Fundamentals of Physics, Extended
Höfundar:
David Halliday; Robert Resnick; Jearl Walker (Útgáfa: 12)
Kaup valmöguleikar
Renowned for its interactive focus on conceptual understanding, its superlative problem-solving instruction, and emphasis on reasoning skills, the Fundamentals of Physics, 12th Edition: Extended, is an industry-leading resource in physics teaching. With expansive, insightful, and accessible treatments of a wide variety of subjects, including straight line motion, measurement, vectors, and kinetic energy, the book is an invaluable reference for physics educators and students.
Nánar um bókina
- Wiley Global Education US
- 9781119773474
- 9781119773511
- ePub
- 12
- David Halliday; Robert Resnick; Jearl Walker
- English
- 11/2021
- 100
Kaflar
- Cover
- Title Page
- Copyright Page
- PREFACE
- ACKNOWLEDGMENTS
- CHAPTER 1: Measurement
- 1.1 MEASURING THINGS, INCLUDING LENGTHS
- 1.2 TIME
- 1.3 MASS
- Chapter 1 Review & Summary
- Chapter 1 Problems
- CHAPTER 2: Motion Along a Straight Line
- 2.1 POSITION, DISPLACEMENT, AND AVERAGE VELOCITY
- 2.2 INSTANTANEOUS VELOCITY AND SPEED
- 2.3 ACCELERATION
- 2.4 CONSTANT ACCELERATION
- 2.5 FREE-FALL ACCELERATION
- 2.6 GRAPHICAL INTEGRATION IN MOTION ANALYSIS
- Chapter 2 Review & Summary
- Chapter 2 Questions
- Chapter 2 Problems
- CHAPTER 3: Vectors
- 3.1 VECTORS AND THEIR COMPONENTS
- 3.2 UNIT VECTORS, ADDING VECTORS BY COMPONENTS
- 3.3 MULTIPLYING VECTORS
- Chapter 3 Review & Summary
- Chapter 3 Questions
- Chapter 3 Problems
- CHAPTER 4: Motion in Two and Three Dimensions
- 4.1 POSITION AND DISPLACEMENT
- 4.2 AVERAGE VELOCITY AND INSTANTANEOUS VELOCITY
- 4.3 AVERAGE ACCELERATION AND INSTANTANEOUS ACCELERATION
- 4.4 PROJECTILE MOTION
- 4.5 UNIFORM CIRCULAR MOTION
- 4.6 RELATIVE MOTION IN ONE DIMENSION
- 4.7 RELATIVE MOTION IN TWO DIMENSIONS
- Chapter 4 Review & Summary
- Chapter 4 Questions
- Chapter 4 Problems
- CHAPTER 5: Force and Motion—I
- 5.1 NEWTON’S FIRST AND SECOND LAWS
- 5.2 SOME PARTICULAR FORCES
- 5.3 APPLYING NEWTON’S LAWS
- Chapter 5 Review & Summary
- Chapter 5 Questions
- Chapter 5 Problems
- CHAPTER 6: Force and Motion—II
- 6.1 FRICTION
- 6.2 THE DRAG FORCE AND TERMINAL SPEED
- 6.3 UNIFORM CIRCULAR MOTION
- Chapter 6 Review & Summary
- Chapter 6 Questions
- Chapter 6 Problems
- CHAPTER 7: Kinetic Energy and Work
- 7.1 KINETIC ENERGY
- 7.2 WORK AND KINETIC ENERGY
- 7.3 WORK DONE BY THE GRAVITATIONAL FORCE
- 7.4 WORK DONE BY A SPRING FORCE
- 7.5 WORK DONE BY A GENERAL VARIABLE FORCE
- 7.6 POWER
- Chapter 7 Review & Summary
- Chapter 7 Questions
