Reinforce Fabricated Nano-Composite Matrixes for Modernization of S & T in New Millennium

R. Dongre
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引用次数: 1

Abstract

Rational fabrication of futuristic smart materials like polymer-derived nanocom-posites/matrixes is ever desirable due to innate worth in advancement and growth of S&T. Certain nanocomposites are designed from metal-polymeric blends through altering varied parameters like shear stress, shape, size, rate, concentration and processing time, which are best used as fillers. Reinforced fabricated polymer nanocomposites possess exclusive physicochemical characteristics like non-Newtonian/ constant viscosity-free stress, time-dependent mechanics, facile shear-skeletal revisions and viscoplastic course controls. Metal-derived nanocomposites/matrixes showed substantial inherent rheology being vulnerable for designing viable applicability in photovoltaics, catalysis, optics, drug delivery, smart material and energy storage. Bottom-up technique is used for self- and directed-assembly of polymer-based building blocks owing to robust fabricated and efficiently manipulated/targeted reinforced 1D, 2D or 3D nanostructures. This chapter reviews some contemporary advances in reconfiguration of rational designing of certain polymeric nanostruc-tures/composites with current and futuristic developments. This overview highlights significance of assured reinforced matrixes in S&T besides disclosed fundamental principles involved in material designing/engineering of multifaceted nanomaterials. Assorted advanced developments are made to avail futuristic prospective of biopolymers, viz. chitin, chitosan, cellulose and lignin in order to offer unequivocally myriad applications in modernization of science and technology in new millennium.
面向新世纪科技现代化的增强纳米复合材料
合理制造未来智能材料,如聚合物衍生的纳米复合材料/基质,由于科技进步和发展的内在价值,一直是可取的。通过改变剪切应力、形状、尺寸、速率、浓度和加工时间等各种参数,可以设计出由金属聚合物混合而成的纳米复合材料,这些参数最适合用作填料。增强合成聚合物纳米复合材料具有独特的物理化学特性,如非牛顿/恒定无粘应力,随时间变化的力学,易于剪切-骨架修正和粘塑性过程控制。金属衍生的纳米复合材料/基体具有丰富的固有流变性,易于在光伏、催化、光学、药物输送、智能材料和储能等领域设计可行的适用性。由于具有强大的制造和有效操纵/靶向增强的1D, 2D或3D纳米结构,自下而上技术用于聚合物基构建块的自组装和定向组装。本章回顾了某些高分子纳米结构/复合材料在重构和合理设计方面的一些当代进展,以及当前和未来的发展。本文概述了多层纳米材料在材料设计/工程中所涉及的基本原理,并强调了保证增强基质在科技中的重要性。介绍了几丁质、壳聚糖、纤维素和木质素等生物高分子材料的发展前景,以期在新世纪的科技现代化中有更广泛的应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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