Complete casting handbook : metal casting processes, metallurgy, techniques and design /

Campbell's Complete Casting Handbook: Metal Casting Processes, Techniques and Design, Second Edition provides an update to the first single-volume guide to cover modern principles and processes in such breadth and depth, while also retaining a clear, practical focus. The work has a unique viewp...

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Bibliographic Details
Main Authors: Campbell, John, 1938
Corporate Authors: Elsevier Science & Technology
Published: Elsevier : Butterworth-Heinemann,
Publisher Address: Amsterdam :
Publication Dates: 2015.
©2015
Literature type: eBook
Language: English
Edition: Second edition.
Subjects:
Online Access: http://www.sciencedirect.com/science/book/9780444635099
Summary: Campbell's Complete Casting Handbook: Metal Casting Processes, Techniques and Design, Second Edition provides an update to the first single-volume guide to cover modern principles and processes in such breadth and depth, while also retaining a clear, practical focus. The work has a unique viewpoint, interpreting the behavior of castings, and metals as a whole, in terms of their biofilm content, the largely invisible casting defects which control much of the structure and behavior of metals. This new edition includes new findings, many from John Campbell's own research, on crack initiat.
Carrier Form: 1 online resource
Bibliography: Includes bibliographical references and index.
ISBN: 9780081001202
0081001207
Index Number: TS230
CLC: TG2
Contents: Front Cover; Complete Casting Handbook; Copyright; Dedication; Contents; Preface; Introduction; CASTINGS HANDBOOK, 2ND EDITION, 2015; Acknowledgements; CASTING METALLURGY; CHAPTER 1 -- THE MELT; 1.1 REACTIONS OF THE MELT WITH ITS ENVIRONMENT; 1.2 TRANSPORT OF GASES IN MELTS; 1.3 SURFACE FILM FORMATION; 1.4 VAPORISATION; CHAPTER 2 -- ENTRAINMENT; 2.1 ENTRAINMENT DEFECTS; 2.2 ENTRAINMENT PROCESSES; 2.3 FURLING AND UNFURLING; 2.4 DEACTIVATION OF ENTRAINED FILMS; 2.5 SOLUBLE, TRANSIENT FILMS; 2.6 DETRAINMENT; 2.7 EVIDENCE FOR BIFILMS; 2.8 THE IMPORTANCE OF BIFILMS
2.9 the four common populations of bifilmschapter 3 -- flow; 3.1 effect of surface films on filling; 3.2 maximum fluidity (the science of unrestricted flow); 3.3 extended fluidity; 3.4 continuous fluidity; chapter 4 -- moulds and cores; 4.1 moulds: inert or reactive; 4.2 transformation zones; 4.3 evaporation and condensation zones; 4.4 mould atmosphere; 4.5 mould surface reactions; 4.6 metal surface reactions; 4.7 mould coatings; chapter 5 -- solidification structure; 5.1 heat transfer; 5.2 development of matrix structure; 5.3 segregation; chapter 6 -- casting alloys; 6.1 zinc alloys
6.2 magnesium alloys6.3 aluminium; 6.4 copper alloys; 6.5 cast iron; 6.6 steels; 6.7 nickel-base alloys; 6.8 titanium; chapter 7 -- porosity; 7.1 shrinkage porosity; 7.2 gas porosity; 7.3 porosity diagnosis; chapter 8 -- cracks and tears; 8.1 hot tearing; 8.2 cold cracking; chapter 9 -- properties of castings; 9.1 test bars; 9.2 the statistics of failure; 9.3 effect of defects; 9.4 tensile properties; 9.5 fracture toughness; 9.6 fatigue; 9.7 elastic (young's) modulus and damping capacity; 9.8 residual stress; 9.9 high temperature tensile properties; 9.10 oxidation and corrosion resistance
9.11 leak-tightness9.12 surface finish; 9.13 quality indices; 9.14 bifilm-free properties; casting manufacture; introduction to the casting manufacturing industry; section -- 1; chapter 10 -- the 10 rules for good castings; 10.1 rule 1: use a good-quality melt; 10.2 rule 2: avoid turbulent entrainment (the critical velocity requirement); 10.3 rule 3: avoid laminar entrainment of the surface film (the non-stopping, non-reversing condition); 10.4 rule 4: avoid bubble damage; 10.5 rule 5: avoid core blows; 10.6 rule 6: avoid shrinkage damage; 10.7 rule 7: avoid convection damage
10.8 rule 8: reduce segregation damage10.9 rule 9: reduce residual stress; 10.10 rule 10: provide location points; section 2 -- filling system design; chapter 11 -- filling system design fundamentals; 11.1 the maximum velocity requirement; 11.2 gravity pouring: the 'no-fall' conflict; 11.3 reduction or elimination of gravity problems; 11.4 surface tension controlled filling; chapter 12 -- filling system components; 12.1 pouring basin; 12.2 sprue (down-runner); 12.3 runner; 12.4 gates; 12.5 surge control systems; 12.6 vortex systems; 12.7 inclusion control: filters and traps; 12.8 filters
Chapter 13 -- filling system design practice