Fundamentals of Modeling for Metals Processing
Volume 22A provides a thorough review of computational modeling and its application in the development of alloys and associated processing techniques. It describes the basic concepts of modeling and simulation and accepted practices in the use of finite elements, computational fluid dynamics, mechanistic and phenomenological modeling, and statistical approaches. It addresses a wide range of processes, including deformation and solidification transformations, recrystallization, grain growth, precipitation, strengthening, and the evolution of microstructure and surface texture. It offers insight on damage evolution processes as well, examining cavitation, fracture, hot tearing, creep, crack growth, and fatigue. It also discusses phase equilibria and phase field modeling, state variable and constitutive modeling, electronic structure modeling, and density functional theory. It explains how use models to simulate and control mechanical properties and minimize defects in specific steels, aluminum, titanium, and superalloys. The volume also includes physical data, mathematical reference information, and a discussion on length scales and relevant effects. For information on the print version of Volume 22A, ISBN 978-1-61503-001-9, follow this link.
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Table of Contents
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Introduction
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Introduction to Fundamentals of Modeling for Metals ProcessingByS. L. SemiatinS. L. SemiatinAir Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Integrated Computational Materials Engineering[1]ByPublished:01 December 2009
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Model Quality ManagementByCharles Kuehmann;Charles KuehmannQuesTek Innovations LLCSearch for other works by this author on:Herng-Jeng JouHerng-Jeng JouQuesTek Innovations LLCSearch for other works by this author on:Published:01 December 2009
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Fundamentals of Process Modeling
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Modeling of Deformation Processes—Slab and Upper Bound MethodsByRajiv ShivpuriRajiv ShivpuriThe Ohio State UniversitySearch for other works by this author on:Published:01 December 2009
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Transport Phenomena during SolidificationByJonathan A. DantzigJonathan A. DantzigUniversity of Illinois at Urbana-ChampaignSearch for other works by this author on:Published:01 December 2009
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Modeling of Vapor-Phase ProcessesByAlain DolletAlain DolletProcesses, Materials and Solar Energy Laboratory (PROMES) CNRS,FranceSearch for other works by this author on:Published:01 December 2009
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Determination of Heat Transfer Coefficients for Thermal ModelingByD. Scott MacKenzie;D. Scott MacKenzieHoughton International, Inc.Search for other works by this author on:Andrew L. BankaAndrew L. BankaAirflow Sciences CorporationSearch for other works by this author on:Published:01 December 2009
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Interface Effects for Deformation ProcessesByM. Krzyzanowski;M. KrzyzanowskiThe University of Sheffield,United KingdomSearch for other works by this author on:J.H. BeynonJ.H. BeynonSwinburne University of Technology,AustraliaSearch for other works by this author on:Published:01 December 2009
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Heat-Transfer Interface Effects for Solidification ProcessesByP.A. KobrynP.A. KobrynAir Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Fundamentals of the Modeling of Microstructure and Texture Evolution
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Modeling Diffusion in Binary and Multicomponent AlloysByFrederick MeisenkothenFrederick MeisenkothenUES, Inc./Air Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Diffusivity and Mobility DataByCarelyn E. CampbellCarelyn E. CampbellNational Institute of Standards and TechnologySearch for other works by this author on:Published:01 December 2009
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Localization Parameter for the Prediction of Interface Structures and ReactionsByWitold Lojkowski;Witold LojkowskiInstitute of High-Pressure Physics, Polish Academy of Sciences,PolandSearch for other works by this author on:Hans J. FechtHans J. FechtInstitute for Micro and Nanotechnology, University of Ulm,GermanySearch for other works by this author on:Published:01 December 2009
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Models for Martensitic TransformationsByA. SaxenaA. SaxenaLos Alamos National LaboratorySearch for other works by this author on:Published:01 December 2009
