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Preface | p. xix |
Acknowledgments | p. xxii |
Background Matters | p. 1 |
Manufacturing Management | p. 3 |
Mechanical Production | p. 3 |
Industrial and Production Engineering | p. 12 |
Industrial Engineering: Production Planning and Control | p. 14 |
Group Technology | p. 20 |
Process Planning: Computer-Aided Process Planning | p. 24 |
Manufacturing Resources Planning | p. 33 |
Production Scheduling, Monitoring, and Control | p. 37 |
Just in Time | p. 38 |
Conclusion | p. 41 |
References | p. 42 |
Questions | p. 43 |
Engineering Materials and Their Properties | p. 45 |
Introduction | p. 45 |
Mechanical Properties | p. 46 |
The Tensile Test | p. 46 |
Hardness Testing | p. 50 |
Notched Bar Impact Tests | p. 51 |
High Temperature Tests | p. 52 |
Fatigue Testing | p. 52 |
Structures and Transformations in Metals and Alloys | p. 53 |
Crystal Structures | p. 53 |
Crystal Imperfections: Dislocations | p. 54 |
Grain Boundaries and Deformation | p. 56 |
Alloys: Phase Diagrams | p. 56 |
General | p. 56 |
The Fe-C Phase Diagram | p. 60 |
Heat Treatment of Metals | p. 63 |
Allotropic Metals: Steels | p. 63 |
Phase Diagram for Al Alloys: Precipitation Hardening | p. 67 |
Solid Solution Treatment | p. 69 |
Summarizing Methods of Strengthening Metals | p. 70 |
Engineering Metals | p. 71 |
Steels | p. 71 |
Cast Irons | p. 76 |
Aluminum Alloys and Magnesium Alloys | p. 78 |
Copper, Nickel, Zinc, and Their Alloys | p. 80 |
Titanium Alloys | p. 82 |
Superalloys | p. 83 |
Refractory Metals | p. 84 |
Plastics | p. 85 |
Polymerization Methods, Bonding, and Structures | p. 86 |
Additives | p. 88 |
Thermoplastics | p. 89 |
Thermosets | p. 90 |
Elastomers | p. 92 |
Special Applications of Polymers | p. 92 |
Ceramics | p. 96 |
Composite Materials | p. 99 |
References | p. 102 |
Questions | p. 103 |
Primary Metalworking | p. 105 |
Introduction: Iron and Steel Industries | p. 105 |
Blast Furnace Operations | p. 111 |
Design of the Furnace: Inputs and Outputs | p. 111 |
Chemistry of the Blast Furnace Reactions | |
Steel-Making Furnace Operations | p. 119 |
The Open-Hearth (OH) Process | p. 119 |
Basic Oxygen Furnace (BOF) | p. 122 |
Electric Furnaces | p. 124 |
Summary of Steel Production | p. 126 |
Ingots: Continuous Casting of Slabs | p. 127 |
Hot Forming: Open-Die Forging and Rolling | p. 130 |
Primary Hot Rolling | p. 131 |
Rolling Mill Configurations | p. 134 |
Hot Forming of Tubes and Pipes | p. 139 |
Cold Rolling of Sheet Metal | p. 142 |
Casting | p. 142 |
Expendable Mold Processes | p. 146 |
Permanent-Mold Casting | p. 152 |
Casting Materials | p. 156 |
Aluminum: Manufacture, Use, and Processing | p. 157 |
Manufacture and Use | p. 157 |
Processing | p. 160 |
Other Metals | p. 164 |
Powder Metallurgy | p. 165 |
The Powder | p. 166 |
Compacting | p. 167 |
Sintering | p. 168 |
References | p. 171 |
Questions | p. 172 |
Traditional Processes | p. 175 |
Metal Forming Technology | p. 177 |
General Operating Conditions, Machines, and Tools | p. 177 |
Hot Forming | p. 178 |
Cold Work and Anneal Cycle | p. 181 |
Basic Machines for Metal Forming | p. 185 |
Forging | p. 201 |
Open-Die Forging (ODF) | p. 201 |
Roll Forging | p. 204 |
Closed-Die Forging (CDF) | p. 205 |
Hot and Cold Upsetting | p. 209 |
Extrusion | p. 215 |
Forgeability of Metals | p. 217 |
