Nishant Kumar Singh – författare

This book emphasizes the importance of modeling in the initial design phase of a composite component. It covers a wide range of modeling techniques and multiphysics simulation using finite elements. It further provides practical examples and details studies that demonstrate the application of modeling techniques to real-world application of composite structures. This book:Discusses manufacturing of different types of composite components using different techniques, and static and dynamic analyses of composites using FE modeling.Covers the machining performance of carbon nanotubes-reinforced nanocomposites and multiscale modeling techniques in composites. Presents a detailed study on ceramics matrix composite using modern machining operation, and hybrid nanocomposite using conventional machining operation. Highlights the development of hybrid nanocomposites and their tribological characteristics. Illustrates implementation of biomimicry for advanced impact resistance of composites and degradation of polyamides for future prospects. It is primarily written for senior undergraduates, graduate students, and academic researchers in the fields of mechanical engineering, manufacturing engineering, materials science, production engineering, industrial engineering, and aerospace engineering.

This book emphasizes the importance of modeling in the initial design phase of a composite component. It covers a wide range of modeling techniques and multiphysics simulation using finite elements. It further provides practical examples and details studies that demonstrate the application of modeling techniques to real-world application of composite structures. This book:Discusses manufacturing of different types of composite components using different techniques, and static and dynamic analyses of composites using FE modeling.Covers the machining performance of carbon nanotubes-reinforced nanocomposites and multiscale modeling techniques in composites. Presents a detailed study on ceramics matrix composite using modern machining operation, and hybrid nanocomposite using conventional machining operation. Highlights the development of hybrid nanocomposites and their tribological characteristics. Illustrates implementation of biomimicry for advanced impact resistance of composites and degradation of polyamides for future prospects. It is primarily written for senior undergraduates, graduate students, and academic researchers in the fields of mechanical engineering, manufacturing engineering, materials science, production engineering, industrial engineering, and aerospace engineering.

Due to their biodegradability, renewability and superior lubrication performance compared to commercial fossil lubricants, vegetable oils are becoming substitutes for petroleum-based lubricants in different sectors, especially in the automotive industry. Biolubricants covers feedstocks, physicochemical properties, process to chemically alter raw oils from feedstocks, lubrication characteristics, as well as the additives to enhance properties.

The work provides a comprehensive examination of techniques and challenges that underpin the effective processing and long-term utilisation of advanced materials. Covering the broad range of topics from laser and electrical discharge machining, tribological behaviour of materials like friction or wear mechanisms in composites it presents as well case studies in the aerospace and automotive industries and bioengineering applications.

Green Manufacturing with Artificial Intelligence Applications serves as a comprehensive textbook designed for students, researchers, and educators in mechanical, production, and industrial engineering. The book integrates principles of sustainable manufacturing with cutting-edge artificial intelligence tools to promote eco-efficient and smart production systems. It explains concepts such as energy optimization, waste minimization, intelligent process control, and digital manufacturing with real-world examples and case studies. Emphasizing both theoretical foundations and practical implementation, this text prepares learners to understand and apply AI-driven approaches for achieving greener, cleaner, and more efficient manufacturing aligned with Industry 4.0 and 5.0 goals.

Hydrogen and Fuel Cells explores the transformative role of green hydrogen and fuel cell technologies in the global energy transition, providing a comprehensive resource for researchers, academics, and industry professionals. It covers foundational topics such as electrolyser technologies for hydrogen production, hydrogen storage methods like cryogenic systems and liquid organic hydrogen carriers (LOHCs), and smart hydrogen infrastructure integrated with digital twin technologies. Advanced discussions include fuel cell innovations such as high-performance membranes, and portable and wearable fuel cells, alongside industrial applications in manufacturing and hydrogen-powered vehicles.Furthermore, this book delves into key aspects of sustainability, including:Energy conservation: Strategies to reduce energy losses in hydrogen production, storage, delivery, and use. Investigations include effi cient electrolyzer topologies, fuel cell operational parameters, and accessory system parasitic energy expenditure reduction.Green tribology/tribochemistry: Analyzing wear mechanisms in fuel cell compo[1]nents, creating low-friction materials and coatings with minimal environmental impact, and applying eco-friendly lubricants to improve performance and longevity are all part of this research.The book also addresses critical issues like safety challenges in hydrogen storage, environmental impacts, economic feasibility, and scaling up technologies for wide[1]spread adoption. Novel approaches include insights into hydrogen blending with natural gas for transitional systems and the role of emerging catalysts in enhancing fuel cell effi ciency. It is written in an easy-to-understand style, and is designed for students, researchers, and professionals who want to learn about the potential of green hydrogen and fuel cells to transform the energy sector and help achieve a sustainable future.

The solar boom sweeping the world holds both promise and peril. Although solar PV panels provide a revolution in energy production, it is their end-of-life that poses a serious challenge. This book, Sustainable Management of Solar PV Panel Waste, addresses several aspects of this concern. It assesses the environmental degradation over the entire lifecycle of solar panels, from manufacturing to disposal. Readers will encounter new waste management approaches, explore key policy frameworks, and learn about urban technologies capable of resource recovery.This book should be mandatory reading for researchers, policy-makers and industry professionals who want to reduce the environmental impacts of solar energy and create a truly sustainable solar future.