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Modeling of Nucleation ProcessesByEmmanuel ClouetEmmanuel ClouetCEA, DEN, Service de Recherches de Métallurgie Physique,FranceSearch for other works by this author on:Published:01 December 2009
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Models of RecrystallizationByFrank Montheillet;Frank MontheilletCNRS, Ecole Nationale Supérioure des Mines de Saint-Etienne,FranceSearch for other works by this author on:John J. JonasJohn J. JonasBirks Professor of Metallurgy Emeritus, McGill University,CanadaSearch for other works by this author on:Published:01 December 2009
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Crystal-Plasticity FundamentalsByHenry R. PiehlerHenry R. PiehlerCarnegie Mellon UniversitySearch for other works by this author on:Published:01 December 2009
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Self-Consistent Modeling of Texture EvolutionByDavid DyeDavid DyeImperial College,London,United KingdomSearch for other works by this author on:Published:01 December 2009
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Crystal-Scale Simulations Using Finite-Element FormulationsPublished:01 December 2009
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Cellular Automaton Models of RecrystallizationByC.H.J. DaviesC.H.J. DaviesMonash University,AustraliaSearch for other works by this author on:Published:01 December 2009
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Monte Carlo Models for Grain Growth and RecrystallizationByMark MiodownikMark MiodownikKing's College London,United KingdomSearch for other works by this author on:Published:01 December 2009
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Network and Vertex Models for Grain GrowthByL.A. Barrales Mora;L.A. Barrales MoraInstitut für Metallkunde und Metallphysik,Aachen,GermanySearch for other works by this author on:V. Mohles;V. MohlesInstitut für Metallkunde und Metallphysik,Aachen,GermanySearch for other works by this author on:G. Gottstein;G. GottsteinInstitut für Metallkunde und Metallphysik,Aachen,GermanySearch for other works by this author on:L.S. ShvindlermanL.S. ShvindlermanInstitut für Metallkunde und Metallphysik,Aachen,GermanySearch for other works by this author on:Published:01 December 2009
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Phase-Field Microstructure ModelingByYunzhi WangYunzhi WangThe Ohio State UniversitySearch for other works by this author on:Published:01 December 2009
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Modeling of Microstructure Evolution during Solidification Processing[1]ByCh.-A. Gandin;Ch.-A. GandinEcole Nationale Superieure des Mines de ParisSearch for other works by this author on:I. SteinbachI. SteinbachRuhr-University BochumSearch for other works by this author on:Published:01 December 2009
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Fundamentals of the Modeling of Damage Evolution and Defect Generation
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Modeling and Simulation of Cavitation during Hot WorkingByS.L. SemiatinS.L. SemiatinAir Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Modeling of Cavity Initiation and Early Growth during Superplastic and Hot DeformationByS.L. SemiatinS.L. SemiatinAir Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Models for Fracture during Deformation ProcessingByPublished:01 December 2009
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Modeling of Hot Tearing and Other Defects in Casting ProcessesByBrian G. ThomasBrian G. ThomasUniversity of Illinois (UIUC)Search for other works by this author on:Published:01 December 2009
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Phenomenological or Mechanistic Models for Mechanical Properties
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Modeling of Tensile PropertiesByPeter C. Collins;Peter C. CollinsThe Ohio State UniversitySearch for other works by this author on:Hamish L. FraserHamish L. FraserThe Ohio State UniversitySearch for other works by this author on:Published:01 December 2009
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Modeling of CreepBySammy TinSammy TinIllinois Institute of TechnologySearch for other works by this author on:Published:01 December 2009
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Microstructure-Sensitive Modeling and Simulation of FatigueByDavid L. McDowellDavid L. McDowellGeorgia Institute of TechnologySearch for other works by this author on:Published:01 December 2009
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Modeling Creep FatigueByJeffrey L. Evans;Jeffrey L. EvansUniversity of Alabama in HuntsvilleSearch for other works by this author on:Ashok SaxenaAshok SaxenaUniversity of ArkansasSearch for other works by this author on:Published:01 December 2009
