1. Trang chủ
  2. » Khoa Học Tự Nhiên

Materials Science And Engineering An Introduction doc

1000 2.5K 1

Đang tải... (xem toàn văn)

Tài liệu hạn chế xem trước, để xem đầy đủ mời bạn chọn Tải xuống

THÔNG TIN TÀI LIỆU

Cấu trúc

  • Cover

  • Title Page

  • Copyright

  • Dedication

  • Preface

  • Contents

  • List of Symbols

  • 1. Introduction

    • Learning Objectives

    • 1.1 HISTORICAL PERSPECTIVE

    • 1.2 MATERIALS SCIENCE AND ENGINEERING

    • 1.3 WHY STUDY MATERIALS SCIENCE AND ENGINEERING?

    • 1.4 CLASSIFICATION OF MATERIALS

    • MATERIALS OF IMPORTANCE: Carbonated Beverage Containers

    • 1.5 ADVANCED MATERIALS

    • 1.6 MODERN MATERIALS’ NEEDS

    • 1.7 PROCESSING/STRUCTURE/PROPERTIES/ PERFORMANCE CORRELATIONS

    • SUMMARY

    • REFERENCES

    • QUESTION

  • 2. Atomic Structure and Interatomic Bonding

    • Learning Objectives

    • 2.1 INTRODUCTION

    • Atomic Structure

    • 2.2 FUNDAMENTAL CONCEPTS

    • 2.3 ELECTRONS IN ATOMS

    • 2.4 THE PERIODIC TABLE

    • Atomic Bonding in Solids

    • 2.5 BONDING FORCES AND ENERGIES

    • 2.6 PRIMARY INTERATOMIC BONDS

    • 2.7 SECONDARY BONDING OR VAN DER WAALS BONDING

    • MATERIALS OF IMPORTANCE: Water (Its Volume Expansion Upon Freezing)

    • 2.8 MOLECULES

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

  • 3. The Structure of Crystalline Solids

    • Learning Objectives

    • 3.1 INTRODUCTION

    • Crystal Structures

    • 3.2 FUNDAMENTAL CONCEPTS

    • 3.3 UNIT CELLS

    • 3.4 METALLIC CRYSTAL STRUCTURES

    • 3.5 DENSITY COMPUTATIONS

    • 3.6 POLYMORPHISM AND ALLOTROPY

    • 3.7 CRYSTAL SYSTEMS

    • MATERIAL OF IMPORTANCE: Tin (Its Allotropic Transformation)

    • Crystallographic Points, Directions, and Planes

    • 3.8 POINT COORDINATES

    • 3.9 CRYSTALLOGRAPHIC DIRECTIONS

    • 3.10 CRYSTALLOGRAPHIC PLANES

    • 3.11 LINEAR AND PLANAR DENSITIES

    • 3.12 CLOSE-PACKED CRYSTAL STRUCTURES

    • Crystalline and Noncrystalline Materials

    • 3.13 SINGLE CRYSTALS

    • 3.14 POLYCRYSTALLINE MATERIALS

    • 3.15 ANISOTROPY

    • 3.16 X-RAY DIFFRACTION: DETERMINATION OF CRYSTAL STRUCTURES

    • 3.17 NONCRYSTALLINE SOLIDS

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

  • 4. Imperfections in Solids

    • Learning Objectives

    • 4.1 INTRODUCTION

    • Point Defects

    • 4.2 VACANCIES AND SELF-INTERSTITIALS

    • 4.3 IMPURITIES IN SOLIDS

    • 4.4 SPECIFICATION OF COMPOSITION

    • Miscellaneous Imperfections

    • 4.5 DISLOCATIONS—LINEAR DEFECTS

    • 4.6 INTERFACIAL DEFECTS

    • MATERIALS OF IMPORTANCE: Catalysts (and Surface Defects)

