ASM International and The Minerals, Metals and Materials Society (TMS) have collaborated to present a collection of the selected works of Dr. Greg B. Olson in honor of his 70th birthday in 2017. This collection highlights his influential contributions to the understanding of martensite transformations and the development and application of a systems design approach to materials. Part I: Martensite, with an Introduction by Sir Harry Bhadeshia, emphasizes Dr. Olson's work to develop a dislocation theory for martensite transformations, to improve the understanding of the statistical nature of martensite nucleation, and to expand use of quantitative microscopy to characterize phase transformations. Part II: Materials Design, with an Introduction by Dr. Charles Kuehmann, focuses on the application of a systems design approach to materials and the development of integrated computational design curriculum for undergraduate education. Part II includes several examples of the systems design approach to a variety of applications. The papers chosen for this collection were selected by the editors with input from Dr. Olson.

In the second edition of this best-selling book, new information and references are integrated into chapters. Emphasis is still on processing, alloying, microstructure, deformation, fracture and properties of major steel types ranging from low-carbon sheet steels, pearlitic rail and wire steels, to quench and tempered medium- and high-carbon martensitic steels. Microstructural aspects of steelmaking, hardenability, tempering, surface hardening, and embrittlement phenomena are updated, and chapters on stainless and tool steels remain in the second edition. The work is intended to be tutorial and is an essential state-of-the-art reference for anyone that makes, uses, studies and designs with steel.

This new book covers all aspects of the history, physical metallurgy, corrosion behavior, cost factors and current and potential uses of titanium. The history of titanium is traced from its early beginnings through the work of Kroll, to the present day broadening market place. Extensive detail on extraction processes is discussed, as well as the various Beta to Alpha transformations and details of the powder metallurgy techniques. The relationship of microstructure to mechanical properties, and the topic of corrosion are described in detail. A comprehensive section presents applications of titanium. Anyone involved in any aspect of titanium science, technology, or application (including personnel in industry, government, and academia) can benefit from this book.

This book emphasizes the physical and practical aspects of fatigue and fracture. It covers mechanical properties of materials, differences between ductile and brittle fractures, fracture mechanics, the basics of fatigue, structural joints, high temperature failures, wear, environmentally-induced failures, and steps in the failure analysis process. Separate chapters are devoted to fatigue and fracture of steels, aluminum alloys, titanium and titanium alloys, ceramics, polymers and continuous fiber polymer matrix composites. Topics include: -Introduction to Fatigue and Fracture -Mechanical Behavior -Ductile and Brittle Fracture -Fracture Mechanics -Fatigue of Metals -Fatigue and Fracture of Engineering Alloys -Metallic Joints- Mechanically Fastened and Welded -Fracture Control and Damage Tolerance Analysis -Fatigue and Fracture of Ceramics and Polymers -Fatigue and Fracture of Continuous Fiber Polymer Matrix Composites -High Temperature Failures -Wear Failures -Environmentally-Induced Failures -The Failure Analysis Process

The Dictionary of Metals is the authoritative reference work for terms and definitions of metals and terms relating to metals. It also includes a considerable amount of history starting with the seven metals of antiquity. Each of the metallic elements has a discussion that includes the discoverer and date, the naming of the metal and its meaning, the major applications, the significance of the discovery, and physical properties. Includes a timeline of important events in the history of metals and metallurgy.

This book covers the properties, processing, and applications of lightweight materials– aluminum, magnesium, beryllium, titanium, titanium aluminides, engineering plastics, structural ceramics, and composites with polymer, metal, and ceramic matrices. The book begins with a brief history of lightweight materials development during the 20th century, and moves into the basic metallurgy, properties of the available alloys, processing, and applications of each of the lightweight materials. The book's final chapter covers methodologies used in the general materials selection process, specific guidelines for each of the lightweight materials, and the importance of the automotive sector to the lightweight materials industries. Topics include: -Uses of Lightweight Materials - Aluminum Alloys -Magnesium Alloys -Beryllium -Titanium Alloys -Titanium Aluminide Intermetallics -Engineering Plastics -Polymer Matrix Composites -Metal Matrix Composites -Structural Ceramics -Ceramic Matrix Composites -Selection Guidelines for Lightweight Materials This book is intended primarily for technical personnel who want to learn more about lightweight materials. It would be useful to designers, structural engineers, material and process engineers, manufacturing engineers, production personnel, faculty, and students.The book's unique feature is that it provides a…

Relational analysis, defined as quantitative analysis of the relationships of high- and low-temperature properties in relation to their room-temperature values, provides a useful technique for estimating the properties of similar metals and alloys for which limited or no data are available. This book demonstrates how to use relational analysis methodology to extrapolate and estimate properties of metallic alloys at high temperatures from lower temperature data, and for estimating the properties of alloys for which scant property data exists. Data tables and graphs are presented for a wide range of aluminum alloys. Also shown, is how to apply relational analysis to other alloy systems including steels, magnesium alloys, and titanium alloys.