Sheet Metal Forming | p. 218 |
Basic Operations and Presses | p. 218 |
Automation of Presswork | p. 223 |
Press Brake Work | p. 229 |
Cold Roll Forming | p. 230 |
Formability of Sheet Metals | p. 232 |
Numerical Control (NC) in Metal Forming | p. 236 |
Numerically Controlled (NC) Bending on a Press Brake | p. 236 |
NC Turret Punch Presses | p. 237 |
References | p. 240 |
Questions | p. 241 |
Metal Forming Mechanics | p. 242 |
Elementary Concepts | p. 242 |
The Stress-Strain Diagram | p. 243 |
Stress in Three Dimensions | p. 246 |
Yielding: Plastic Deformation | p. 249 |
Special Cases of Yielding | p. 251 |
Bulk Forming: Basic Approach--Forces, Pressures | p. 253 |
Wire Drawing: Work, Force, and Maximum Reduction Without Friction | p. 253 |
Wire Drawing: Pressure on the Die, and Axisymmetric Yielding | p. 254 |
Wire Drawing with Friction | p. 255 |
Extruding a Round Bar | p. 258 |
Rolling with Back and Forward Tension: Plane-Strain Yielding | p. 258 |
Bulk Forming: Effects of Redundant Work and of Friction | p. 260 |
Nonhomogeneous Deformation: Redundant Work | p. 260 |
The Effect of Friction in Plane Strain | p. 266 |
Effect of Friction in Upsetting a Cylindrical Workpiece | p. 273 |
Summary of the Effect of Friction and Redundant Work | p. 280 |
Force and Neutral Point in Cold Rolling | p. 282 |
Material Failure in Bulk Forming | p. 288 |
Analysis of Plate- and Sheet-Metal Forming | p. 290 |
Simplified Analysis | p. 290 |
Elastic and Plastic Bending | p. 293 |
Residual Stresses | p. 299 |
Failures and Limitations in Bending | p. 302 |
Drawing of a Non-Strain-Hardening Material | p. 306 |
Radial Drawing of a Strain-Hardening Material | p. 308 |
Chatter in Cold Rolling | p. 312 |
A Simple Rolling Chatter Theory | p. 312 |
References | p. 317 |
Questions | p. 317 |
Problems | p. 318 |
Processing of Polymers | p. 324 |
Introduction: Properties Used in Processing | p. 324 |
Summary of Selected Polymers | p. 325 |
Thermoplastics | p. 330 |
Thermosets | p. 332 |
Elastomers | p. 332 |
Thermal Properties: Viscosity | p. 333 |
Newtonian Flow in a Rectangular Channel (Slit) | p. 337 |
Non-Newtonian, Power-Law Flow in a Flat Channel | p. 340 |
Flow in a Tube | p. 345 |
Processing Methods and Operations | p. 347 |
General Considerations | p. 347 |
Casting | p. 348 |
Compression (CM) and Transfer Molding (TM) | p. 349 |
Extrusion | p. 349 |
Injection Molding (IM) | p. 356 |
Thermoforming | p. 364 |
Analysis of the Plasticating Screw | p. 366 |
Processing of Polymer-Based Composites | p. 368 |
Preforms | p. 368 |
Hand Lay-Up and Spray-Up Molding | p. 370 |
Filament Winding | p. 370 |
Pultrusion | p. 374 |
References | p. 375 |
Questions | p. 375 |
Problems | p. 376 |
Cutting Technology | p. 377 |
Introduction | p. 377 |
Single-Point Tool Operations | p. 378 |
Metal Removal Rate: Cutting Force | p. 379 |
The Tools | p. 381 |
The Machine Tools | p. 386 |
Drilling and Allied Operations | p. 390 |
Metal Removal Rate: Force, Torque, and Power | p. 393 |
Drilling Machines | p. 394 |
Multipoint Tool Operations: Milling | p. 396 |
Mean Chip Thickness, MRR, and Power | p. 398 |
Design of Milling Cutters | p. 402 |
Milling Machines | p. 405 |
Broaching | p. 408 |
References | p. 412 |
Questions | p. 413 |
Problems | p. 413 |
Cutting Mechanics | p. 415 |
The Cutting Force | p. 416 |
Chip Generation | p. 418 |
