J.R. Davis – författare

This one-stop reference is a tremendous value time saver for engineers, designers and researchers. Emerging technologies, including aluminium metal matrix composites, are combined with all the essential aluminum information from the multi-volume ASM Handbook series.Contents: General Introduction to Aluminum and Alloy Metallurgy and Designations; Selection and Application of Wrought, Cast, Powdered, composite, Coating Materials; Casting, Forming, Fabrication and Finishing; Metallography, Microstructures and Phase Diagrams; Properties of Aluminum and Alloys, including Corrosion Behavior and Tribology.

Contents include: Introduction to Stainless Steels - metallurgy and properties of wrought and cast stainless steels, powder metallurgy, melting, refining and recycling Corrosion Behaviour - atmospheric and aqueous corrosion, stress-corrosion cracking and hydrogen embrittlement, high-temperature corrosion, corrosion of cast stainless, corrosion of weldments Fabrication and Finishing - Foundry practice, forming, forging and extrusion, PM processing, heat treating, machining, welding, brazing and soldering, adhesive bonding, surface engineering Metallography, Microstructures and Phase Diagrams - metallographic practices and microstructures of wrought stainless metallography and microstructures of cast stainless phase diagrams Properties of Stainless Steels - physical properties, low temperature properties, elevated-temperature properties, tribological properties. An index is also included.

Includes application on thousands of steels and metals!If you are involved with machining or metalworking or you specify materials for industrial components, this book is an absolute must. It gives you detailed and comprehensive information about the selection, processing, and properties of materials for machining and metalworking applications. They include wrought and powder metallurgy tool steels, cobalt base alloys, cemented carbides, cermets, ceramics and ultra-hard materials.You’ll find specific guide-lines for optimizing machining productivity through the proper selection of cutting tool materials plus expanded coverage on the use of coatings extended cutting tool and die life. There is also valuable information on alternative heat treatments for improving the toughness of tool and die steels. All new material on the correlation of heat treatment microstructures and properties of tool steels is supplement with dozens of photomicrographs. Information on special tooling considerations for demanding applications such as isothermal forging, die casting of metal matrix composites, and molding of corrosive plastics is also included. And you’ll learn about alternative to ferrous materials for metalworking applications such as carbides, cermets, ceramics and nonferrous metals like aluminum, nickel and copper base alloys.Contents include: Materials for Machining and Grinding Applications, Materials for Metalworking Applications, Heat Treatment and Secondary Processing of Tool Materials, Microstructural Analysis and Failure Analysis of Tool Materials.

This handbook covers the complete spectrum of technology dealing with heat-resistant materials, including high-temperature characteristics, effects of processing and microstructure on high-temperature properties, materials selection guidelines for industrial applications, and life-assessment methods. Also included is information on comparative properties that allows the ranking of alloy performance, effects of processing and microstructure on high-temperature properties, high-temperature oxidation and corrosion-resistant coatings for superalloys, and design guidelines for applications involving creep and/or oxidation.Contents: General introduction (high-temperature materials characteristics, and mechanical and corrosion properties, and industrial applications); Properties of Ferrous Heat-Resistant Alloys (carbon, alloy, and stainless steels; alloy cast irons; and high alloy cast steels); Properties of superalloys (metallurgy and processing, mechanical and corrosion properties, degradation, and protective coatings); Properties of Nonferrous Heat-Resistant Materials (Ti and Ti alloys, refractory metals and alloys, Ni-Cr and Ni-ThO2 alloys, Intermetallics, ceramics, cermets, cemented carbides, and C-C composites); Special Topics (including creep-rupture sata assessment and use, thermal and thermomechanical fatigue, elevated-temperature crack growth, creep fatigue interaction and design for high-temperature applications and oxidation).

This book is a comprehensive guide to the selection and applications of copper and copper alloys, which constitute one of the largest and most diverse families of engineering materials. The handbook includes all of the essential information contained in the 20-volume ASM Handbook series, as well as important reference information and data from a wide variety of ASM publications and industry sources. In addition to extensive property data for wrought, cast, and powder-metallurgy products, this book provides practical information on the casting, forming, joining, machining, and finishing of copper alloys. The principles of physical metallurgy, including the relationships among heat treatment, structure, and properties, are also examined. Specifications for copper and its alloys are cross referenced in useful tabular form. Recent alloy developments - such as low-lead free-machining alloys, high-strength alloys with resistance to corrosion in hot 'sour' environments, and thermally stable, high-conductivity electronic packaging materials-are also reviewed. Contents: Metallurgy, alloys, and applications Fabrication and finishing Metallurgy, microstructures, and phase diagrams: Metallography and microstructures of copper alloys and beryllium-copper alloys Solidification structures Phase diagrams. Engineering properties and service characteristics Appendices.

Surface Hardening of Steels: Understanding the Basics is a practical selection guide to help engineers and technicians choose the most efficient surface hardening techniques that offer consistent and repeatable results. Emphasis is placed on characteristics such as processing temperature, case/coating thickness, bond strength, and hardness level obtained. The advantages and limitations of the various thermochemical, thermal, and coating/surface modification technologies are compared. Economic concerns and health and safety considerations are also addressed. Recent developments in the understanding of the relationships between microstructure and fatigue and wear performance are reviewed, as are more recently introduced surface hardening processes such as vacuum-related technologies, laser processing, CVD/PVD, and ion implantation. Methods for evaluating hardness patterns and depths of hardness for quality control and failure analysis are described. The book also reviews methods for measuring and controlling case depth, residual stresses, and distortion. Metallurgical comparisons are made between those processes that offer rapid heating and rapid cooling (self quenching) characteristics for example, induction hardening and conventional furnace hardening. While all of the surface engineering methods discussed enhance wear resistance, some such as electroless nickel plating, carbide salt-bath deposition, and chrome platingualso offer resistance to corrosion and oxidation. Wear and corrosion data are provided to demonstrate the benefits of each process. Contents: Process Selection Guide Gas Carburizing Vacuum and Plasma Carburizing Pack and Liquid Carburizing Carbonitriding Nitriding Nitrocarburizing Boriding (Boronizing) Thermal Diffusion (TD) Process Surface Hardening by Applied Energy Surface Hardening by Coating or Surface Modification Appendices: The Iron-Carbon Phase Diagram, Hardness Conversion Tables, Austenitizing Temperatures for Steels Index.