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What is included with this book?
Introduction | p. 1 |
What Is Materials Science and Engineering? | p. 1 |
Fundamental Principles | p. 3 |
Atomic and Molecular Bonding | p. 5 |
Ionic Bonding | p. 6 |
Covalent Bonding | p. 9 |
Metallic Bonding | p. 11 |
Dipole Bonding | p. 12 |
Crystal Structures | p. 14 |
Body-Centered Cubic (BCC) | p. 14 |
Face-Centered Cubic (FCC) | p. 16 |
Hexagonal Close Packed (HCP) | p. 16 |
Polymorphism | p. 18 |
Labeling Directions and Planes | p. 19 |
Hexagonal Crystals | p. 21 |
Determination of Structure and Composition Using X-Rays | p. 22 |
X-Ray Diffraction | p. 22 |
Other Applications of X-Ray Scattering | p. 25 |
Composition Determination from Emission of Characteristic X-Rays | p. 27 |
What Is Next? | p. 28 |
Problems | p. 28 |
Crystalline Imperfections and Diffusion | p. 33 |
Cloudy and Clear Ice Experiments | p. 33 |
Imperfections - Good or Bad? | p. 33 |
Solid Solutions | p. 34 |
Point Defects | p. 35 |
Line Defects | p. 38 |
Edge Dislocations | p. 38 |
Screw Dislocations | p. 39 |
Planar Defects | p. 39 |
Precipitates as Three-Dimensional Defects | p. 41 |
Amorphous Solids | p. 41 |
Temperature Dependence of Defect Concentration | p. 42 |
Atomic Diffusion | p. 44 |
Diffusion Due to a Step-Function Concentration Profile | p. 47 |
A Word about Diffusion Distance | p. 47 |
Applications of Impurity Diffusion | p. 50 |
Case Hardening | p. 50 |
Impurity Doping of Semiconductors | p. 50 |
Diffusion in Biological Systems | p. 52 |
What Is Next? | p. 52 |
Vacancy Concentration versus Temperature | p. 54 |
Problems | p. 54 |
Electrical Properties of Metals and Semiconductors | p. 59 |
World of Electronics | p. 59 |
Definitions and Units | p. 61 |
Classical Model of Electronic Conduction in Metals | p. 61 |
Resistivity Rules for Dilute Metallic Alloys | p. 63 |
Nordheim's Rule | p. 63 |
Linde-Norbury Rule | p. 63 |
Energy Band Model for Electronic Conduction | p. 64 |
Intrinsic Semiconductors | p. 64 |
Extrinsic Semiconductors | p. 67 |
N-Type Semiconductors | p. 68 |
P-Type Semiconductors | p. 69 |
Selected Semiconductor Devices | p. 70 |
Hall Probe | p. 70 |
PN Junction | p. 71 |
Light-Emitting Diodes and Lasers | p. 73 |
Solar Cells and X-Ray Detectors | p. 74 |
Voltage Regulator (Zener Diode) | p. 75 |
Bipolar Junction Transistor | p. 75 |
Field Effect Transistor | p. 76 |
Electron Tunneling | p. 77 |
Thin Films and Size Effects | p. 79 |
Thermoelectric Energy Conversion | p. 80 |
Electrical Signaling in Neurons: Lessons from Mother Nature | p. 82 |
Ohm's Law and Definitions | p. 83 |
Problems | p. 85 |
Mechanical Properties | p. 89 |
Gossamer Condor and Gossamer Albatross | p. 89 |
Definitions and Units | p. 91 |
Stress, Strain, and Young's Modulus | p. 91 |
Poisson Ratio | p. 92 |
Shear Stress, Shear Strain, and Shear Modulus | p. 93 |
Basic Facts | p. 94 |
Young's Modulus | p. 94 |
Yield Strength | p. 95 |
Ultimate Tensile Strength | p. 95 |
Plastic Strain | p. 96 |
Hardness | p. 96 |
Plastic Deformation | p. 98 |
Dislocations | p. 100 |
Plastic Deformation of Polycrystalline Materials | p. 101 |
Creep | p. 102 |
Crying Tin | p. 105 |
Recovery of Plastically Deformed Metals | p. 105 |