Simplified Formulations | p. 425 |
Temperature Field in the Chip and in the Tool | p. 427 |
Shear Plane Temperature | p. 427 |
Computing the Temperature Field | p. 431 |
Cutting-Tool Materials | p. 443 |
High-Speed Steels | p. 447 |
Sintered Carbides | p. 450 |
Ceramic Tools | p. 455 |
Borazon and Polycrystalline Diamond | p. 456 |
Tool Wear: Choice of Cutting Conditions, Machinability of Materials | p. 458 |
Tool Wear | p. 458 |
Tool Wear Rate and Tool Life | p. 462 |
Optimizing Cutting Speed and Feed in a Single Cut Operation: Taylor-Type Tool Life Equation | p. 465 |
Optimizing Cutting Speed and Feed in a Single Cut Operation: Tool Life Equation Non-Taylor-Type | p. 468 |
Optimizing Speeds and Feeds for a Multi-Tool Operation: Tool Life Equation of the Taylor Type | p. 469 |
General Conclusions for the Choice of Cutting Speeds and Feeds | p. 475 |
Tool Breakage: Wear and Breakage in Milling | p. 477 |
Breakage in Continuous Cutting | p. 477 |
Tool Wear and Breakage in Interrupted Cutting | p. 481 |
Flank Wear in Milling | p. 483 |
References | p. 486 |
Questions | p. 486 |
Problems | p. 488 |
Machine Tools | p. 493 |
Design of Machine Tools: Drives and Structures | p. 495 |
General Description of Machine-Tool Design | p. 495 |
Specifying the Characteristics of Main Drives | p. 501 |
Accuracy of Machine Tools | p. 506 |
Geometric Accuracy: Machine Tool Metrology | p. 507 |
Weight Deformations | p. 516 |
Deformations Under Cutting Forces | p. 519 |
Review of Fundamentals of Mechanical Vibrations | p. 525 |
Vibrations: Natural, Forced, Self-Excited | p. 525 |
Harmonic Variables | p. 527 |
Basics of Vibrations: Transfer Function of a System with a Single Degree of Freedom | p. 529 |
Transfer Functions of a Selected System with Two Degrees of Freedom: Uncoupled Modes in Two Directions | p. 532 |
Forces and Forced Vibrations in Milling | p. 537 |
Accuracy of End Milling: Straight Teeth, Static Deflection | p. 537 |
The Dynamics: Forced Vibrations, Straight Teeth | p. 538 |
Forced Vibrations and Their Imprint as Error of Location of the Machined Surface | p. 542 |
Forces on End Mills with Helical Teeth | p. 548 |
Errors of Surface Produced by End Mills with Helical Teeth: Static Deflections | p. 556 |
Chatter in Metal Cutting | p. 559 |
General Features | p. 559 |
Mechanisms of Self-Excitation in Metal Cutting | p. 560 |
The Condition for the Limit of Stability of Chatter | p. 563 |
Analyzing Stability of a Boring Bar | p. 565 |
Another Way of Deriving the Limit of Stability, Using the Nyquist Criterion | p. 568 |
Time Domain Simulation of Chatter in Turning | p. 570 |
Chatter in Milling | p. 575 |
Designing Machine- Tool Structures for High Stability | p. 579 |
Effect of Cutting Conditions on Stability | p. 586 |
Case Study: High-Speed Milling (HSM) Machine for Aluminum Aircraft Parts | p. 594 |
High Speed Milling in General: Operations with a Lack of Stiffness | p. 594 |
Developing HSM Machine for Aluminum Aircraft Parts | p. 598 |
References | p. 604 |
Questions | p. 605 |
Problems | p. 606 |
Automation | p. 611 |
Automation of Machine Tools | p. 613 |
Rigid and Flexible Automation | p. 616 |
Machine Tools with Rigid Automation | p. 618 |
Single-Spindle Automatic Lathes | p. 618 |
Multispindle Automatic Lathes | p. 622 |
Dial-Index Machines and Transfer Lines | p. 625 |
