游泳的基本模式对应于形状的基本模式:工程I型,U型和S型游泳者

Priyanka Sharan, Charlie Maslen, Berk Altunkeyik, I. Rehor, J. Simmchen, T. Montenegro-Johnson
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引用次数: 4

摘要

水凝胶由于其生物相容性、可调节孔隙度、易于功能化、可调节形状和杨氏模量而受到越来越多的关注。最初的工作已经认识到在微观尺度上赋予这些非平衡特性的潜力,并设想了广泛的生物医学应用。本文提出了一种简单的策略,将多种游泳模式整合到通过停止流动光刻(SFL)产生的过氧化氢酶推进的水凝胶体中,并研究了气泡排出产生的不同动力学。研究发现,对于具有活动极点和惰性中部的“土星”细丝,其基本游动模态对应于屈曲弹性细丝可获得的前三种基本形状模态,即I型、U型和S型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fundamental Modes of Swimming Correspond to Fundamental Modes of Shape: Engineering I‐, U‐, and S‐Shaped Swimmers
Hydrogels have received increased attention due to their biocompatible material properties, adjustable porosity, ease of functionalization, tuneable shape, and Young's moduli. Initial work has recognized the potential that conferring out‐of‐equilibrium properties to these on the microscale holds and envisions a broad range of biomedical applications. Herein, a simple strategy to integrate multiple swimming modes into catalase‐propelled hydrogel bodies, produced via stop‐flow lithography (SFL), is presented and the different dynamics that result from bubble expulsion are studied. It is found that for “Saturn” filaments, with active poles and an inert midpiece, the fundamental swimming modes correspond to the first three fundamental shape modes that can be obtained by buckling elastic filaments, namely, I, U, and S‐shapes.
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