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Modeling Fatigue Crack GrowthByAndrew H. RosenbergerAndrew H. RosenbergerAir Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Neural-Network ModelingByH.K.D.H. Bhadeshia;H.K.D.H. BhadeshiaUniversity of CambridgeSearch for other works by this author on:H.J. StoneH.J. StoneUniversity of CambridgeSearch for other works by this author on:Published:01 December 2009
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Material Fundamentals
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Phase Equilibria and Phase Diagram ModelingByPublished:01 December 2009
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Internal-State Variable Modeling of Plastic FlowByH. Mecking;H. MeckingMaterial Science and Technology, T U Hamburg-Harburg,GermanySearch for other works by this author on:A. BeaudoinA. BeaudoinUniversity of Illinois at Urbana-ChampaignSearch for other works by this author on:Published:01 December 2009
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Constitutive Models for Superplastic FlowByRajiv S. MishraRajiv S. MishraMissouri University of Science and TechnologySearch for other works by this author on:Published:01 December 2009
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Electronic Structure Methods Based on Density Functional TheoryByChristopher WoodwardChristopher WoodwardAir Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Modeling of Microstructures
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Simulation of Microstructural Evolution in SteelsByR. ShivpuriR. ShivpuriThe Ohio State UniversitySearch for other works by this author on:Published:01 December 2009
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Simulation of Microstructure and Texture Evolution in Aluminum SheetByOlaf Engler;Olaf EnglerHydro Aluminium Deutschland GmbH, R&D Center,Bonn,GermanySearch for other works by this author on:Kai Karhausen;Kai KarhausenHydro Aluminium Deutschland GmbH, R&D Center,Bonn,GermanySearch for other works by this author on:Jürgen HirschJürgen HirschHydro Aluminium Deutschland GmbH, R&D Center,Bonn,GermanySearch for other works by this author on:Published:01 December 2009
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Modeling of Microstructure Evolution during the Thermomechanical Processing of Titanium AlloysByS.L. Semiatin;S.L. SemiatinAir Force Research LaboratorySearch for other works by this author on:D.U. FurrerD.U. FurrerRolls-Royce CorporationSearch for other works by this author on:Published:01 December 2009
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Modeling and Simulation of Texture Evolution during the Thermomechanical Processing of Titanium AlloysByS.L. Semiatin;S.L. SemiatinAir Force Research Laboratory, Wright-Patterson Air Force Base,OH,USASearch for other works by this author on:M.G. Glavicic;M.G. GlavicicRolls-Royce Corporation,Indianapolis, IN,USASearch for other works by this author on:S.V. Shevchenko;S.V. ShevchenkoKurdyumov Institute for Metal Physics,Kyiv,UkraineSearch for other works by this author on:O.M. Ivasishin;O.M. IvasishinKurdyumov Institute for Metal Physics,Kyiv,UkraineSearch for other works by this author on:S.K. HwangS.K. HwangInha University,Incheon,KoreaSearch for other works by this author on:Published:01 December 2009
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Application of Neural-Network ModelsByWei Sha;Wei ShaQueen's University,Belfast,United KingdomSearch for other works by this author on:Savko MalinovSavko MalinovQueen's University,Belfast,United KingdomSearch for other works by this author on:Published:01 December 2009
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Modeling of Microstructure Evolution during the Thermomechanical Processing of Nickel-Base SuperalloysByJ.P. Thomas;J.P. ThomasATI Allvac, an Allegheny Technologies companySearch for other works by this author on:F. Montheillet;F. MontheilletCNRS, Ecole Nationale Supérieure des Mines de Saint-EtienneSearch for other works by this author on:S. L. SemiatinS. L. SemiatinAir Force Research LaboratorySearch for other works by this author on:Published:01 December 2009
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Reference Information
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Physical Data on the Elements and Alloys
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Physical Constants and Physical Properties of the ElementsPublished:01 December 2009
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Reference Information
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Glossary of Terms: Modeling for Metals ProcessingPublished:01 December 2009