This handbook provides an insight into the advancements in surface engineering methods, addressing the microstructural features, properties, mechanisms of surface degradation failures, and tribological performance of the components. Emphasis is placed on the use of laser cladding methods because they make it simple to deposit new classes of materials such nano-composites, nanotubes, and smart materials. Handbook of Laser-Based Sustainable Surface Modification and Manufacturing Techniques discusses the main mechanism behind the surface degradation of structural components in strenuous environments. It highlights the capacity of laser cladding to operate on a wide range of substrate materials and shapes as well as presents how laser cladding can offer new possibilities in the reconditioning of components and how, in many cases, these approaches are the only solution for economic efficiency. The handbook illustrates how the type of laser, laser optics, and the parameters of the process can be efficiently selected, and thus the number of applications of laser cladding and its applications can be increased. The standard methods of testing used for various types of biomedical devices and tools, as well as the advantages of combining laser cladding with simultaneous induction heating, are described as well within this handbook. Features: Discusses the role of claddings fabricated with laser technique to withstand wear and corrosion Highlights the role of laser in the manufacturing of alloys and recent advancements in laser based additive manufacturing processes Presents the possibilities, applications and challenges in laser surfacing Illustrates the post-treatments of powders and coatings and case studies related to laser surface technology Offers the standard methods of testing applied to various types of biomedical devices and tools Goes over the advantages of combining laser cladding with simultaneous induction heating The technical outcomes of these surface engineering methods are helpful for academics, students, and professionals who are working in this field, as this enlightens their understanding of the performance of these latest processes. The audience is broad and multidisciplinary.

Friction Stir Spot Welding offers an introduction to friction stir spot welding (FSSW) between both similar and dissimilar metals and materials. It explains the impact of the interlayer in FSSW of different metals with regard to mechanical, metallurgical, wear, thermo-mechanical, and chemical characteristics. Emphasizing the impact of interlayer on FSSW of different metals, this book discusses the influence of the interlayer in the process as a new technique. Using aerospace and automotive structures as examples, the book explains how their components successfully employ materials like dissimilar aluminium alloys, yielding increased electrical, thermal, and mechanical characteristics. It also considers the reinforcement, effect of tool geometry, wettability, and corrosion behavior of joints. This book is intended for mechanical, materials, and manufacturing professionals, researchers, and engineers working in the field of FSSW.

The text presents advances in the field of thermal claddings for protection against erosion, corrosion, and wear in hydraulic turbines, automobiles, agricultural equipment, power plant, chemical industries, and jet engines. It further discusses different cladding techniques such as electron beam, oxyfuel, arc welding processes, and microwave hybrid heating. It explains the mechanism for failure of materials and cladding and emphasizes the protection mechanism. This book: ·Discusses the design and simulation of thermal claddings and the use of algorithms to predict the process parameters and performance of developed clads using artificial intelligence and machine learning. ·Presents the tribological behaviour of novel wear-resistant thermal claddings for the components used in construction, mining, drilling, and hydropower plant. ·Showcases high-temperature oxidation, corrosion, and erosion-resistant thermal claddings for power plants, the automotive sector, and jet engines. ·Highlights the application of the thermal cladding process in remelting the existing surface to enhance the surface properties. ·Examines post-heat treatment procedures on thermal claddings for improving the microstructure and tribological properties. The text is primarily written for senior undergraduate, graduate students, and academic researchers in the fields of mechanical engineering, manufacturing engineering, industrial engineering, and production engineering.

This book provides the latest technical information on sustainable materials that are feedstocks for additive manufacturing (AM). Topics covered include an up-to-date and extensive overview of raw materials, their chemistry, and functional properties of their commercial versions; a description of the relevant AM processes, products, applications, advantages, and limitations; prices and market data; and a forecast of sustainable materials used in AM, their properties, and applications in the near future. Data included are relative to current commercial products and are presented in easy-to-read tables and charts. Features Highlights up-to-date information and data of actual commercial materials Offers a broad survey of state-of the-art information Forecasts future materials, applications, and areas of R&D Contains simple language, explains technical terms, and minimizes technical lingo Includes over 200 tables, nearly 200 figures, and more than 1,700 references to technical publications, mostly very recent Handbook of Sustainable Polymers for Additive Manufacturing appeals to a diverse audience of students and academic, technical, and business professionals in the fields of materials science and mechanical, chemical, and manufacturing engineering.

Theoretical and practical interests in additive manufacturing (3D printing) are growing rapidly. Engineers and engineering companies now use 3D printing to make prototypes of products before going for full production. In an educational setting faculty, researchers, and students leverage 3D printing to enhance project-related products. Additive Manufacturing Handbook focuses on product design for the defense industry, which affects virtually every other industry. Thus, the handbook provides a wide range of benefits to all segments of business, industry, and government. Manufacturing has undergone a major advancement and technology shift in recent years.

Green Membrane Technology Towards Environmental Sustainability covers experimental and theoretical aspects of greener membranes and processes. The book fills the gap in current literature and offers a platform that introduces and discusses new routes in fabricating green membranes and processes for developing green membranes. Although membranes and membrane processes have decades of history, rapid development in membranes manufacturing and emerging membrane driven markets is requiring new and more sustainable engagement of manufacturers, membrane operators and scientists. This book is written for chemical and polymer engineers, materials scientists, professors, graduate students, as well as general readers at universities, research institutions and R&D departments in industries who are engaged in sustainable engineering and practical strategies in circular economy. - Provides a broad reference base on a wide range of information on greener technologies and new generation membranes - Details experimental and theoretical aspects of the greener membranes and processes - Dedicated exclusively to greener routes for fabricating sustainable membranes in separation and delivery applications

This Handbook is the ultimate definitive guide that covers key fundamentals and advanced applications for Additive Manufacturing. The Handbook has been structured into seven sections, comprising of a thorough Introduction to Additive Manufacturing; Design and Data; Processes; Materials; Post-processing, Testing and Inspection; Education and Training; and Applications and Case Study Examples. The general principles and functional relationships are described in each chapter and supplemented with industry use cases. The aim of this book is to help designers, engineers and manufacturers understand the state-of-the-art developments in the field of Additive Manufacturing. Although this book is primarily aimed at students and educators, it will appeal to researchers and industrial professionals working with technology users, machine or component manufacturers to help them make better decisions in the implementation of Additive Manufacturing and its applications.