Manuel J. Carvajal Loaiza , Oscar I. Ojeda , Vanessa Restrepo
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引用次数: 0
摘要
从生物有机体中汲取灵感,对 "智能 "材料的追求一直是材料科学与工程领域的一个重要焦点。形状记忆材料,特别是形状记忆合金(SMA),已成为开发适应性和响应性材料的大有可为的平台。本文探讨了如何利用 Ecoflex 和镍钛 (Nitinol) 线的创新组合,创造一种生物启发变形表面。受生物机制的启发,这种变形表面具有出色的适应性,能精确地从二维形状无缝过渡到三维形状。详细的机械性能表征强调了材料特性的关键变化,表明在 20 °C 和 50 °C 温度条件下,镍钛丝的反作用力从 0.4 N 显著增加到 1 N。同时,Ecoflex 基体中嵌入的镍钛丝的反作用力也从 0.6 N 增至 1.2 N,反映出微观结构随温度的变化而变化。这项研究还阐明了这项技术的多功能性和可扩展性,凸显了它在航空航天、机器人、医疗设备和自适应材料等领域的多种应用潜力。这种受生物启发的变形表面为可定制的形状和可编程的转化提供了多功能基础,为在多个领域取得有影响力的进展铺平了道路。
Adaptive bioinspired morphing surface using temperature-responsive elastomer-SMA composites
The pursuit of "smart" materials, drawing inspiration from biological organisms, has been a significant focal point in the realm of material science and engineering. Shape memory materials, notably Shape Memory Alloys (SMAs), have emerged as promising platforms for the development of adaptive and responsive materials that undergo transformations in response to environmental stimuli. This article explores the creation of a bioinspired morphing surface that capitalizes on the innovative amalgamation of Ecoflex and Nitinol (NiTi) wires. Inspired by biological mechanisms, this morphing surface exemplifies remarkable adaptability, seamlessly transitioning from 2D to 3D shapes with precision. A detailed mechanical characterization underscores pivotal changes in material properties, showcasing a significant reaction force increase from 0.4 N to 1 N in NiTi wires at 20 °C and 50 °C. Concurrently, the embedded NiTi wire within the Ecoflex matrix exhibits a similar force increment from 0.6 N to 1.2 N, reflecting the microstructural alterations dependent on temperature. The study also elucidates the versatility and scalability of this technology, highlighting its potential for diverse applications in aerospace, robotics, medical devices, and adaptive materials. This bioinspired morphing surface offers a versatile foundation for customizable shapes and programmable transformations, paving the way for impactful advancements in a multitude of fields.
期刊介绍:
Extreme Mechanics Letters (EML) enables rapid communication of research that highlights the role of mechanics in multi-disciplinary areas across materials science, physics, chemistry, biology, medicine and engineering. Emphasis is on the impact, depth and originality of new concepts, methods and observations at the forefront of applied sciences.