自然启发纤维素为基础的活性材料:从2D到4D

Marta I. Magalhães, A. Almeida
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引用次数: 5

摘要

具有迷人性能的多功能材料和设备可以由纤维素和纤维素基复合材料组装而成,将功能与结构性能结合在一起。纤维素是最丰富的可再生材料之一,具有迷人的性能,如机械稳健性,生物相容性和生物降解性。纤维素是一种低成本和丰富的可生物降解资源,二氧化碳中性,在世界各地有各种各样的纤维。几千年来,大自然根据自己的需要完善了纤维素基材料,比如功能与结构。在纳米、微观和宏观尺度上模拟自然界中存在的分子结构是生产合成纤维素基活性材料的重要策略。首先介绍纤维素及其结构组织的简明背景,以及纤维素纳米材料的命名。展示了具有独特特征的自然设计材料的关键例子,例如“永恒”的颜色和水诱导的运动。仿生纤维和二维纤维基纤维素材料的生产在科学界引起了极大的关注。受自然启发的材料,注重功能和对外部刺激的反应。最近在文献中报道了一些生物启发的3d打印纤维素材料的例子。最后,打印纤维素材料从一维链或二维表面变形成三维形状,响应外部刺激,被报道。本综述的目的是讨论“自然启发”纤维素基活性材料领域的最新发展,包括设计、制造和具有现有趋势的灵感来源。
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Nature-Inspired Cellulose-Based Active Materials: From 2D to 4D
Multifunctional materials and devices with captivating properties can be assembled from cellulose and cellulose-based composite materials combining functionality with structural performance. Cellulose is one of the most abundant renewable materials with captivating properties, such as mechanical robustness, biocompatibility, and biodegradability. Cellulose is a low-cost and abundant biodegradable resource, CO2 neutral, with a wide variety of fibers available all over the world. Over thousands of years, nature has perfected cellulose-based materials according to their needs, such as function vs. structure. Mimicking molecular structures at the nano-, micro-, and macroscales existing in nature is a great strategy to produce synthetic cellulose-based active materials. A concise background of cellulose and its structural organization, as well as the nomenclature of cellulose nanomaterials, are first addressed. Key examples of nature-designed materials with unique characteristics, such as “eternal” coloration and water-induced movement are presented. The production of biomimetic fiber and 2D fiber-based cellulosic materials that have attracted significant attention within the scientific community are represented. Nature-inspired materials with a focus on functionality and response to an external stimulus are reported. Some examples of 3D-printed cellulosic materials bioinspired, reported recently in the literature, are addressed. Finally, printed cellulosic materials that morph from a 1D strand or 2D surface into a 3D shape, in response to an external stimulus, are reported. The purpose of this review is to discuss the most recent developments in the field of “nature-inspired” cellulose-based active materials regarding design, manufacturing, and inspirational sources that feature existing tendencies.
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