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Human development has been a continuing attempt to use new materials in ever more sophisticated ways to enhance the quality of human life. Throughout history, we have made materials with a main component based on the principal property required, with small alloying additions to provide secondary properties. But recently, there has been a revolution as we have discovered how to make much more complex mixtures, providing completely new materials, requiring entirely new scientific theories, and massively extending our ability to make useful products. These new materials are called multicomponent or high-entropy materials. This is the first textbook on the fundamentals of these new multicomponen...
"This is a history of the long association of the University of Tennessee with Oak Ridge National Laboratory, dating back to the Manhattan Project. While large-scale partnerships between scientific laboratories and academic institutions are now common, in the aftermath of World War II it was not clear what role this huge research and development program would play in postwar America, but pioneering professors and administrators were determined that one option--dismantling the whole thing--would not happen. Thus began a now eight-decade long association that has flowered into one of the world's largest collaborations between a federal agency and a research university"--
High-entropy materials, ultra-strong molecules, and nanoelectronics have become a focus of active research because of their unique potential and applications. Global research is rapidly accelerating and unlocking major recent breakthroughs. It is important to highlight these recent developments and explore possibilities for future research and applications. The National Academies convened a workshop on February 10-11, 2016 to discuss issues in defense materials, manufacturing, and infrastructure. Key topics of discussion included emerging capabilities and research objectives for ultra-strong molecules, high-entropy materials, and nanoelectronics. This publication summarizes the presentations and discussions from the workshop.
High-Entropy Alloys: Design, Manufacturing, and Emerging Applications presents cutting-edge advances in the field of these materials, covering their mechanics, methods of manufacturing, and applications, all while emphasizing the link between their structure/microstructure and functional properties. The book starts with a section on the fundamentals of high-entropy alloys (HEAs), with chapters discussing their thermodynamics, subgroups (transition metal; refractory; ceramics; metallic glasses and more), physical metallurgy, and microstructural characterization. The next section features chapters which look at manufacturing processes of HEAs, such as liquid metallurgy synthesis, in-situ synth...
This book is a collection of several unique articles on the current state of research on complex concentrated alloys, as well as their compelling future opportunities in wide ranging applications. Complex concentrated alloys consist of multiple principal elements and represent a new paradigm in structural alloy design. They show a range of exceptional properties that are unachievable in conventional alloys, including high strength–ductility combination, resistance to oxidation, corrosion/wear resistance, and excellent high-temperature properties. The research articles, reviews, and perspectives are intended to provide a wholistic view of this multidisciplinary subject of interest to scientists and engineers.
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The mechanics of fracture and fatigue have produced a huge body of research work in relation to applications to metal materials and structures. However, a variety of non-metallic materials (e.g., concrete and cementitious composites, rocks, glass, ceramics, bituminous mixtures, composites, polymers, rubber and soft matter, bones and biological materials, and advanced and multifunctional materials) have received relatively less attention, despite their attractiveness for a large spectrum of applications related to the components and structures of diverse engineering branches, applied sciences and architecture, and to the load-carrying systems of biological organisms. This book covers the broad topic of structural integrity of non-metallic materials, considering the modelling, assessment, and reliability of structural elements of any scale. Original contributions from engineers, mechanical materials scientists, computer scientists, physicists, chemists, and mathematicians are presented, applying both experimental and theoretical approaches.