APPLIED MECHANICS AND STRENGTH OF MATERIALS
CONTENTS MODELING OF METAL FORMING: A REVIEW INTRODUCTION MODELING ISSUES IN VARIOUS METAL FORMING PROCESSES FORGING ROLLING WIRE DRAWING EXTRUSION DEEP DRAWING BENDING VARIOUS MODELING TECHNIQUES SLAB METHOD SLIP-LINE FIELD METHOD VISIOPLASTICITY UPPER BOUND METHOD FINITE DIFFERENCE METHOD FINITE ELEMENT METHOD MESHLESS METHOD MOLECULAR DYNAMICS SIMULATION SOFT COMPUTING INVERSE MODELING MODELING OF MICROSTRUCTURE AND SURFACE INTEGRITY A NOTE ON MULTISCALE MODELING OF METAL FORMING CHALLENGING ISSUES CONCLUSION REFERENCES FINITE ELEMENT METHOD MODELING OF HYDRAULIC AND THERMAL AUTOFRETTAGE PROCESSES HYDRAULIC AUTOFRETTAGE SWAGE AUTOFRETTAGE EXPLOSIVE AUTOFRETTAGE THERMAL AUTOFRETTAGE ROTATIONAL AUTOFRETTAGE NUMERICAL MODELING OF ELASTICPLASTIC PROBLEMS YIELD CRITERIA AND HARDENING BEHAVIOR OF THE MATERIAL APPROACHES FOR NUMERICAL MODELING OF ELASTICPLASTIC PROBLEMS FEM FORMULATION USING UPDATED LAGRANGIAN METHOD DERIVATION OF THE WEAK FORM OF THE EQUILIBRIUM EQUATION FORMULATION OF ELEMENTAL EQUATIONS SOLUTION METHOD TYPICAL RESULTS OF FEM MODELING OF HYDRAULIC AND THERMAL AUTOFRETTAGE RESULTS OF HYDRAULIC AUTOFRETTAGE RESULTS OF THERMAL AUTOFRETTAGE MECHANICS OF HYDROFORMING MODELING OF PLASTIC DEFORMATION IN TUBE HYDROFORMING ROTATIONALLY SYMMETRICAL TUBE EXPANSION HYDROFORMING OF POLYGONAL CROSS SECTIONS HYDROFORMING OF TUBE BRANCHES DETERMINATION OF FORMING LIMITS IN TUBE HYDROFORMING NECKING AND BURSTING WRINKLING AND BUCKLING DESIGN OF LOADING PATHS ELECTROMAGNETIC PULSE FORMING PROCESS CLASSIFICATION PROCESS PRINCIPLE AND MAJOR PROCESS VARIANTS GENERAL SETUP AND PROCESS PRINCIPLE MAJOR PROCESS VARIANTS CALCULATION OF THE PROCESS MECHANICS ANALYTICAL CALCULATION OF THE ACTING LOADS NUMERICAL CALCULATION OF THE PROCESS ADVANTAGES AND APPLICATION FIELDS OF ELECTROMAGNETIC PULSE FORMING SHAPING JOINING CUTTING PROSPECTS FOR FUTURE DEVELOPMENTS DAMAGE IN ADVANCED PROCESSING TECHNOLOGIES CONCEPTS OF DAMAGE AND DAMAGE VARIABLES DAMAGE MECHANISMS ADVANCED MANUFACTURING TECHNOLOGY: HOT STAMPING CONCEPT AND FEATURES OF FORMING LIMIT DIAGRAM OVERVIEW OF FORMABILITY EVALUATION FORMING LIMIT PREDICTION EXPERIMENTAL METHODS FOR DETERMINING FORMING LIMITS REQUIREMENTS FOR HOT STAMPING APPLICATIONS ADVANCED TESTING SYSTEM FOR HOT STAMPING APPLICATIONS MODELING OF DAMAGE EVOLUTION CONSTITUTIVE EQUATIONS ADVANCED DAMAGE MODELS A SET OF UNIFIED CONSTITUTIVE EQUATIONS