- Language: English
- Published: October 2014
- Region: Global
The Alloy Tree
- ID: 2736454
- July 2004
- 208 Pages
- Elsevier Science and Technology
There are certain key alloys, stainless steels, nickel alloys and low alloy steels that are of paramount importance to the power generation, petrochemical and oil and gas industries. In one fully comprehensive guide, The alloy tree addresses the significance of such alloys and their role in these fundamental industries.
The book begins with a short introduction and a master flow diagram, the "alloy tree?, which shows the interrelationship between the main alloy groups. This is followed by ten chapters, each describing how stainless steels, nickel alloys and some low alloy steels have evolved from plain carbon steel. Adopting a narrative style, each chapter explains the background, development, key properties and applications of the alloy type. Abbreviations, specifications, product forms, alloying costs and types of corrosion are covered in the extensive appendices and a full bibliography and sources of further information conclude the book.
The alloy tree is an important reference for Metallurgists and Materials Engineers and for those mechanical and chemical engineers who have an interest in the alloys used in their industries.
- Illustrates the inter-relationship between the main alloy groups
- Traces the evolution and development of key alloys
- Comprehensive guide that looks at stainless steels, nickel alloys and low alloy steels and their role in the power generation, petrochemical and oil and gas industries
Introduction: The alloy tree
Group A: Creep resisting low alloy steels
Group B: Cryogenic, nickel low alloy steels
Group C: Martensitic and ferritic stainless steels
Group D: Duplex and superduplex stainless steels
Group E: Standard austenitic stainless steels
Group F: Austenitic and superaustenitic stainless steels
Group G: Corrosion resistant nickel alloys
Group F: Heat resistant stainless steels
Group I: Heat resistant nickel alloys
Group J: Nickel-copper and nickel-molybdenum alloys.
Dr Chris Farrar graduated from Cambridge University in 1966 and was later awarded a PhD from the University's Department of Metallurgy and Materials. He worked at both TWI, Cambridge and Robert Jenkins and Co. Ltd, Rotherham, before being appointed Technical Director at Metrode Products Ltd, where most of his ideas and research for this book began. He is now a senior partner of the Chris Farrar Partnership - Metallurgical and Welding Consultancy.