波长、丝径和螺旋直径的变化对刚性螺旋长丝产生推力的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Experimental study on helical propulsion system of artificial nanoswimmer: Low reynolds number
Development in the field of nanotechnology makes possible the production of nanorobots and its usage inside the human body for various biomedical applications. Introducing a nanorobot inside a human body faces various challenges. One of the major challenges is its propulsion mechanism. Since the flow regime is of low Reynolds number, normal propulsion systems would find itself impossible to produce net forward thrust in such media. A rigid helix is found to produce thrust force and is a perfect place to start with in low Reynolds number propulsion. In this paper, a set of helical flagella has been fabricated in macro domain and the effect of change of wavelength, wire diameter and helix diameter is investigated on the thrust force produced by rigid helical filament using Resistive Force Theory.
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