FOR HOT STAMPING MODELING OF FORMING LIMIT DIAGRAMS DAMAGE CALIBRATION TECHNIQUES OVERVIEW OF DAMAGE CALIBRATION TECHNIQUES AN EXAMPLE OF USING THERMOMECHANICAL UNIAXIAL TEST DATA EXAMPLES OF USING THERMOMECHANICAL MULTIAXIAL TENSILE TEST DATA APPLICATIONS OF DAMAGE MODELING TECHNIQUE FOR HOT STAMPING PLANE STRESSBASED CONTINUUM DAMAGE MECHANICS MATERIAL MODEL PRINCIPAL STRAINBASED CONTINUUM DAMAGE MECHANICS MATERIAL MODEL PREDICTION OF FORMABILITY IN HOT FORMING NUMERICAL MODELING OF THE MECHANICS OF PULTRUSION PULTRUSION OVERVIEW AND MOTIVATION OF THE CHAPTER RESIN IMPREGNATION SATURATED PRESSURE-DRIVEN FLOW RESIN VISCOSITY PERMEABILITY OF FIBER REINFORCEMENTS UNSATURATED IMPREGNATION FLOW THERMOCHEMICAL MODELING HEAT TRANSFER CURE KINETICS AND DIFFERENTIAL SCANNING CALORIMETRY MODELING CONSIDERATIONS: SIMPLE MODELS AND STATE-OF-THE-ART THERMOCHEMICALMECHANICAL MODELING AND RESIDUAL STRESS FORMATION THE EVOLUTION OF MATERIAL PROPERTIES MECHANICAL MODELING STRATEGIES ASSESSMENT OF THE RESULTANT RESIDUAL STRESS FIELDS AND THE VERIFICATION PULLING FORCE MODELING OF MACHINING PROCESSES NOMENCLATURE CLOSED-LOOP PRINCIPLE OF MODELING MODELING AND SIMULATION TECHNIQUES SLIP-LINE METHOD FINITE ELEMENT MODELING (FINITE ELEMENT METHOD) COMPLEMENTARY METHODS MODELING AND SIMULATION IN THE INDUSTRY—SELECTED EXAMPLES CUTTING TOOL OPTIMIZATION HIGH-SPEED CUTTING OR HIGH-PERFORMANCE CUTTING DRY MACHINING BURR FORMATION AND CLEAN MANUFACTURING CRYOGENIC MACHINING OPEN ISSUES HYBRID MODELING AND CLOSED-LOOP DESIGN MULTISCALE MODELING IN MACHINING MULTISCALE MODELING IN COATING-SUBSTRATE SIMULATION SUMMARY FURTHER READING MECHANICS OF ULTRASONICALLY ASSISTED DRILLING DRILLING: THEORY AND MODELING KINEMATIC MODELING FINITE-ELEMENT MODELING ULTRASONICALLY ASSISTED DRILLING EXPERIMENTAL SETUP AND INSTRUMENTATION CASE STUDY: DRILLING IN COMPOSITES CONCLUSION AND OUTLOOK MACHINING IN MONOCRYSTALS MECHANICS OF SINGLE-CRYSTAL MACHINING SINGLE-CRYSTAL-PLASTICITY THEORY COMPUTATIONAL IMPLEMENTATION CRITERIA OF MATERIAL-REMOVAL MODELING MACHINING OF SINGLE-CRYSTAL METAL EXPERIMENTAL PROCEDURE FINITE-ELEMENT MODEL AND MATERIAL PARAMETERS SIMULATION AND RESULTS DISCUSSION MACHINING OF SINGLE-CRYSTAL CERAMIC MATERIAL COMPUTATIONAL MODELING RESULTS AND DISCUSSION CONCLUDING REMARKS MICROSTRUCTURAL CHANGES IN MACHINING MICROSTRUCTURAL EVOLUTION IN MACHINING MICROSTRUCTURAL EVOLUTION IN MACHINED SURFACE MICROSTRUCTURAL EVOLUTION