Gaurav Arora – författare

Computational Mechanics of Nanocomposites: Multi-scale Failure Modelling provides a comprehensive resource on the multi-scale modelling approaches essential for understanding and predicting failure in nanocomposites. Integrating theoretical foundations, advanced computational techniques and practical application, the book shows how nanoscale interactions influence the macro-scale properties and performance of composite materials. Addressing a significant gap in accessible resources, it explores nano-reinforcements and structural failure under complex loading conditions, with chapters organised around key methods including molecular dynamics, finite element analysis, homogenization, phase-field and peri-dynamic approaches, and data-driven deep learning.The book offers hands-on guidance with computational tools such as COMSOL, Abaqus and DIGIMAT, together with case studies drawn from marine, aerospace and other demanding sectors that highlight the strengths and limitations of each modelling method. It equips researchers, engineers and postgraduate students to tackle advanced problems in material design, reliability and performance evaluation of high-performance nanocomposites.Provides comprehensive coverage of multi-scale modelling, from nano- to macro-scale behaviourIncludes phase-field, peri-dynamics and deep-learning techniques applied specifically to nanocompositesOffers hands-on, step-by-step guidance for computational tools such as COMSOL, Abaqus and DIGIMATCombines theoretical foundations with practical case studies from demanding engineering sectorsSupports failure analysis and performance optimization for high-performance nanocomposites

This book covers all aspects of composite materials processing and manufacturing using microwave heating technology and their applications in various industrial processes. Depending in the processing and material used, the composites are divided into three major segments: Metal matrix composites (MMCS), ceramics composites (CMCS), and polymer matrix composites (PMCS), respectively. During the manufacturing process of these composite materials, conventional heating technologies are used in which the heat is transferred from the electrical resistance coils to the material via conventional modes of heat transfer. Issues like non-uniform temperature distribution, poor curing efficiency, generation of the in-process scrap, long process cycle, high energy consumption and cost make traditional manufacturing route a difficult choice to select. Recently, microwave-assisted heating has emerged as a promising route for the fabrication of composites as a cost-effective environmentally sustainablemanufacturing process that yields improved mechanical properties which is the main topic of this book. It looks into the mechanism, salient features, and important aspects of microwave heating and their interaction with different composites materials. It also presents other manufacturing processes of various composites using microwave heating during casting, drilling, recycling, sintering, material joining, surface engineering. This book will appeal to students, researchers and scientists working in the area of composite materials processing and manufacturing.