- Chapter 7 Problems
- CHAPTER 8: Potential Energy and Conservation of Energy
- 8.1 POTENTIAL ENERGY
- 8.2 CONSERVATION OF MECHANICAL ENERGY
- 8.3 READING A POTENTIAL ENERGY CURVE
- 8.4 WORK DONE ON A SYSTEM BY AN EXTERNAL FORCE
- 8.5 CONSERVATION OF ENERGY
- Chapter 8 Review & Summary
- Chapter 8 Questions
- Chapter 8 Problems
- CHAPTER 9: Center of Mass and Linear Momentum
- 9.1 CENTER OF MASS
- 9.2 NEWTON’S SECOND LAW FOR A SYSTEM OF PARTICLES
- 9.3 LINEAR MOMENTUM
- 9.4 COLLISION AND IMPULSE
- 9.5 CONSERVATION OF LINEAR MOMENTUM
- 9.6 MOMENTUM AND KINETIC ENERGY IN COLLISIONS
- 9.7 ELASTIC COLLISIONS IN ONE DIMENSION
- 9.8 COLLISIONS IN TWO DIMENSIONS
- 9.9 SYSTEMS WITH VARYING MASS: A ROCKET
- Chapter 9 Review & Summary
- Chapter 9 Questions
- Chapter 9 Problems
- CHAPTER 10: Rotational
- 10.1 ROTATIONAL VARIABLES
- 10.2 ROTATION WITH CONSTANT ANGULAR ACCELERATION
- 10.3 RELATING THE LINEAR AND ANGULAR VARIABLES
- 10.4 KINETIC ENERGY OF ROTATION
- 10.5 CALCULATING THE ROTATIONAL INERTIA
- 10.6 TORQUE
- 10.7 NEWTON’S SECOND LAW FOR ROTATION
- 10.8 WORK AND ROTATIONAL KINETIC ENERGY
- Chapter 10 Review & Summary
- Chapter 10 Questions
- Chapter 10 Problems
- CHAPTER 11: Rolling, Torque, and Angular Momentum
- 11.1 ROLLING AS TRANSLATION AND ROTATION COMBINED
- 11.2 FORCES AND KINETIC ENERGY OF ROLLING
- 11.3 THE YO-YO
- 11.4 TORQUE REVISITED
- 11.5 ANGULAR MOMENTUM
- 11.6 NEWTON’S SECOND LAW IN ANGULAR FORM
- 11.7 ANGULAR MOMENTUM OF A RIGID BODY
- 11.8 CONSERVATION OF ANGULAR MOMENTUM
- 11.9 PRECESSION OF A GYROSCOPE
- Chapter 11 Review & Summary
- Chapter 11 Questions
- Chapter 11 Problems
- CHAPTER 12: Equilibrium and Elasticity
- 12.1 EQUILIBRIUM
- 12.2 SOME EXAMPLES OF STATIC EQUILIBRIUM
- 12.3 ELASTICITY
- Chapter 12 Review & Summary
- Chapter 12 Questions
- Chapter 12 Problems
- CHAPTER 13: Gravitation
- 13.1 NEWTON’S LAW OF GRAVITATION
- 13.2 GRAVITATION AND THE PRINCIPLE OF SUPERPOSITION
- 13.3 GRAVITATION NEAR EARTH’S SURFACE
- 13.4 GRAVITATION INSIDE EARTH
- 13.5 GRAVITATIONAL POTENTIAL ENERGY
- 13.6 PLANETS AND SATELLITES: KEPLER’S LAWS
- 13.7 SATELLITES: ORBITS AND ENERGY
- 13.8 EINSTEIN AND GRAVITATION
- Chapter 13 Review & Summary
- Chapter 13 Questions
- Chapter 13 Problems
- CHAPTER 14: Fluids
- 14.1 FLUIDS, DENSITY, AND PRESSURE
- 14.2 FLUIDS AT REST
- 14.3 MEASURING PRESSURE
- 14.4 PASCAL’S PRINCIPLE
- 14.5 ARCHIMEDES’ PRINCIPLE
- 14.6 THE EQUATION OF CONTINUITY
- 14.7 BERNOULLI’S EQUATION
- Chapter 14 Review & Summary
- Chapter 14 Questions
- Chapter 14 Problems
- CHAPTER 15: Oscillations
