Materials are the foundation of technology. As such, most universities provide engineering undergraduates with the fundamental concepts of materials science, including crystal structures, imperfections, phase diagrams, materials processing, and materials properties. Few, however, offer the practical, applications-oriented background that their stud

Special topic volume with invited peer reviewed papers only

Success in business demands the effective management of people. James C. Morgan, who for nearly three decades led the high-tech powerhouse Applied Materials to both financial success and to the designation as one of America’s most admired companies and best places to work, provides a simple, straightforward set of principles and tips that he says can help anyone be a better manager. Applied Materials is one of Silicon Valley’s great success stories and it helped propel the digital revolution. But Jim Morgan’s management techniques are not reserved for high-tech: Applied Wisdom shows how the same approaches, tools, and values work at any scale, from start-ups to middle management in a global corporation — and even to non-profits. Rich in stories and practical examples, it’s a must-read for those seeking a timeless and proven management manual.

This book comprises select peer-reviewed proceedings of the International Conference on Advances in Materials Research (ICAMR 2019). The contents cover latest research in materials and their applications relevant to composites, metals, alloys, polymers, energy and phase change. The indigenous properties of materials including mechanical, electrical, thermal, optical, chemical and biological functions are discussed. The book also elaborates the properties and performance enhancement and/or deterioration in order of the modifications in atomic particles and structure. This book will be useful for both students and professionals interested in the development and applications of advanced materials.

Materials science institutions have always been crucial to the development of materials research. Even before materials science emerged as a discipline in the 20th century, these institutions existed in various forms. They provided specialized facilities for research, educated new generations of researchers, drafted policies and funded programs, enabled valuable connections between research groups, or played any other role which were needed to further the progress of materials science.This volume, the third in a series of volumes covering the development and history of materials science, presents illuminating perspectives on material science institutions. Twenty chapters are organized into six comprehensive parts of which each cover a characteristic aspect or historical feature. True to the topic they write about, the contributors to this volume have varied backgrounds. Some are materials scientists and engineers, but others are historians, philosophers of science, sociologists, or even directors of institutions themselves. This comprehensive, unified collection is a valuable resource for undergraduates, graduate students, academics, policymakers and professionals who are actively interested in materials science and its development from the past to the future.

Increasing interest in lightweight and high-performance materials is leading to significant research activity in the area of polymers and composites. One recent focus is to develop multifunctional materials that have more than one property tailored as to the specified design requirements, in addition to achieving low density. The possibility of simultaneously tailoring several desired properties is attractive but very challenging, and it requires significant advancement in the science and technology of high-performance functional polymers and composites. This volume presents a selection of new approaches in the field of composites and nanomaterials, polymer synthesis and applications, and materials and their properties. Some composites/nanocomposites and interfaces are explored as well, some with medical applications. The authors also look at simulations and modeling, synthesis involving photochemistry, self-assembled hydrogels, and sol-gel processing.