Advances in Textile Structural Composites

The direction of fiber orientation plays a crucial role in deciding the mechanical performance of textile structural composites. Unlike conventional composite materials, geometrically oriented textile structures, e.g., woven, knitted, and braided constructions, can be designed and developed for load...

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Bibliographic Details
Other Authors: Mishra, Rajesh (Editor)
Format: Electronic Book Chapter
Language:English
Published: Basel MDPI - Multidisciplinary Digital Publishing Institute 2023
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Online Access:DOAB: download the publication
DOAB: description of the publication
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520 |a The direction of fiber orientation plays a crucial role in deciding the mechanical performance of textile structural composites. Unlike conventional composite materials, geometrically oriented textile structures, e.g., woven, knitted, and braided constructions, can be designed and developed for load bearing in a particular direction. Their properties can be enhanced by modifying the geometry and material composition. One major challenge in producing textile structural composites with superior mechanical properties at a reasonably lower price is cost effective prepreg. Composites constructed from reinforcement having a well-defined geometry perform better than randomly oriented fibers at a reasonable cost. Their flex fatigue is superior to conventional preforms in specific applications. This Special Issue invites research as well as review articles dealing with different types of (2D, 3D, multiaxial) woven, knitted, and braided structures for load bearing structural composite applications. Use of industrial multifilament yarns of pure and hybrid composition in textile geometrical reinforcement structures can also be included. The methods of impregnation of such structures by thermoplastic and thermoset resins should be described. The superior performance in such structural composites must be highlighted. Methods of characterizing woven, knitted, and braided textile reinforced composites is the focus of this issue. Current and future applications of advanced textile structural composites can be summarized in the submitted articles. Theoretical (computational, numerical simulation etc.) as well as experimental work can be submitted with sufficient scientific innovation. 
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653 |a hybrid composite 
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653 |a olive root fiber 
653 |a coir pith filler 
653 |a building materials 
653 |a mixture design analysis 
653 |a recycled cotton 
653 |a glass 
653 |a hollow knitted composite 
653 |a compression 
653 |a flexural modulus 
653 |a impact energy 
653 |a quasi-static test 
653 |a cyclic fatigue 
653 |a wavy-lap bond 
653 |a natural cotton fabric 
653 |a polymer composite 
653 |a mechanical properties 
653 |a service life 
653 |a safety 
653 |a SEM 
653 |a pressure-actuated cellular structure 
653 |a shape morphing 
653 |a compliant mechanism 
653 |a anisotropic flexure hinges 
653 |a textile-reinforced polymer composite 
653 |a integrally woven structure 
653 |a resin 
653 |a glass cloth 
653 |a substrate 
653 |a glass transition temperature 
653 |a surface finish 
653 |a pad cratering 
653 |a thermal resistance 
653 |a textile structural composite 
653 |a 3D weaving 
653 |a hollow structure 
653 |a spacer fabric 
653 |a woven honeycomb 
653 |a sandwich 
653 |a waste cotton 
653 |a impact 
653 |a flexural rigidity 
653 |a hybrid woven reinforcement 
653 |a preforming 
653 |a carbon-Kevlar 
653 |a epoxy resin 
653 |a add-on (%) 
653 |a amount of hardener (%) 
653 |a curing temperature 
653 |a curing time 
653 |a molding pressure 
653 |a fiber composites 
653 |a FRP 
653 |a architecture 
653 |a architectured materials 
653 |a hysteresis 
653 |a auxetic 
653 |a non-Newtonian fluids 
653 |a low-velocity impact 
653 |a personal protection 
653 |a n/a 
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