    • 4.7 BULK OR VOLUME DEFECTS

    • 4.8 ATOMIC VIBRATIONS

    • Microscopic Examination

    • 4.9 BASIC CONCEPTS OF MICROSCOPY

    • 4.10 MICROSCOPIC TECHNIQUES

    • 4.11 GRAIN SIZE DETERMINATION

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

  • 5. Diffusion

    • Learning Objectives

    • 5.1 INTRODUCTION

    • 5.2 DIFFUSION MECHANISMS

    • 5.3 STEADY-STATE DIFFUSION

    • 5.4 NONSTEADY-STATE DIFFUSION

    • 5.5 FACTORS THAT INFLUENCE DIFFUSION

    • 5.6 DIFFUSION IN SEMICONDUCTING MATERIALS

    • Aluminum for Integrated Circuit Interconnects

    • 5.7 OTHER DIFFUSION PATHS

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 6. Mechanical Properties of Metals

    • Learning Objectives

    • 6.1 INTRODUCTION

    • 6.2 CONCEPTS OF STRESS AND STRAIN

    • Elastic Deformation

    • 6.3 STRESS–STRAIN BEHAVIOR

    • 6.4 ANELASTICITY

    • 6.5 ELASTIC PROPERTIES OF MATERIALS

    • Plastic Deformation

    • 6.6 TENSILE PROPERTIES

    • 6.7 TRUE STRESS AND STRAIN

    • 6.8 ELASTIC RECOVERY AFTER PLASTIC DEFORMATION

    • 6.9 COMPRESSIVE, SHEAR, AND TORSIONAL DEFORMATIONS

    • 6.10 HARDNESS

    • Property Variability and Design/Safety Factors

    • 6.11 VARIABILITY OF MATERIAL PROPERTIES

    • 6.12 DESIGN/SAFETY FACTORS

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 7. Dislocations andStrengthening Mechanisms

    • Learning Objectives

    • 7.1 INTRODUCTION

    • Dislocations and Plastic Deformation

    • 7.2 BASIC CONCEPTS

    • 7.3 CHARACTERISTICS OF DISLOCATIONS

    • 7.4 SLIP SYSTEMS

    • 7.5 SLIP IN SINGLE CRYSTALS

    • 7.6 PLASTIC DEFORMATION OF POLYCRYSTALLINE MATERIALS

    • 7.7 DEFORMATION BY TWINNING

    • Mechanisms of Strengthening in Metals

    • 7.8 STRENGTHENING BY GRAIN SIZE REDUCTION

    • 7.9 SOLID-SOLUTION STRENGTHENING

    • 7.10 STRAIN HARDENING

    • Recovery, Recryst allization, and Grain Growth

    • 7.11 RECOVERY

    • 7.12 RECRYSTALLIZATION

    • 7.13 GRAIN GROWTH

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 8. Failure

    • Learning Objectives

    • 8.1 INTRODUCTION

    • Fracture

    • 8.2 FUNDAMENTALS OF FRACTURE

    • 8.3 DUCTILE FRACTURE

    • 8.4 BRITTLE FRACTURE

    • 8.5 PRINCIPLES OF FRACTURE MECHANICS

    • 8.6 FRACTURE TOUGHNESS TESTING

    • Fatigue

    • 8.7 CYCLIC STRESSES

    • 8.8 THE S-N CURVE

    • 8.9 CRACK INITIATION AND PROPAGATION

    • 8.10 FACTORS THAT AFFECT FATIGUE LIFE

    • 8.11 ENVIRONMENTAL EFFECTS

    • Creep

    • 8.12 GENERALIZED CREEP BEHAVIOR

    • 8.13 STRESS AND TEMPERATURE EFFECTS

    • 8.14 DATA EXTRAPOLATION METHODS

    • 8.15 ALLOYS FOR HIGH-TEMPERATURE USE

    • SUMMARY

      • Equation Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 9. Phase Diagrams