IN CHIP MICROSTRUCTURAL MODELS FOR MACHINING MECHANISM MODELS OF MICROSTRUCTURAL EVOLUTION CALCULATION OF MICROSTRUCTURAL EVOLUTION MICROSTRUCTURAL EVOLUTION IN ULTRASONICALLY ASSISTED CUTTING MICROSTRUCTURAL EVOLUTION IN MACHINED SURFACE WITH ULTRASONICALLY ASSISTED CUTTING MICROSTRUCTURAL EVOLUTION IN CHIP WITH ULTRASONICALLY ASSISTED CUTTING ACKNOWLEDGMENTS RESIDUAL STRESSES IN MACHINING FUNDAMENTALS OF MACHINING AND RESIDUAL STRESSES METAL-CUTTING DEFINITION AND ENERGY CONSIDERATIONS DEFINITION AND ORIGINS OF RESIDUAL STRESSES TECHNIQUES FOR MEASURING RESIDUAL STRESS RESIDUAL STRESSES IN MACHINING OPERATIONS ORIGIN OF RESIDUAL STRESSES IN METAL CUTTING RESIDUAL STRESSES IN DIFFICULT-TO-CUT MATERIALS EFFECT OF RELATIVE TOOL SHARPNESS ON RESIDUAL STRESSES CONTROL OF RESIDUAL STRESSES IN MACHINING MODELING AND SIMULATION OF RESIDUAL STRESSES MODELING AND SIMULATION CONSIDERATIONS RELEVANCE OF CONSTITUTIVE AND CONTACT MODELS IN RESIDUAL- STRESS PREDICTION SIMULATION OF RESIDUAL STRESSES FOR SEVERAL WORK MATERIALS PROCEDURE FOR COMPARING PREDICTED AND MEASURED RESIDUAL STRESSES OPTIMIZATION OF CUTTING CONDITIONS FOR IMPROVED RESIDUAL STRESSES AND SURFACE ROUGHNESS IN MACHINED COMPONENTS INFLUENCE OF RESIDUAL STRESS ON PRODUCT SUSTAINABILITY CORROSION RESISTANCE FATIGUE STRENGTH MICROSTRUCTURAL CHANGES IN MATERIALS UNDER SHOCK AND HIGH STRAIN RATE PROCESSES: RECENT UPDATES SHOCK WAVE AND PARAMETERS EXPERIMENTAL METHODS FOR INVESTIGATION OF SHOCK WAVES TAYLOR’S IMPACT TEST EXPLOSIVE LOADING OF MATERIALS FLYER PLATE IMPACT TEST SPLIT-HOPKINSON PRESSURE BAR SHOCK IMPACT IN A SHOCK TUBE LASER-INDUCED SHOCK GENERATION PARAMETERS INFLUENCING MATERIAL RESPONSE TO SHOCK EXPOSURE TYPES OF SHOCK-GENERATED DEFECTS EFFECT OF MATERIAL PARAMETERS EFFECT OF SHOCK PARAMETERS OTHER FACTORS: RESIDUAL STRAIN THEORY OF DEFECT GENERATION UNDER SHOCK: PAST THEORIES AND NEW PERSPECTIVES THERMOMECHANICS OF FRICTION STIR WELDING THERMAL BEHAVIOR MICROSTRUCTURAL EVOLUTION RESIDUAL STRESSES AND DISTORTIONS MATERIAL FLOW MODELING OF FRICTION IN MANUFACTURING PROCESSES HISTORY OF FRICTION MODELING SOME POPULAR FRICTION MODELS AMONTONSCOULOMB’S MODEL CONSTANT-FRICTION MODEL WANHEIM AND BAY’S MODEL ASPERITY-BASED FRICTION MODEL PLOWING MODEL FRICTION IN MACHINING FRICTION MODELS IN METAL FORMING FRICTION IN SOLID-STATE WELDING FRICTION MODELS FOR MICROMANUFACTURING CHALLENGING ISSUES AND DIRECTIONS FOR FUTURE RESEARCH ACKNOWLEDGMENT