Ravi K. Dwivedi – författare

This book provides a comprehensive overview of the development of implants, from the selection of materials to the outcome of the process. It covers various steps, including biocompatible material, synthesis, and characterization, compatibility and limitations of materials, specific implants, and finite element analysis of medical implants. It also presents a comparison between predictions and experimental results by studying real-world problems and addresses the issue of sustainability in implant manufacturing, process modeling, and optimization in additive manufacturing supported by case studies.

Features:

Covers the development of implants from the selection of material to the suitable process of manufacturing technologies Includes biocompatible material, synthesis, characterization, compatibility, and limitations of materials Reviews biofabrication in terms of artificial organs and soft tissues Discusses implant manufacturing, including additive and micro-manufacturing and failure analysis through case studies Addresses the issue of sustainability in implant manufacturing

This book is intended for researchers and graduate students specializing in mechanical, biomedical, healthcare engineering, biomaterials, and additive manufacturing.

This book provides a comprehensive overview of the development of implants, from the selection of materials to the outcome of the process. It covers various steps, including biocompatible material, synthesis, and characterization, compatibility and limitations of materials, specific implants, and finite element analysis of medical implants. It also presents a comparison between predictions and experimental results by studying real-world problems and addresses the issue of sustainability in implant manufacturing, process modeling, and optimization in additive manufacturing supported by case studies.

Features:

Covers the development of implants from the selection of material to the suitable process of manufacturing technologies Includes biocompatible material, synthesis, characterization, compatibility, and limitations of materials Reviews biofabrication in terms of artificial organs and soft tissues Discusses implant manufacturing, including additive and micro-manufacturing and failure analysis through case studies Addresses the issue of sustainability in implant manufacturing

This book is intended for researchers and graduate students specializing in mechanical, biomedical, healthcare engineering, biomaterials, and additive manufacturing.

This book provides a comprehensive overview of the development of implants, from the selection of materials to the outcome of the process. It covers various steps, including biocompatible material, synthesis, and characterization, compatibility and limitations of materials, specific implants, and finite element analysis of medical implants. It also presents a comparison between predictions and experimental results by studying real-world problems and addresses the issue of sustainability in implant manufacturing, process modeling, and optimization in additive manufacturing supported by case studies.Features:Covers the development of implants from the selection of material to the suitable process of manufacturing technologiesIncludes biocompatible material, synthesis, characterization, compatibility, and limitations of materialsReviews biofabrication in terms of artificial organs and soft tissuesDiscusses implant manufacturing, including additive and micro-manufacturing and failure analysis through case studiesAddresses the issue of sustainability in implant manufacturingThis book is intended for researchers and graduate students specializing in mechanical, biomedical, healthcare engineering, biomaterials, and additive manufacturing.

This book provides a comprehensive overview of the development of implants, from the selection of materials to the outcome of the process. It covers various steps, including biocompatible material, synthesis, and characterization, compatibility and limitations of materials, specific implants, and finite element analysis of medical implants. It also presents a comparison between predictions and experimental results by studying real-world problems and addresses the issue of sustainability in implant manufacturing, process modeling, and optimization in additive manufacturing supported by case studies.Features:Covers the development of implants from the selection of material to the suitable process of manufacturing technologiesIncludes biocompatible material, synthesis, characterization, compatibility, and limitations of materialsReviews biofabrication in terms of artificial organs and soft tissuesDiscusses implant manufacturing, including additive and micro-manufacturing and failure analysis through case studiesAddresses the issue of sustainability in implant manufacturingThis book is intended for researchers and graduate students specializing in mechanical, biomedical, healthcare engineering, biomaterials, and additive manufacturing.

This volume presents the selected peer-reviewed proceedings of the 5th International Conference on Advances in Materials, Mechanics, Mechatronics and Manufacturing (IC4M 2025), bringing together leading researchers, academicians, scientists, and industry professionals to share recent advances in engineering science and emerging technologies. The conference serves as a global platform for presenting innovative research, exchanging interdisciplinary ideas, and addressing contemporary industrial challenges through sustainable and intelligent engineering solutions.The chapters cover a broad spectrum of cutting-edge topics, including advanced materials and composites, additive manufacturing, smart manufacturing systems, artificial intelligence and machine learning applications, predictive maintenance, robotics, Internet of Things (IoT), digital twins, Industry 4.0/5.0, sustainable manufacturing, supply chain intelligence, energy systems, structural engineering, and next-generation product design. The volume also highlights recent developments in lightweight materials, metal matrix composites, nanomaterials, tribology, construction materials, biomedical applications, and autonomous engineering systems.Designed as a valuable reference for researchers, academicians, postgraduate students, and practicing engineers, this book provides comprehensive insights into the convergence of materials science, mechanical engineering, manufacturing technologies, and intelligent automation. By integrating fundamental research with industrial applications, it showcases innovative methodologies and practical solutions that contribute to the development of sustainable, resilient, and human-centric engineering systems for the future.

This volume presents the selected peer-reviewed proceedings of the 5th International Conference on Advances in Materials, Mechanics, Mechatronics and Manufacturing (IC4M 2025), bringing together leading researchers, academicians, scientists, and industry professionals to share recent advances in engineering science and emerging technologies. The conference serves as a global platform for presenting innovative research, exchanging interdisciplinary ideas, and addressing contemporary industrial challenges through sustainable and intelligent engineering solutions.The chapters cover a broad spectrum of cutting-edge topics, including advanced materials and composites, additive manufacturing, smart manufacturing systems, artificial intelligence and machine learning applications, predictive maintenance, robotics, Internet of Things (IoT), digital twins, Industry 4.0/5.0, sustainable manufacturing, supply chain intelligence, energy systems, structural engineering, and next-generation product design. The volume also highlights recent developments in lightweight materials, metal matrix composites, nanomaterials, tribology, construction materials, biomedical applications, and autonomous engineering systems.Designed as a valuable reference for researchers, academicians, postgraduate students, and practicing engineers, this book provides comprehensive insights into the convergence of materials science, mechanical engineering, manufacturing technologies, and intelligent automation. By integrating fundamental research with industrial applications, it showcases innovative methodologies and practical solutions that contribute to the development of sustainable, resilient, and human-centric engineering systems for the future.