Anurag Dixit – författare

This edited book provides an in-depth overview of high-performance textile reinforcements and composites, emphasizing both experimental characterization and numerical modeling methodologies tailored for defense, aerospace, and automotive applications.This comprehensive resource covers experimental and modeling strategies to understand how textile reinforcements and composites perform under diverse loading and boundary conditions, crucial for demanding high-performance environments. It includes detailed chapters on composite fabrication methodologies, experimental responses of textile composites under varying loads, and the unique characteristics of these materials. A dedicated chapter discusses the latest advances in numerical modeling techniques for complex textile reinforcements and composites, addressing challenges in simulation.The book covers a broad spectrum of topics, including the fabrication of textile composites, the impact of various parameters on mechanical properties, interlaminar fracture behavior, and interlaminar shear strength. It also discusses key trends and the potential of cutting-edge materials and techniques in high-performance applications, specifically in defense, automotive, and aerospace industries.The book highlights recent advancements in textile composites, focusing on modeling and experimentation that drive the development of high-performance materials across various sectors. It is poised to be an essential resource for researchers and engineers exploring the field of textile composites for advanced applications.

This edited book provides an in-depth overview of high-performance textile reinforcements and composites, emphasizing both experimental characterization and numerical modeling methodologies tailored for defense, aerospace, and automotive applications.This comprehensive resource covers experimental and modeling strategies to understand how textile reinforcements and composites perform under diverse loading and boundary conditions, crucial for demanding high-performance environments. It includes detailed chapters on composite fabrication methodologies, experimental responses of textile composites under varying loads, and the unique characteristics of these materials. A dedicated chapter discusses the latest advances in numerical modeling techniques for complex textile reinforcements and composites, addressing challenges in simulation.The book covers a broad spectrum of topics, including the fabrication of textile composites, the impact of various parameters on mechanical properties, interlaminar fracture behavior, and interlaminar shear strength. It also discusses key trends and the potential of cutting-edge materials and techniques in high-performance applications, specifically in defense, automotive, and aerospace industries.The book highlights recent advancements in textile composites, focusing on modeling and experimentation that drive the development of high-performance materials across various sectors. It is poised to be an essential resource for researchers and engineers exploring the field of textile composites for advanced applications.

This book explores the use of biodegradable metals for biological applications in the developing field of Biomaterials research. Iron, Magnesium and zinc are the most common biodegradable metals that have been discussed here. With an excellent mechanical integrity, adequate biocompatibility, and intrinsic biodegradability, these metals are suitable for implants, and have led to multiple studies on the creation of new alloys for degradable biological applications. The book begins with an introductory chapters to introduce the basics of metals and has three main sections. The first section provides readers with an overview of iron-based metallic biomaterials, unveils the current state of biodegradable metal technology, and discusses its potential applications for bio-implants. The second section discusses a paradigm shift from iron to magnesium-based metallic biomaterials, from material discovery and testing to implant production. This section provides an example of biodegradable metals from idea to application. Biomaterials based on magnesium have the potential to be utilized as next-generation biodegradable metals. Since magnesium (Mg) dissolves in bodily fluids, implanted Mg may deteriorate during the healing process; provided, however, that degradation is regulated, no debris will remain once healing is completed. Therefore, there may be no need for a second surgical procedure (or procedures) to remove the implant. This section demonstrates a thorough analysis that gathers, evaluates, and critically examines the most recent research on the crucial facets of magnesium-based biomaterials. This book is expected to be a fundamental resource for research in biodegradable metallic materials, fabrication of implants, tissue engineering, and biomedical engineering. A viewpoint on the application of biodegradable metals for biomedical purposes in the tissue engineering age closes the book.

This book explores the use of biodegradable metals for biological applications in the developing field of Biomaterials research. Iron, Magnesium and zinc are the most common biodegradable metals that have been discussed here. With an excellent mechanical integrity, adequate biocompatibility, and intrinsic biodegradability, these metals are suitable for implants, and have led to multiple studies on the creation of new alloys for degradable biological applications. The book begins with an introductory chapters to introduce the basics of metals and has three main sections. The first section provides readers with an overview of iron-based metallic biomaterials, unveils the current state of biodegradable metal technology, and discusses its potential applications for bio-implants. The second section discusses a paradigm shift from iron to magnesium-based metallic biomaterials, from material discovery and testing to implant production. This section provides an example of biodegradable metals from idea to application. Biomaterials based on magnesium have the potential to be utilized as next-generation biodegradable metals. Since magnesium (Mg) dissolves in bodily fluids, implanted Mg may deteriorate during the healing process; provided, however, that degradation is regulated, no debris will remain once healing is completed. Therefore, there may be no need for a second surgical procedure (or procedures) to remove the implant. This section demonstrates a thorough analysis that gathers, evaluates, and critically examines the most recent research on the crucial facets of magnesium-based biomaterials. This book is expected to be a fundamental resource for research in biodegradable metallic materials, fabrication of implants, tissue engineering, and biomedical engineering. A viewpoint on the application of biodegradable metals for biomedical purposes in the tissue engineering age closes the book.

New fabrication techniques and biomaterials have advanced significantly as attention toward healthcare innovations in recent decades has increased. This book provides a comprehensive overview of the application of additive manufacturing for biomedical devices. The book focuses on the use of biomaterial for hard and soft tissue engineering. These materials can imitate the mechanical, structural, and biological characteristics of the parent tissue, repairing or replacing its functioning. It provides details on the use of various biomaterials for different biomedical applications. It highlights the present trends and potential of various techniques and materials for various applications. The chapters in this book written by eminent experts highlight recent developments in additive manufacturing for biological mimicking and surgical planning. It discusses latest advances in various 3D printing technologies in the fabrication of biomedical devices for orthopaedic and cardiovascular applications, along with rising trends in designing and creating tissue replacement substitute simulants. This book can serve as a fundamental textbook for research in additive manufacturing, fabrication of implants or scaffolds and medical device development, biomaterials, tissue engineering, and biomedical engineering. This book can be a valuable resource for mechanical and biomedical engineers, academicians, healthcare researchers, and professionals interested in tissue engineering.