Numerically Controlled Machine Tools | p. 628 |
Basic Operation | p. 628 |
Adaptive Control | p. 633 |
Turning Centers | p. 634 |
Machining Centers | p. 635 |
Computerized, Flexible Manufacturing Systems | p. 639 |
Positional Servomechanism: Review | p. 647 |
Characteristics of the Servomotor | p. 648 |
Step Input Response of the Servomotor | p. 650 |
Time-Domain Simulation of the Servomotor | p. 653 |
The Positional Servomechanism | p. 654 |
Step Input Response of the Positional Servo | p. 656 |
Time-Domain Simulation of the Positional Servo | p. 657 |
Response to a Ramp Input of the Positional Servo | p. 659 |
Errors of Two-Dimensional Tool Path | p. 661 |
Adaptive Control for Constant Force in Milling | p. 674 |
Analysis of Stability | p. 674 |
Summary of Analyses of Numerical and Adaptive Control | p. 681 |
Positional Servo Driving a Spring-Mass System | p. 681 |
Two Basic Specifications: MT and ROB | p. 681 |
The Two Basic Alternatives, A and B | p. 682 |
The "Machine Tool" Case with SMD System in the Feedback Loop: MT/A | p. 683 |
Flexibility Outside of the Loop: Case MT/B | p. 687 |
The "Robot" Case with SMD System within the Loop: ROB/A | p. 689 |
Accelerometric Feedback Applied To the ROB/A System | p. 691 |
Feedforward Compensation | p. 694 |
Ideal Servodrive | p. 694 |
Real Servodrive | p. 697 |
Numerical Derivation of the Feedforward Compensation | p. 701 |
Simplified Robot Kinematics and Dynamics | p. 709 |
Introduction: Types of Robots and Their Uses | p. 709 |
Simplified Kinematics | p. 715 |
Dynamics of the 2D Polar Case | p. 717 |
Conclusion | p. 723 |
References | p. 724 |
Questions | p. 724 |
Problems | p. 725 |
Assembly and Nontraditional Processes | p. 733 |
Assembly: Material Handling and Welding | p. 735 |
Introduction | p. 735 |
Material Handling | p. 737 |
Mechanical Joining | p. 743 |
Assembly | p. 746 |
Design for Assembly | p. 756 |
Welding Processes | p. 757 |
Introduction | p. 757 |
Oxyacetylene Welding | p. 762 |
Arc Welding Processes | p. 764 |
Other Welding Processes | p. 775 |
Control of the Arc | p. 784 |
Melting Rates | p. 784 |
Self Regulation of the Arc in SMAW and GMAW | p. 787 |
Servo Control in SAW | p. 793 |
Time Domain Simulation | p. 799 |
Heat Transfer in Arc Welding | p. 803 |
Continuous Field Solution: Thick Plate Formulation | p. 803 |
Gradients: Cooling Rates | p. 809 |
The 2D Case: The "Thin Plate" Line Heat Source q" | p. 810 |
The Finite Difference Approach: Thin Plate (2D) | p. 813 |
Residual Stresses and Distortions | p. 822 |
References | p. 828 |
Questions | p. 829 |
Problems | p. 830 |
Nontraditional Processes | p. 833 |
Introduction | p. 833 |
Ultrasonic Machining (USM) | p. 836 |
Water Jet Cutting (WJC) | p. 838 |
Electrochemical Machining (ECM) | p. 839 |
Metal Removal Rate: Working Gap | p. 841 |
Chemical Machining (CHM), Photochemical Machining (PCM) | p. 853 |
Electro-Discharge Machining (EDM) | p. 859 |
Laser Beam Machining (LBM) | p. 864 |
Electron Beam Machining (EBM) | p. 875 |
Oxygen Cutting (OC) | p. 879 |
Plasma Arc Cutting (PAC) | p. 881 |
Electronics Manufacturing | p. 882 |
Additive CNC Manufacturing (Rapid Prototyping) | p. 889 |
Rapid Modeling | p. 890 |
Rapid Tooling | p. 897 |
Conclusion | p. 903 |
References | p. 904 |
Questions | p. 905 |
Problems | p. 907 |
Index | p. 909 |
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