|
Completely revised, Volume 6 is the most comprehensive
reference book ever produced on the major joining technologies and their
applications to engineered materials--90% of its contents are totally
new to the ASM Handbook Series. With over 500 illustrations and 400 tables,
this book includes practical advice on consumable selection and procedure
development, as well as joining fundamentals.
Find the Answers in Four Major Sections:
Fundamentals of Joining--addresses fundamental
principles including basic chemistry, physics, and metallurgical concepts.
Joining Processes--provides details on all major joining processes,
including process parameters, advantages and limitations, applications,
equipment, and health and safety.
Materials Selection for Joined Assemblies--describes how to optimize
materials selection for particular applications.
Consumable Selection, Procedure Development, and Practice Considerations--serves
as a guide to practices for joining specific materials, based on comprehensive,
up-to-date information and data on all principal materials types and joining
processes.
Additional topics include: joint evaluation and quality
control, modelling of joining processes, underwater welding, space welding,
cryogenic welding, joining of composites and plastics, intelligent automation
for joining technology, corrosion of weldments, thermal spray coating,
cutting processes, health and safety, and welding terms and definitions.
Table of Contents
Fundamentals of Welding
Energy Sources Used for Fusion Welding
Heat Flow in Fusion Welding
Fluid Flow Phenomen During Welding
Transfer of Heat and Mass to the Base Metal in Gas-Metal Arc Welding
Arc Physics of Gas-Tungsten Arc Welding
Power Sources for Welding
Fundamentals of Weld Solidification
Nature and Behavior of Fluxes Used for Welding
Shielding Gases for Welding
Solid-State Transformations in Weldments
Cracking Phenomen Associated With Welding
Characterization of Welds
Fundamentals of Brazing and Soldering
Introduction to Brazing and Soldering
Fundamentals of Brazing
Fundamentals of Soldering
Fundamentals of Solid-State Welding
Introduction to Solid-State Welding
Fundamentals of Metal and Metal-to-Ceramic Adhesion
Fundamentals of Friction Welding
Fundamentals of Diffusion Bonding
Fundamentals of Explosion Welding
Mechanical Properties of Soft-Interlayer Solid-State Welds
Fusion Welding Processes
Shielded Metal Arc Welding
Gas-Metal Arc Welding
Flux-Cored Arc Welding
Gas-Tungsten Arc Welding
Plasm Arc Welding
Carbon Arc Welding
Submerged Arc Welding
Stud Arc Welding
Capacitor Discharge Stud Welding
Plasma-MIG Welding
Resistance Spot Welding
Projection Welding
Resistance Seam Welding
Flash Welding
Upset Welding
High-Frequency Welding
Electron-Beam Welding
Laser-Beam Welding
Electroslag and Electrogas Welding
Oxyfuel Gas Welding
Thermite Welding
Solid-State Welding, Brazing, and Soldering Processes
High-Temperature Solid-State Welding
Low-Temperature Solid-State Welding
Explosion Welding
Forge Welding
Cold Welding
Coextrusion Welding
Roll Welding
Friction Welding
Radial Friction Welding
Friction Surfacing
Ultrasonic Welding
Torch Brazing
Furnace Brazing
Induction Brazing
Dip Brazing
Resistance Brazing
Diffusion Brazing
Exothermic Brazing
Brazing With Clad Brazing Materials
Iron Soldering
Torch Soldering
Furnace and Infrared Soldering
Dip Soldering
Resistance Soldering
Laser Soldering
Hot Gas Soldering
Induction Soldering
Wave Soldering
Vapor-Phase Soldering
Material Requirements for Service Conditions
Material Requirements for Service Conditions
Selection of Carbon and Low-Alloy Steels
Introduction to the Selection of Carbon and Low-Alloy Steels
Influence of Welding on Steel Weldment Soundness
Influence of Welding on Steel Weldment Properties
Selection of Stainless Steels
Introduction to the Selection of Stainless Steels
Selection of Wrought Martensitic Stainless Steels
Selection of Wrought Ferritic Stainless Steels
Selection of Wrought Austenitic Stainless Steels
Selection of Wrought Duplex Stainless Steels
Selection of Wrought Precipitation-Hardening Stainless Steels