    • Learning Objectives

    • 9.1 INTRODUCTION

    • Definitions and Basic Concepts

    • 9.2 SOLUBILITY LIMIT

    • 9.3 PHASES

    • 9.4 MICROSTRUCTURE

    • 9.5 PHASE EQUILIBRIA

    • 9.6 ONE-COMPONENT (OR UNARY) PHASE DIAGRAMS

    • Binary Phase Diagrams

    • 9.7 BINARY ISOMORPHOUS SYSTEMS

    • 9.8 INTERPRETATION OF PHASE DIAGRAMS

    • 9.9 DEVELOPMENT OF MICROSTRUCTURE IN ISOMORPHOUS ALLOYS

    • 9.10 MECHANICAL PROPERTIES OF ISOMORPHOUS ALLOYS

    • 9.11 BINARY EUTECTIC SYSTEMS

    • MATERIALS OF IMPORTANCE: Lead-Free Solders

    • 9.12 DEVELOPMENT OF MICROSTRUCTURE IN EUTECTIC ALLOYS

    • 9.13 EQUILIBRIUM DIAGRAMS HAVING INTERMEDIATE PHASES OR COMPOUNDS

    • 9.14 EUTECTOID AND PERITECTIC REACTIONS

    • 9.15 CONGRUENT PHASE TRANSFORMATIONS

    • 9.16 CERAMIC AND TERNARY PHASE DIAGRAMS

    • 9.17 THE GIBBS PHASE RULE

    • The Iron–Carbon System

    • 9.18 THE IRON–IRON CARBIDE (Fe–Fe3C) PHASE DIAGRAM

    • 9.19 DEVELOPMENT OF MICROSTRUCTURE IN IRON–CARBON ALLOYS

    • 9.20 THE INFLUENCE OF OTHER ALLOYING ELEMENTS

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

  • 10. Phase Transformations: Development of Microstructure and Alteration of Mechanical Properties

    • Learning Objectives

    • 10.1 INTRODUCTION

    • Phase Transformations

    • 10.2 BASIC CONCEPTS

    • 10.3 THE KINETICS OF PHASE TRANSFORMATIONS

    • 10.4 METASTABLE VERSUS EQUILIBRIUM STATES

    • Microstructural and Property Changes in Iron–Carbon Alloys

    • 10.5 ISOTHERMAL TRANSFORMATION DIAGRAMS

    • 10.6 CONTINUOUS COOLING TRANSFORMATION DIAGRAMS

    • 10.7 MECHANICAL BEHAVIOR OF IRON–CARBON ALLOYS

    • 10.8 TEMPERED MARTENSITE

    • 10.9 REVIEW OF PHASE TRANSFORMATIONS AND MECHANICAL PROPERTIES FOR IRON–CARBON ALLOYS

    • MATERIALS OF IMPORTANCE: Shape-Memory Alloys

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 11. Applications and Processing of Metal Alloys

    • Learning Objectives

    • 11.1 INTRODUCTION

    • Types of Metal Alloys

    • 11.2 FERROUS ALLOYS

    • 11.3 NONFERROUS ALLOYS

    • MATERIALS OF IMPORTANCE: Metal Alloys Used for Euro Coins

    • Fabrication of Metals

    • 11.4 FORMING OPERATIONS

    • 11.5 CASTING

    • 11.6 MISCELLANEOUS TECHNIQUES

    • Thermal Processing of Metals

    • 11.7 ANNEALING PROCESSES

    • 11.8 HEAT TREATMENT OF STEELS

    • 11.9 PRECIPITATION HARDENING

    • SUMMARY

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 12. Structures and Properties of Ceramics

    • Learning Objectives

    • 12.1 INTRODUCTION

    • Ceramic Structures

    • 12.2 CRYSTAL STRUCTURES

    • 12.3 SILICATE CERAMICS

    • 12.4 CARBON

    • MATERIALS OF IMPORTANCE: Carbon Nanotubes

    • 12.5 IMPERFECTIONS IN CERAMICS

    • 12.6 DIFFUSION IN IONIC MATERIALS

    • 12.7 CERAMIC PHASE DIAGRAMS

    • Mechanical Properties

    • 12.8 BRITTLE FRACTURE OF CERAMICS

    • 12.9 STRESS–STRAIN BEHAVIOR

    • 12.10 MECHANISMS OF PLASTIC DEFORMATION

    • 12.11 MISCELLANEOUS MECHANICAL CONSIDERATIONS

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 13. Applications and Processing of Ceramics