Fracture | p. 106 |
Toughness | p. 106 |
Fracture Mechanics | p. 107 |
Fatigue | p. 110 |
Mechanical Properties, Surface Chemistry, and Biology | p. 112 |
Fatigue Life of Metals | p. 112 |
Ductility of Nickel Aluminide | p. 112 |
Tin Whiskers | p. 112 |
Enzymes | p. 113 |
Materials Selection: Mechanical Considerations | p. 114 |
Biomedical Considerations | p. 116 |
Problems | p. 116 |
Phase Diagrams | p. 121 |
Rocket Nozzles | p. 121 |
Phase Diagram for a Single-Component System: Graphite/Diamond | p. 121 |
Phase Diagram for a Common Binary System: NaCl + H20 | p. 122 |
Phase Diagram for a Binary Isomorphous System: Ni + Cu | p. 123 |
The Lever Rule | p. 125 |
Binary Eutectic Alloys: Microstructure Development | p. 127 |
Zone Refining | p. 128 |
Application of Phase Diagrams in Making Steels | p. 129 |
Production of Iron and Steels | p. 129 |
Fe-Fe3C Phase Diagram | p. 130 |
Microstructure | p. 132 |
Austenite [rarr] Ferrite + Cementite | p. 132 |
Bainite | p. 132 |
Martensite | p. 132 |
Transformation Kinetics | p. 134 |
Alloying Elements | p. 135 |
AISI-SAE Naming Conventions | p. 135 |
Shape Memory Alloys | p. 136 |
Phase Transformation in Biological Systems: Denaturation of Proteins | p. 137 |
Background | p. 137 |
Protein Conformation | p. 138 |
Application of Phase Diagrams in Making Nanocrystalline Materials | p. 139 |
Phase Diagrams for Dentistry | p. 139 |
Problems | p. 140 |
Ceramics and Composites | p. 143 |
Recipe for Ice Frisbees | p. 143 |
Crystal Structures | p. 143 |
Imperfections | p. 147 |
Point Defects | p. 147 |
Impurities | p. 147 |
Mechanical Properties | p. 148 |
Brittle Fracture of Ceramics | p. 148 |
Flexural Strength | p. 149 |
Thermal Shock Resistance | p. 150 |
Influence of Porosity | p. 152 |
Environmental Effects | p. 153 |
Toughening of Ceramics | p. 154 |
Transformation Toughening | p. 154 |
Fiber or Particulate Reinforcement | p. 155 |
Cermets | p. 156 |
Surface Modification | p. 156 |
Electrical, Magnetic, Optical, and Thermal Applications | p. 157 |
Electrical Insulators | p. 157 |
Capacitors | p. 158 |
Oxygen Ion Conductors | p. 159 |
Data Storage | p. 159 |
Optical Fibers | p. 159 |
Thermal Insulators | p. 159 |
Smart Materials | p. 160 |
Mechanical Properties of Composites | p. 162 |
Biomedical Applications | p. 163 |
Problems | p. 164 |
Polymers | p. 167 |
Rubber Band Experiments | p. 167 |
Polyethylene as a Typical Polymer | p. 167 |
Beyond Polyethylene: Polymer Structures | p. 171 |
Stereoisomers | p. 171 |
Linear Polymers | p. 171 |
Branched Polymers | p. 173 |
Cross-Linked Polymers | p. 173 |
Network Polymers | p. 175 |
Common Polymers and Typical Applications | p. 175 |
Solid Solutions (Copolymers) | p. 175 |
Crystallinity | p. 177 |
Mechanical Properties | p. 178 |
Deformation Mechanisms of Semicrystalline Polymers | p. 178 |
Elastic Deformation | p. 178 |
Plastic Deformation | p. 179 |
Strengthening Strategies | p. 179 |
Crystallization, Melting, and Glass Transition Temperatures | p. 180 |
Crystallization | p. 180 |
Melting | p. 180 |
Glass Transition Temperature | p. 181 |
Rubber Band Mystery Unveiled | p. 181 |
Fire Retardants for Polymers | p. 182 |
Selected Electro-Optical Applications | p. 183 |
Polymer and Life Sciences | p. 184 |