- 15.1 SIMPLE HARMONIC MOTION
- 15.2 ENERGY IN SIMPLE HARMONIC MOTION
- 15.3 AN ANGULAR SIMPLE HARMONIC OSCILLATOR
- 15.4 PENDULUMS, CIRCULAR MOTION
- 15.5 DAMPED SIMPLE HARMONIC MOTION
- 15.6 FORCED OSCILLATIONS AND RESONANCE
- Chapter 15 Review & Summary
- Chapter 15 Questions
- Chapter 15 Problems
- CHAPTER 16: Waves—I
- 16.1 TRANSVERSE WAVES
- 16.2 WAVE SPEED ON A STRETCHED STRING
- 16.3 ENERGY AND POWER OF A WAVE TRAVELING ALONG A STRING
- 16.4 THE WAVE EQUATION
- 16.5 INTERFERENCE OF WAVES
- 16.6 PHASORS
- 16.7 STANDING WAVES AND RESONANCE
- Chapter 16 Review & Summary
- Chapter 16 Questions
- Chapter 16 Problems
- CHAPTER 17: Waves—II
- 17.1 SPEED OF SOUND
- 17.2 TRAVELING SOUND WAVES
- 17.3 INTERFERENCE
- 17.4 INTENSITY AND SOUND LEVEL
- 17.5 SOURCES OF MUSICAL SOUND
- 17.6 BEATS
- 17.7 THE DOPPLER EFFECT
- 17.8 SUPERSONIC SPEEDS, SHOCK WAVES
- Chapter 17 Review & Summary
- Chapter 17 Questions
- Chapter 17 Problems
- CHAPTER 18: Temperature, Heat, and the First Law of Thermodynamics
- 18.1 TEMPERATURE
- 18.2 THE CELSIUS AND FAHRENHEIT SCALES
- 18.3 THERMAL EXPANSION
- 18.4 ABSORPTION OF HEAT
- 18.5 THE FIRST LAW OF THERMODYNAMICS
- 18.6 HEAT TRANSFER MECHANISMS
- Chapter 18 Review & Summary
- Chapter 18 Questions
- Chapter 18 Problems
- CHAPTER 19: The Kinetic Theory of Gases
- 19.1 AVOGADRO’S NUMBER
- 19.2 IDEAL GASES
- 19.3 PRESSURE, TEMPERATURE, AND RMS SPEED
- 19.4 TRANSLATIONAL KINETIC ENERGY
- 19.5 MEAN FREE PATH
- 19.6 THE DISTRIBUTION OF MOLECULAR SPEEDS
- 19.7 THE MOLAR SPECIFIC HEATS OF AN IDEAL GAS
- 19.8 DEGREES OF FREEDOM AND MOLAR SPECIFIC HEATS
- 19.9 THE ADIABATIC EXPANSION OF AN IDEAL GAS
- Chapter 19 Review & Summary
- Chapter 19 Questions
- Chapter 19 Problems
- CHAPTER 20: Entropy and the Second Law of Thermodynamics
- 20.1 ENTROPY
- 20.2 ENTROPY IN THE REAL WORLD: ENGINES
- 20.3 REFRIGERATORS AND REAL ENGINES
- 20.4 A STATISTICAL VIEW OF ENTROPY
- Chapter 20 Review & Summary
- Chapter 20 Questions
- Chapter 20 Problems
- CHAPTER 21: Coulomb’s Law
- 21.1 COULOMB’S LAW
- 21.2 CHARGE IS QUANTIZED
- 21.3 CHARGE IS CONSERVED
- Chapter 21 Review & Summary
- Chapter 21 Questions
- Chapter 21 Problems
- CHAPTER 22: Electric Fields
- 22.1 THE ELECTRIC FIELD
- 22.2 THE ELECTRIC FIELD DUE TO A CHARGED PARTICLE
- 22.3 THE ELECTRIC FIELD DUE TO A DIPOLE
- 22.4 THE ELECTRIC FIELD DUE TO A LINE OF CHARGE
- 22.5 THE ELECTRIC FIELD DUE TO A CHARGED DISK
- 22.6 A POINT CHARGE IN AN ELECTRIC FIELD
- 22.7 A DIPOLE IN AN ELECTRIC FIELD
- Chapter 22 Review & Summary
- Chapter 22 Questions