    • Learning Objectives

    • 13.1 INTRODUCTION

    • Types and Applications of Ceramics

    • 13.2 GLASSES

    • 13.3 GLASS-CERAMICS

    • 13.4 CLAY PRODUCTS

    • 13.5 REFRACTORIES

    • 13.6 ABRASIVES

    • 13.7 CEMENTS

    • 13.8 ADVANCED CERAMICS

    • MATERIALS OF IMPORTANCE: Piezoelectric Ceramics

    • Fabrication and Processing of Ceramics

    • 13.9 FABRICATION AND PROCESSING OF GLASSES AND GLASS-CERAMICS

    • 13.10 FABRICATION AND PROCESSING OF CLAY PRODUCTS

    • 13.11 POWDER PRESSING

    • 13.12 TAPE CASTING

    • SUMMARY

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEM

  • 14. Polymer Structures

    • Learning Objectives

    • 14.1 INTRODUCTION

    • 14.2 HYDROCARBON MOLECULES

    • 14.3 POLYMER MOLECULES

    • 14.4 THE CHEMISTRY OF POLYMER MOLECULES

    • 14.5 MOLECULAR WEIGHT

    • 14.6 MOLECULAR SHAPE

    • 14.7 MOLECULAR STRUCTURE

    • 14.8 MOLECULAR CONFIGURATIONS

    • 14.9 THERMOPLASTIC AND THERMOSETTING POLYMERS

    • 14.10 COPOLYMERS

    • 14.11 POLYMER CRYSTALLINITY

    • 14.12 POLYMER CRYSTALS

    • 14.13 DEFECTS IN POLYMERS

    • 14.14 DIFFUSION IN POLYMERIC MATERIALS

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

  • 15. Characteristics, Applications, and Processing of Polymers

    • Learning Objectives

    • 15.1 INTRODUCTION

    • Mechanical Behavior of Polymers

    • 15.2 STRESS–STRAIN BEHAVIOR

    • 15.3 MACROSCOPIC DEFORMATION

    • 15.4 VISCOELASTIC DEFORMATION

    • 15.5 FRACTURE OF POLYMERS

    • 15.6 MISCELLANEOUS MECHANICAL CHARACTERISTICS

    • Mechanisms of Deformation and for Strengthening of Polymers

    • 15.7 DEFORMATION OF SEMICRYSTALLINE POLYMERS

    • 15.8 FACTORS THAT INFLUENCE THE MECHANICAL PROPERTIES OF SEMICRYSTALLINE POLYMERS

    • MATERIALS OF IMPORTANCE: Shrink-Wrap Polymer Films

    • 15.9 DEFORMATION OF ELASTOMERS

    • Crystallization , Melting, and Glass-Transition Phenomena in Polymers

    • 15.10 CRYSTALLIZATION

    • 15.11 MELTING

    • 15.12 THE GLASS TRANSITION

    • 15.13 MELTING AND GLASS TRANSITION TEMPERATURES

    • 15.14 FACTORS THAT INFLUENCE MELTING AND GLASS TRANSITION TEMPERATURES

    • Polymer Types

    • 15.15 PLASTICS

    • MATERIALS OF IMPORTANCE: Phenolic Billiard Balls

    • 15.16 ELASTOMERS

    • 15.17 FIBERS

    • 15.18 MISCELLANEOUS APPLICATIONS

    • 15.19 ADVANCED POLYMERIC MATERIALS

    • Polymer Synthesis and Processing

    • 15.20 POLYMERIZATION

    • 15.21 POLYMER ADDITIVES

    • 15.22 FORMING TECHNIQUES FOR PLASTICS

    • 15.23 FABRICATION OF ELASTOMERS

    • 15.24 FABRICATION OF FIBERS AND FILMS

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN QUESTIONS

  • 16. Composites

    • Learning Objectives

    • 16.1 INTRODUCTION

    • Particle-Reinforced Composites

    • 16.2 LARGE-PARTICLE COMPOSITES

    • 16.3 DISPERSION-STRENGTHENED COMPOSITES

    • Fiber-Reinforced Composites

    • 16.4 INFLUENCE OF FIBER LENGTH

    • 16.5 INFLUENCE OF FIBER ORIENTATION AND CONCENTRATION