Selection of Cast Stainless Steels
Dissimilar Welds With Stainless Steels
Selection of Nonferrous Low-Temperature Materials
Selection and Weldability of Conventional Titanium Alloys
Selection and Weldability of Advanced Titanium-Base Alloys
Selection and Weldability of Heat-Treatable Aluminum Alloys
Selection and Weldability of Non-Heat-Treatable Aluminum Alloys
Selection and Weldability of Dispersion-Strengthened Aluminum Alloys
Selection and Weldability of Aluminum-Lithium Alloys
Selection and Weldability of Aluminum Metal-Matrix Composites
Selection of Nonferrous High-Temperature Materials
General Welding Characteristics of High-Temperature Materials
Welding Metallurgy of Nonferrous High-Temperature Materials
Postweld Heat Treatment of Nonferrous High-Temperature Materials
Special Metallurgical Welding Considerations for Nickel and Cobalt Alloys
and Superalloys
Special Metallurgical Welding Considerations for Refractory Metals
Selection of Nonferrous Corrosion-Resistant Materials
Introduction to the Selection of Nonferrous Corrosion-Resistant Materials
Selection of Nickel, Nickel-Copper, Nickel-Chromium, and Nickel-Chromium-Iron
Alloys
Selection of Nickel-Base Corrosion-Resistant Alloys Containing Molybdenum
Selection of Cobalt-, Titanium-, Zirconium-, and Tantalum-Base Corrosion-Resistant
Alloys
Weldability Testing
Weldability Testing
Brazeability and Solderability of Engineering Materials
Brazeability and Solderability of Engineering Materials
Practice Considerations for Arc Welding
Arc Welding of Carbon Steels
Welding of Low-Alloy Steels
Welding of Stainless Steels
Welding of Cast Irons
Welding of Aluminum Alloys
Welding of Nickel Alloys
Welding of Copper Alloys
Welding of Magnesium Alloys
Welding of Titanium Alloys
Welding of Zirconium Alloys
Hardfacing, Weld Cladding, and Dissimilar Metal Joining
Practice Considerations for Resistance Welding & High-Energy-Beam
Welding
Procedure Development and Practice Considerations for Resistance Welding
Procedure Development and Practice Considerations for Electron-Beam Welding
Procedure Development and Practice Considerations for Laser-Beam Welding
Procedure Development and Practice Considerations for Solid-State Welding
Procedure Development and Practice Considerations for Diffusion Welding
Procedure Development and Practice Considerations for Inerti and Direct-Drive
Friction Welding
Procedure Development and Practice Considerations for Ultrasonic Welding
Procedure Development and Practice Considerations for Explosion Welding
Practice Considerations for Brazing and Soldering
Selection Criteri for Brazing and Soldering Consumables
Brazing of Cast Irons and Carbon Steels
Brazing of Stainless Steels
Brazing of Heat-Resistant Alloys, Low-Alloy Steels, and Tool Steels
Brazing of Copper, Copper Alloys, and Precious Metals
Brazing of Aluminum Alloys
Brazing of Refractory and Reactive Metals
Brazing of Ceramic and Ceramic-to-Metal Joints
Application of Clad Brazing Materials
General Soldering
Soldering in Electronic Applications
Special Welding and Joining Topics
Introduction to Special Welding and Joining Topics
Thermal Spray Coatings
Underwater Welding
Welding for Cryogenic Service
Welding in Space and Low-Gravity Environments
Joining of Organic-Matrix Composites
Joining of Oxide-Dispersion-Strengthened Materials
Composite-to-Metal Joining
Welding of Plastics
Intelligent Automation for Joining Technology
Corrosion of Weldments
Joint Evaluation and Quality Control
Overview of Weld Discontinuities
Inspection of Welded Joints
Weld Procedure Qualification
Residual Stresses and Distortion
Repair Welding
Fitness-for-Service Assessment of Welded Structures
Evaluation and Quality Control of Brazed Joints
Evaluation and Quality Control of Soldered Joints
Modeling of Joining Processes
Numerical Aspects of Modeling Welds
Characterization and Modeling of the Heat Source
Validation Strategies for Heat-Affected Zone and Fluid-Flow Calculations
Cutting Processes
Oxyfuel Gas Cutting
Plasm Arc Cutting
Air-Carbon Arc Cutting
Mechanical Cutting for Weld Preparation
Safe Practices
Safe Practices
|