- Chapter 22 Problems
- CHAPTER 23: Gauss’ Law
- 23.1 ELECTRIC FLUX
- 23.2 GAUSS’ LAW
- 23.3 A CHARGED ISOLATED CONDUCTOR
- 23.4 APPLYING GAUSS’ LAW: CYLINDRICAL SYMMETRY
- 23.5 APPLYING GAUSS’ LAW: PLANAR SYMMETRY
- 23.6 APPLYING GAUSS’ LAW: SPHERICAL SYMMETRY
- Chapter 23 Review & Summary
- Chapter 23 Questions
- Chapter 23 Problems
- CHAPTER 24: Electric Potential
- 24.1 ELECTRIC POTENTIAL
- 24.2 EQUIPOTENTIAL SURFACES AND THE ELECTRIC FIELD
- 24.3 POTENTIAL DUE TO A CHARGED PARTICLE
- 24.4 POTENTIAL DUE TO AN ELECTRIC DIPOLE
- 24.5 POTENTIAL DUE TO A CONTINUOUS CHARGE DISTRIBUTION
- 24.6 CALCULATING THE FIELD FROM THE POTENTIAL
- 24.7 ELECTRIC POTENTIAL ENERGY OF A SYSTEM OF CHARGED PARTICLES
- 24.8 POTENTIAL OF A CHARGED ISOLATED CONDUCTOR
- Chapter 24 Review & Summary
- Chapter 24 Questions
- Chapter 24 Problems
- CHAPTER 25: Capacitance
- 25.1 CAPACITANCE
- 25.2 CALCULATING THE CAPACITANCE
- 25.3 CAPACITORS IN PARALLEL AND IN SERIES
- 25.4 ENERGY STORED IN AN ELECTRIC FIELD
- 25.5 CAPACITOR WITH A DIELECTRIC
- 25.6 DIELECTRICS AND GAUSS’ LAW
- Chapter 25 Review & Summary
- Chapter 25 Questions
- Chapter 25 Problems
- CHAPTER 26: Current and Resistance
- 26.1 ELECTRIC CURRENT
- 26.2 CURRENT DENSITY
- 26.3 RESISTANCE AND RESISTIVITY
- 26.4 OHM’S LAW
- 26.5 POWER, SEMICONDUCTORS, SUPERCONDUCTORS
- Chapter 26 Review & Summary
- Chapter 26 Questions
- Chapter 26 Problems
- CHAPTER 27: Circuits
- 27.1 SINGLE-LOOP CIRCUITS
- 27.2 MULTILOOP CIRCUITS
- 27.3 THE AMMETER AND THE VOLTMETER
- 27.4 RC CIRCUITS
- Chapter 27 Review & Summary
- Chapter 27 Questions
- Chapter 27 Problems
- CHAPTER 28: Magnetic Fields
- 28.1 MAGNETIC FIELDS AND THE DEFINITION OF B→
- 28.2 CROSSED FIELDS: DISCOVERY OF THE ELECTRON
- 28.3 CROSSED FIELDS: THE HALL EFFECT
- 28.4 A CIRCULATING CHARGED PARTICLE
- 28.5 CYCLOTRONS AND SYNCHROTRONS
- 28.6 MAGNETIC FORCE ON A CURRENT-CARRYING WIRE
- 28.7 TORQUE ON A CURRENT LOOP
- 28.8 THE MAGNETIC DIPOLE MOMENT
- Chapter 28 Review & Summary
- Chapter 28 Questions
- Chapter 28 Problems
- CHAPTER 29: Magnetic Fields Due to Currents
- 29.1 MAGNETIC FIELD DUE TO A CURRENT
- 29.2 FORCE BETWEEN TWO PARALLEL CURRENTS
- 29.3 AMPERE's LAW
- 29.4 SOLENOIDS AND TOROIDS
- 29.5 A CURRENT-CARRYING COIL AS A MAGNETIC DIPOLE
- Chapter 29 Review & Summary
- Chapter 29 Questions
- Chapter 29 Problems
- CHAPTER 30: Induction and Inductance
- 30.1 FARADAY'S LAW AND LENZ'S LAW
- 30.2 INDUCTION AND ENERGY TRANSFERS
- 30.3 INDUCED ELECTRIC FIELDS
- 30.4 INDUCTORS AND INDUCTANCE
- 30.5 SELF-INDUCTION
- 30.6 RL CIRCUITS