    • 16.6 THE FIBER PHASE

    • 16.7 THE MATRIX PHASE

    • 16.8 POLYMER-MATRIX COMPOSITES

    • 16.9 METAL-MATRIX COMPOSITES

    • 16.10 CERAMIC-MATRIX COMPOSITES

    • 16.11 CARBON–CARBON COMPOSITES

    • 16.12 HYBRID COMPOSITES

    • 16.13 PROCESSING OF FIBER-REINFORCED COMPOSITES

    • Structural Composites

    • 16.14 LAMINAR COMPOSITES

    • 16.15 SANDWICH PANELS

    • MATERIALS OF IMPORTANCE: Nanocomposites in Tennis Balls

    • SUMMARY

      • Equation Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 17. Corrosion and Degradation of Materials

    • Learning Objectives

    • 17.1 INTRODUCTION

    • Corrosion of Metals

    • 17.2 ELECTROCHEMICAL CONSIDERATIONS

    • 17.3 CORROSION RATES

    • 17.4 PREDICTION OF CORROSION RATES

    • 17.5 PASSIVITY

    • 17.6 ENVIRONMENTAL EFFECTS

    • 17.7 FORMS OF CORROSION

    • 17.8 CORROSION ENVIRONMENTS

    • 17.9 CORROSION PREVENTION

    • 17.10 OXIDATION

    • Corrosion of Ceramic Materials

    • Degradation of Polymers

    • 17.11 SWELLING AND DISSOLUTION

    • 17.12 BOND RUPTURE

    • 17.13 WEATHERING

    • SUMMARY

      • Equation Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 18. Electrical Properties

    • Learning Objectives

    • 18.1 INTRODUCTION

    • Electrical Conduction

    • 18.2 OHM’S LAW

    • 18.3 ELECTRICAL CONDUCTIVITY

    • 18.4 ELECTRONIC AND IONIC CONDUCTION

    • 18.5 ENERGY BAND STRUCTURES IN SOLIDS

    • 18.6 CONDUCTION IN TERMS OF BAND AND ATOMIC BONDING MODELS

    • 18.7 ELECTRON MOBILITY

    • 18.8 ELECTRICAL RESISTIVITY OF METALS

    • 18.9 ELECTRICAL CHARACTERISTICS OF COMMERCIAL ALLOYS

    • MATERIALS OF IMPORTANCE: Aluminum Electrical Wires

    • Semiconductivity

    • 18.10 INTRINSIC SEMICONDUCTION

    • 18.11 EXTRINSIC SEMICONDUCTION

    • 18.12 THE TEMPERATURE DEPENDENCE OF CARRIER CONCENTRATION

    • 18.13 FACTORS THAT AFFECT CARRIER MOBILITY

    • 18.14 THE HALL EFFECT

    • 18.15 SEMICONDUCTOR DEVICES

    • Electrical Conduction in Ionic Ceramics and in Polymers

    • 18.16 CONDUCTION IN IONIC MATERIALS

    • 18.17 ELECTRICAL PROPERTIES OF POLYMERS

    • Dielectric Behavior

    • 18.18 CAPACITANCE

    • 18.19 FIELD VECTORS AND POLARIZATION

    • 18.20 TYPES OF POLARIZATION

    • 18.21 FREQUENCY DEPENDENCE OF THE DIELECTRIC CONSTANT

    • 18.22 DIELECTRIC STRENGTH

    • 18.23 DIELECTRIC MATERIALS

    • Other ElectricalCharacteristics of Materials

    • 18.24 FERROELECTRICITY

    • 18.25 PIEZOELECTRICITY

    • SUMMARY

      • Equation Summary

      • Processing /Structure /Properties /Performance Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 19. Thermal Properties

    • Learning Objectives

    • 19.1 INTRODUCTION

    • 19.2 HEAT CAPACITY

    • 19.3 THERMAL EXPANSION

    • MATERIALS OF IMPORTANCE: Invar and Other Low-Expansion Alloys

    • 19.4 THERMAL CONDUCTIVITY

    • 19.5 THERMAL STRESSES

    • SUMMARY

      • Equation Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 20. Magnetic Properties

