Academic researchers who are working on the development of composite materials for ballistic protection need a deeper understanding on the theory of material behavior during ballistic impact. Those working in industry also need to select proper composite constituents, to achieve their desired characteristics to make functional products. Composite Solutions for Ballistics covers the different aspects of ballistic protection, its different levels and the materials and structures used for this purpose. The emphasis in the book is on the application and use of composite materials for ballistic protection. The chapters provide detailed information on the various types of impact events and the complexity of materials to respond to those events. The characteristics of ballistic composites and modelling and simulation results will enable the reader to better understand impact mechanisms according to the theory of dynamic material behavior. A complete description of testing conditions is also given that includes sensors and high-speed devices to monitor ballistic events. The book includes detailed approaches and schemes that can be implemented in academic research into solutions for ballistic protection in both theoretical and experimental fields, to find solutions for existing and next generation threats. The book will be an essential reference resource for materials scientists and engineers, and academic and industrial researchers working in composite materials and textiles for ballistic protection, as well as postgraduate students on materials science, textiles and mechanical engineering courses.

The properties of woven and knitted fabrics differ largely due to the path yarn follows in the fabric structure. This path determines the fabric's physical properties, mechanical properties, and appearance. A slight variation to the design may result in entirely different properties for the fabric. Structural Textile Design provides detailed insight on different types of designs used for the production of woven and knitted fabrics, highlighting the effect design has on a fabric's properties and applications. With focus on the techniques used to draw designs and produce them on weaving and knitting machines, this book will be of great interest to textile engineers, professionals and graduate students in textile technology and manufacturing.

The book is primarily focused on natural plant (lignocellulosic) fibers as sustainable reinforcement material for green composites. It begins with a brief introduction to common plant-based reinforcements, their extraction techniques, the structure of plant fibers, and describes novel fibers extracted from fruit, seeds, leaf, bast, and agricultural waste. The book then focuses on the application of these fibers as reinforcements for composite materials, covering reinforcement and composite fabrication techniques, as well as their performance evaluation. Overall, the book provides a unique and comprehensive look at lignocellulosic fibers for use in green composites, appealing to both researchers in the area of sustainable materials and industry professionals and entrepreneurs interested in their utilization in value-added composite products.

The properties of woven and knitted fabrics differ largely due to the path yarn follows in the fabric structure. This path determines the fabric's physical properties, mechanical properties, and appearance. A slight variation to the design may result in entirely different properties for the fabric. Structural Textile Design provides detailed insight on different types of designs used for the production of woven and knitted fabrics, highlighting the effect design has on a fabric's properties and applications. With focus on the techniques used to draw designs and produce them on weaving and knitting machines, this book will be of great interest to textile engineers, professionals and graduate students in textile technology and manufacturing.