Lightweight Composites: Mechanics, Processing, Properties, and Applications provides practical information for all types of lightweight composites, including cutting-edge processing techniques and applications. It highlights the utilization of porosity in design and development of material systems in a unique and innovative way with strength and moduli property maps included throughout. The synthesis, mechanics, characterization, and testing of these materials are each covered at length, with particular attention paid to advanced manufacturing techniques such as 3D printing. Sandwich composites, lightweight nanocomposites, functionally-graded foams, syntactic foams, metal matrix composites, Al and Mg-based composites, and more are covered. Weight critical structural applications in aerospace, automobile, marine, electronics, sports, and biomedicine are also discussed,
Sustainable Packaging Strengthened by Biomass: Applications and Advancements explores the pivotal role of bioplastics in addressing packaging concerns within the food industry, enhancing delivery chains and streamlining waste management. Each chapter offers a detailed analysis, providing a thorough overview of present and future biodegradable materials. From untapped natural resources to bio-based materials like polyhydroxyalkanoate and polylactic acid, users will discover key components shaping the industry. The book also examines surface modification, biocomposites, and additives, emphasizing their role in adjusting biodegradability and properties, particularly in gas and moisture barriers.This is a must-read guide for those seeking a concise understanding of sustainable packaging and its transformative impact on the future.
Piezoelectric Materials, Composites, and Devices: Fundamentals, Mechanics, and Applications offers practical guidance on piezoelectric materials and composites, as well as their applications on various devices. It starts with a clear overview of piezoelectric fundamentals, key parameters, and standard characterization techniques. The book also details the structure and properties of various piezoelectric materials, including single crystals, ceramics, polymers, 2-dimensional materials, and their composites. It combines numerical simulations with precise measurements for accurate characterization of these materials. The book simplifies complex concepts by presenting basic equations and models, aiding in the understanding of stress and electric fields within piezoelectric devices. The reliability and durability (fracture and fatigue) of piezoelectric materials and composites are also explained, and the final sections of the book explore the applications of piezoelectric materials on sensors, energy harvesters, and actuators, highlighting the capabilities of advanced piezoelectric materials.
Low Dimensional Materials: Bridging the Fundamental Principles to Practice Applications provides an overview of research on low-dimensional materials, devices, and their applications. There are seven chapters in the book, starting from the basic quantum theory in chapter one, to the control and characterization of the unique structures (chapters two and four), to the relation of the physical and chemical properties with structures (chapter five), and to the practical and promising applications in energy, information, and health (chapter six), before conclusions and future outlook in chapter seven.
Materials Selection in Mechanical Design, Sixth Edition, winner of a 2018 Textbook Excellence Award (Texty), describes the procedures for material selection in mechanical design to ensure that the most suitable materials for a given application are identified from the full range of materials and section shapes available. Recognized as the world’s leading materials selection textbook, users will find a unique and innovative resource for students, engineers, and product/industrial designers. Selected revisions to this new edition ensure the book will continue to meet the needs of all those whose studies or careers involve selecting the best material for the project at hand.
Advanced Radiation Shielding Materials: Radiation and Radiological Protection provides an in-depth evaluation of the different types of radiation (x-rays, gamma rays, neutron, UV and EMI) and the development of radiation shielding materials that can be exploited for designing and use in multiple applications. The book also presents a review of the process parameters necessary to develop radiation shielding materials which will assist in the ongoing research to optimize and enhance processes such as the use of 3D orienting and CVD to create efficient radiation shielding material. This book will play a pivotal role and opens new avenues for global research and development by providing an understanding of the mechanisms of radiation shielding and bringing these concepts to application using different materials.
Steels: Structure, Properties and Design is an essential text and reference, providing indispensable foundational content for researchers, metallurgists, and engineers in industry and academia. The book provides inspiring content for undergraduates, yet has a depth that makes it useful to researchers. Steels represent the most used metallic materials, possessing a wide range of structures and properties. By examining the properties of steels in conjunction with structure, the book provides a valuable description of the development and behavior of these materials- the very foundation of their widespread use. The new edition has been thoroughly revised and updated with 2 new chapters, expanded content throughout,and yet it retains its clear writing style, extensive bibliographies, and real-life examples. One of the new chapters deals with the additive manufacture of steels with a focus on structure and properties. The other has visionary applications of steel that lead to a dramatic reduction of the carbon dioxide burden, within a short period of time, and without compromising the quality of life that depends on steels.
Introduction to Materials Science and Engineering: A Design-Led Approach is ideal for a first course in materials for mechanical, civil, biomedical, aerospace and other engineering disciplines. The authors’ systematic method includes first analyzing and selecting properties to match materials to design through the use of real-world case studies and then examining the science behind the material properties to better engage students whose jobs will be centered on design or applied industrial research. As with Ashby’s other leading texts, the book emphasizes visual communication through material property charts and numerous schematics better illustrate the origins of properties, their manipulation and fundamental limits.
Materials and the Environment, Third Edition, discusses the history of our increasing dependence on materials and energy. The book explains where materials come from and how they are used in a variety of industries, along with their lifecycle and relationship to energy and carbon. In addition, it covers the controls and economic instruments that hinder the use of engineering materials, considers sustainability from a materials perspective, and highlights the importance of low-carbon power and material efficiency. Further sections cover the mechanical, thermal and electrical properties of engineering metals, polymers, ceramics, composites and natural materials and their relationship to environmental issues. This book is intended for instructors and students of Engineering, Materials Science and Industrial/Product Design, as well as for materials engineers and product designers who need to consider the environmental implications of materials in their designs.
New Materials in Civil Engineering provides engineers and scientists with the tools and methods needed to meet the challenge of designing and constructing more resilient and sustainable infrastructures. This book is a valuable guide to the properties, selection criteria, products, applications, lifecycle and recyclability of advanced materials. It presents an A-to-Z approach to all types of materials, highlighting their key performance properties, principal characteristics and applications. Traditional materials covered include concrete, soil, steel, timber, fly ash, geosynthetic, fiber-reinforced concrete, smart materials, carbon fiber and reinforced polymers. In addition, the book covers nanotechnology and biotechnology in the development of new materials.