    • Learning Objectives

    • 20.1 INTRODUCTION

    • 20.2 BASIC CONCEPTS

    • 20.3 DIAMAGNETISM AND PARAMAGNETISM

    • 20.4 FERROMAGNETISM

    • 20.5 ANTIFERROMAGNETISM AND FERRIMAGNETISM

    • 20.6 THE INFLUENCE OF TEMPERATURE ON MAGNETIC BEHAVIOR

    • 20.7 DOMAINS AND HYSTERESIS

    • 20.8 MAGNETIC ANISOTROPY

    • 20.9 SOFT MAGNETIC MATERIALS

    • MATERIALS OF IMPORTANCE: An Iron–Silicon Alloy That Is Used in Transformer Cores

    • 20.10 HARD MAGNETIC MATERIALS

    • 20.11 MAGNETIC STORAGE

    • 20.12 SUPERCONDUCTIVITY

    • SUMMARY

      • Equation Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEMS

  • 21. Optical Properties

    • Learning Objectives

    • 21.1 INTRODUCTION

    • Basic Concepts

    • 21.2 ELECTROMAGNETIC RADIATION

    • 21.3 LIGHT INTERACTIONS WITH SOLIDS

    • 21.4 ATOMIC AND ELECTRONIC INTERACTIONS

    • Optical Properties of Metals

    • Optical Properties of Nonmetals

    • 21.5 REFRACTION

    • 21.6 REFLECTION

    • 21.7 ABSORPTION

    • 21.8 TRANSMISSION

    • 21.9 COLOR

    • 21.10 OPACITY AND TRANSLUCENCY IN INSULATORS

    • Applications of Optical Phenomena

    • 21.11 LUMINESCENCE

    • MATERIALS OF IMPORTANCE: Light-Emitting Diodes

    • 21.12 PHOTOCONDUCTIVITY

    • 21.13 LASERS

    • 21.14 OPTICAL FIBERS IN COMMUNICATIONS

    • SUMMARY

      • Equation Summary

      • Important Terms and Concepts

    • REFERENCES

    • QUESTIONS AND PROBLEMS

    • DESIGN PROBLEM

  • 22. Economic, Environmental, and Societal Issues in Materials Science and Engineering

    • Learning Objectives

    • 22.1 INTRODUCTION

    • Economic Considerations

    • 22.2 COMPONENT DESIGN

    • 22.3 MATERIALS

    • 22.4 MANUFACTURING TECHNIQUES

    • Environmental and Societ alConsiderations

    • 22.5 RECYCLING ISSUES IN MATERIALS SCIENCE AND ENGINEERING

    • MATERIALS OF IMPORTANCE: Biodegradable and Biorenewable Polymers/Plastics

    • SUMMARY

    • REFERENCES

    • DESIGN QUESTION

  • Appendix A: The International System of Units (SI)

  • Appendix B: Properties of Selected Engineering Materials

    • B.1 Density

    • B.2 Modulus of Elasticity

    • B.3 Poisson’s Ratio

    • B.4 Strength and Ductility

    • B.5 Plane Strain Fracture Toughness

    • B.6 Linear Coefficient of Thermal Expansion

    • B.7 Thermal Conductivity

    • B.8 Specific Heat

    • B.9 Electrical Resistivity

    • B.10 Metal Alloy Compositions

  • Appendix C: Costs and Relative Costs for Selected Engineering Materials

  • Appendix D: Repeat Unit Structures for Common Polymers

  • Appendix E: Glass Transition and Melting Temperatures for Common Polymeric Materials