- 30.7 ENERGY STORED IN A MAGNETIC FIELD
- 30.8 ENERGY DENSITY OF A MAGNETIC FIELD
- 30.9 MUTUAL INDUCTION
- Chapter 30 Review & Summary
- Chapter 30 Questions
- Chapter 30 Problems
- CHAPTER 31: Electromagnetic Oscillations and Alternating Current
- 31.1 LC OSCILLATIONS
- 31.2 DAMPED OSCILLATIONS IN AN RLC CIRCUIT
- 31.3 FORCED OSCILLATIONS OF THREE SIMPLE CIRCUITS
- 31.4 THE SERIES RLC CIRCUIT
- 31.5 POWER IN ALTERNATING-CURRENT CIRCUITS
- 31.6 TRANSFORMERS
- Chapter 31 Review & Summary
- Chapter 31 Questions
- Chapter 31 Problems
- CHAPTER 32: Maxwell’s Equations; Magnetism of Matter
- 32.1 GAUSS’ LAW FOR MAGNETIC FIELDS
- 32.2 INDUCED MAGNETIC FIELDS
- 32.3 DISPLACEMENT CURRENT
- 32.4 MAGNETS
- 32.5 MAGNETISM AND ELECTRONS
- 32.6 DIAMAGNETISM
- 32.7 PARAMAGNETISM
- 32.8 FERROMAGNETISM
- Chapter 32 Review & Summary
- Chapter 32 Questions
- Chapter 32 Problems
- CHAPTER 33: Electromagnetic Waves
- 33.1 ELECTROMAGNETIC WAVES
- 33.2 ENERGY TRANSPORT AND THE POYNTING VECTOR
- 33.3 RADIATION PRESSURE
- 33.4 POLARIZATION
- 33.5 REFLECTION AND REFRACTION
- 33.6 TOTAL INTERNAL REFLECTION
- 33.7 POLARIZATION BY REFLECTION
- Chapter 33 Review & Summary
- Chapter 33 Questions
- Chapter 33 Problems
- CHAPTER 34: Images
- 34.1 IMAGES AND PLANE MIRRORS
- 34.2 SPHERICAL MIRRORS
- 34.3 SPHERICAL REFRACTING SURFACES
- 34.4 THIN LENSES
- 34.5 OPTICAL INSTRUMENTS
- 34.6 THREE PROOFS
- Chapter 34 Review & Summary
- Chapter 34 Questions
- Chapter 34 Problems
- CHAPTER 35 Interference
- 35.1 LIGHT AS A WAVE
- 35.2 YOUNG’S INTERFERENCE EXPERIMENT
- 35.3 INTERFERENCE AND DOUBLE-SLIT INTENSITY
- 35.4 INTERFERENCE FROM THIN FILMS
- 35.5 MICHELSON’S INTERFEROMETER
- Chapter 35 Review & Summary
- Chapter 35 Questions
- Chapter 35 Problems
- CHAPTER 36: Diffraction
- 36.1 SINGLE-SLIT DIFFRACTION
- 36.2 INTENSITY IN SINGLE-SLIT DIFFRACTION
- 36.3 DIFFRACTION BY A CIRCULAR APERTURE
- 36.4 DIFFRACTION BY A DOUBLE SLIT
- 36.5 DIFFRACTION GRATINGS
- 36.6 GRATINGS: DISPERSION AND RESOLVING POWER
- 36.7 X-RAY DIFFRACTION
- Chapter 36 Review & Summary
- Chapter 36 Questions
- Chapter 36 Problems
- CHAPTER 37: Relativity
- 37.1 SIMULTANEITY AND TIME DILATION
- 37.2 THE RELATIVITY OF LENGTH
- 37.3 THE LORENTZ TRANSFORMATION
- 37.4 THE RELATIVITY OF VELOCITIES
- 37.5 DOPPLER EFFECT FOR LIGHT
- 37.6 MOMENTUM AND ENERGY
- Chapter 37 Review & Summary
- Chapter 37 Questions
- Chapter 37 Problems
- CHAPTER 38: Photons and Matter Waves
- 38.1 THE PHOTON, THE QUANTUM OF LIGHT
- 38.2 THE PHOTOELECTRIC EFFECT
- 38.3 PHOTONS, MOMENTUM, COMPTON SCATTERING, LIGHT INTERFERENCE