Problems | p. 184 |
Corrosion and Oxidation of Metals and Alloys | p. 187 |
Silverware Cleaning Magic | p. 187 |
Conventional Example of Corrosion | p. 187 |
Electrode Potentials | p. 188 |
Influence of Concentration and Temperature on Electrode Potentials | p. 189 |
Power by Corrosion: The Cu-Zn Battery | p. 190 |
Energy and Voltage | p. 191 |
The Hydrogen Fuel Cell | p. 193 |
Rusting of Iron | p. 194 |
Conditions for Corrosion | p. 195 |
Composition Difference | p. 195 |
Stress | p. 195 |
Concentration Difference | p. 197 |
Rate of Corrosion | p. 197 |
Corrosion Control | p. 199 |
Oxidation | p. 200 |
A Few Examples for Thought | p. 202 |
Batteries for Electric Vehicles: Energy Capacity Analysis | p. 202 |
Carbon Fuel Cells? | p. 203 |
Corrosion Concerns for Prosthetic Implants | p. 203 |
Corrosion Protection in Hard-Disk Drives | p. 203 |
Propulsion by Oxidation | p. 203 |
Common Batteries | p. 204 |
Lead-Acid | p. 204 |
Alkaline | p. 204 |
Ni-Cd | p. 205 |
Ni-MH (Metal Hydride) | p. 205 |
Lithium Ion | p. 205 |
Problems | p. 205 |
Magnetic Properties | p. 209 |
Flashlight without Batteries | p. 209 |
Tiny Magnets for Data Storage | p. 210 |
Magnetism Fundamentals and Definitions | p. 212 |
Magnetic Field | p. 212 |
Magnetic Moment and Magnetization | p. 212 |
Magnetic Induction or Flux Density | p. 213 |
Saturation Magnetization and Force of Attraction | p. 214 |
Diamagnetic and Paramagnetic Materials | p. 215 |
Magnetic Materials: Ferromagnetism and Antiferromagnetism | p. 218 |
Magnetic Materials for Power Generation | p. 219 |
Magnetic Materials for Data Storage | p. 222 |
Magnetostriction | p. 224 |
Medical, Surveying, and Materials Applications | p. 225 |
Hunting for Oil and Mineral Deposits | p. 226 |
Magnetic Sampling | p. 226 |
Alternators | p. 227 |
Magnetic and Force Shields | p. 227 |
Magnetic Shields | p. 227 |
Force Shields | p. 229 |
Problems | p. 230 |
Thin Films | p. 233 |
Why Thin Rims? | p. 233 |
Deposition of Thin Films | p. 233 |
Evaporation | p. 233 |
Maximum Evaporation Rate and Vapor Pressure | p. 233 |
Evaporation Sources | p. 235 |
Evaporation of Alloys | p. 235 |
Dependence of Deposition Rate on Source-Substrate Distance | p. 237 |
Deposition Rate Monitors | p. 238 |
Measurement of Film Thickness | p. 239 |
Sputtering | p. 240 |
Magnetron Sputtering | p. 240 |
Substrate Bombardment | p. 243 |
Radio Frequency (RF) Sputtering | p. 245 |
Chemical Vapor Deposition | p. 245 |
Sample Reactions | p. 246 |
Structure and Morphology | p. 247 |
Selected Properties and Applications | p. 248 |
Transport Properties | p. 248 |
Optical Properties | p. 249 |
Cosmetic or Decorative Coatings | p. 249 |
Suppressed Reflectivity | p. 249 |
Enhanced Reflectivity | p. 251 |
Mechanical Properties | p. 253 |
Hardness | p. 253 |
Elastic Modulus | p. 255 |
Intrinsic Stress | p. 256 |
Friction and Wear Properties | p. 257 |
Friction and Wear | p. 257 |
Wear Mechanisms | p. 259 |
Archard's Law | p. 260 |
Wear Rate and Plasticity Index | p. 261 |
Biomedical Applications | p. 263 |
Obtaining the Projected Area of Contact in Nanoindentation Experiments | p. 263 |
Problems | p. 264 |
Bibliography | p. 267 |
Index | p. 269 |
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