  • Glossary

  • Answers to Selected Problems

  • Index

Nội dung

[...]... semiconducting materials 1 The approximate dates for the beginnings of the Stone, Bronze, and Iron Ages were 2.5 million BC, 3500 BC, and 1000 BC, respectively 2 • JWCL187_ch01_001-017.qxd 11/5/09 1:46 PM Page 3 1.2 Materials Science and Engineering • 3 1.2 MATERIALS SCIENCE AND ENGINEERING Sometimes it is useful to subdivide the discipline of materials science and engineering into materials science and materials. .. (Student Companion Site) are several important instructional elements for the student that complement the text; these include the following: 1 VMSE: Virtual Materials Science and Engineering This is an expanded version of the software program that accompanied the previous edition It consists of interactive simulations and animations that enhance the learning of key concepts in materials science and engineering, ... biomaterials, smart materials, and nanoengineered materials; these are discussed in Section 1.5 Metals Materials in this group are composed of one or more metallic elements (e.g., iron, aluminum, copper, titanium, gold, and nickel), and often also nonmetallic elements (e.g., carbon, nitrogen, and oxygen) in relatively small amounts.3 Atoms in metals and their alloys are arranged in a very orderly manner... 865 Equation Summary 868 Important Terms and Concepts 869 References 869 Questions and Problems 869 Design Problem 871 22 Economic, Environmental, and Societal Issues in Materials Science and Engineering 872 22.1 Learning Objectives 873 Introduction 873 ECONOMIC CONSIDERATIONS 22.2 22.3 22.4 873 Component Design 874 Materials 874 Manufacturing Techniques 875 ENVIRONMENTAL AND SOCIETAL CONSIDERATIONS 875... the book These are in both PDF and JPEG formats so that an instructor can print them for handouts or prepare transparencies in his/her desired format 3 A set of PowerPoint® lecture slides These slides, developed by Peter M Anderson (The Ohio State University), and adapted by the text authors, follow the flow of topics in the text, and include materials from the text and from other sources Instructors... Materials Science and Engineering 3 Why Study Materials Science and Engineering? 5 Classification of Materials 5 Materials of Importance—Carbonated Beverage Containers 10 Advanced Materials 11 Modern Materials Needs 13 Processing/Structure/Properties/Performance Correlations 14 Summary 16 References 17 Question 17 2 Atomic Structure and Interatomic Bonding 2.1 Learning Objectives 19 Introduction 19 2.2... Processing/Structure/Properties/Performance Summary 334 Important Terms and Concepts 335 References 335 Questions and Problems 335 Materials of Importance—Shape-Memory Alloys 379 Summary 381 Equation Summary 383 Processing/Structure/Properties/Performance Summary 384 Important Terms and Concepts 385 References 385 Questions and Problems 385 Design Problems 390 11 Applications and Processing of Metal Alloys... to have improved resistance to fracture; these materials are used for cookware, cutlery, and even automobile engine parts Furthermore, ceramic materials are typically insulative to the passage of heat and electricity (i.e., have low electrical conductivities, Figure 1.7), and are more resistant to high temperatures and harsh environments than metals and polymers Metals Resistance to Fracture (Fracture... Laminar Composites 660 Sandwich Panels 661 Materials of Importance—Nanocomposites in Tennis Balls 662 18 Electrical Properties 18.1 Learning Objectives 720 Introduction 720 ELECTRICAL CONDUCTION 18.2 18.3 18.4 18.5 18.6 18.7 18.8 18.9 719 721 Ohm’s Law 721 Electrical Conductivity 721 Electronic and Ionic Conduction 722 Energy Band Structures in Solids 722 Conduction in Terms of Band and Atomic Bonding Models... you can identify those students who are falling behind and intervene accordingly, without having to wait for them to come to your office • WileyPLUS simplifies and automates such tasks as student performance assessment, making assignments, scoring student work, recording grades, and more FEEDBACK We have a sincere interest in meeting the needs of educators and students in the materials science and engineering . xxi 1. Introduction Learning Objectives 2 1.1 Historical Perspective 2 1.2 Materials Science and Engineering 3 1.3 Why Study Materials Science and Engineering? 5 1.4 Classification of Materials 5 Materials. needs of educators and students in the materials science and engineering community, and, therefore, would like to solicit feedback on this eighth edition. Comments, suggestions, and criticisms may. Virtual Materials Science and Engineering software. In addition, we would like to thank instructors who helped in reviewing the manu- script, who reviewed and have written content for WileyPLUS, and,

Ngày đăng: 28/06/2014, 21:20

TỪ KHÓA LIÊN QUAN