- 38.4 THE BIRTH OF QUANTUM PHYSICS
- 38.5 ELECTRONS AND MATTER WAVES
- 38.6 SCHRÖDINGER’S EQUATION
- 38.7 HEISENBERG’S UNCERTAINTY PRINCIPLE
- 38.8 REFLECTION FROM A POTENTIAL STEP
- 38.9 TUNNELING THROUGH A POTENTIAL BARRIER
- Chapter 38 Review & Summary
- Chapter 38 Questions
- Chapter 38 Problems
- CHAPTER 39: More About Matter Waves
- 39.1 ENERGIES OF A TRAPPED ELECTRON
- 39.2 WAVE FUNCTIONS OF A TRAPPED ELECTRON
- 39.3 AN ELECTRON IN A FINITE WELL
- 39.4 TWO- AND THREE-DIMENSIONAL ELECTRON TRAPS
- 39.5 THE HYDROGEN ATOM
- Chapter 39 Review & Summary
- Chapter 39 Questions
- Chapter 39 Problems
- CHAPTER 40: All About Atoms
- 40.1 PROPERTIES OF ATOMS
- 40.2 THE STERN–GERLACH EXPERIMENT
- 40.3 MAGNETIC RESONANCE
- 40.4 EXCLUSION PRINCIPLE AND MULTIPLE ELECTRONS IN A TRAP
- 40.5 BUILDING THE PERIODIC TABLE
- 40.6 X RAYS AND THE ORDERING OF THE ELEMENTS
- 40.7 LASERS
- Chapter 40 Review & Summary
- Chapter 40 Questions
- Chapter 40 Problems
- CHAPTER 41: Conduction of Electricity in Solids
- 41.1 THE ELECTRICAL PROPERTIES OF METALS
- 41.2 SEMICONDUCTORS AND DOPING
- 41.3 THE p-n JUNCTION AND THE TRANSISTOR
- Chapter 41 Review & Summary
- Chapter 41 Questions
- Chapter 41 Problems
- CHAPTER 42: Nuclear Physics
- 42.1 DISCOVERING THE NUCLEUS
- 42.2 SOME NUCLEAR PROPERTIES
- 42.3 RADIOACTIVE DECAY
- 42.4 ALPHA DECAY
- 42.5 BETA DECAY
- 42.6 RADIOACTIVE DATING
- 42.7 MEASURING RADIATION DOSAGE
- 42.8 NUCLEAR MODELS
- Chapter 42 Review & Summary
- Chapter 42 Questions
- Chapter 42 Problems
- CHAPTER 43: Energy from the Nucleus
- 43.1 NUCLEAR FISSION
- 43.2 THE NUCLEAR REACTOR
- 43.3 A NATURAL NUCLEAR REACTOR
- 43.4 THERMONUCLEAR FUSION: THE BASIC PROCESS
- 43.5 THERMONUCLEAR FUSION IN THE SUN AND OTHER STARS
- 43.6 CONTROLLED THERMONUCLEAR FUSION
- Chapter 43 Review & Summary
- Chapter 43 Questions
- Chapter 43 Problems
- CHAPTER 44: Quarks, Leptons, and the Big Bang
- 44.1 GENERAL PROPERTIES OF ELEMENTARY PARTICLES
- 44.2 LEPTONS, HADRONS, AND STRANGENESS
- 44.3 QUARKS AND MESSENGER PARTICLES
- 44.4 COSMOLOGY
- Chapter 44 Review & Summary
- Chapter 44 Questions
- Chapter 44 Problems
- APPENDICES
- APPENDIX A: THE INTERNATIONAL SYSTEM OF UNITS (SI)
- APPENDIX B: SOME FUNDAMENTAL CONSTANTS OF PHYSICS
- APPENDIX C: SOME ASTRONOMICAL DATA
- APPENDIX D: CONVERSION FACTORS
- APPENDIX E: MATHEMATICAL FORMULAS
- APPENDIX F: PROPERTIES OF THE ELEMENTS
- APPENDIX G: PERIODIC TABLE OF THE ELEMENTS
- ANSWERS: To Checkpoints and Odd-Numbered Questions and Problems
- INDEX
- End User License Agreement