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FUNDAMENTALS OF PHYSICS, FIFTH EDITION
David Halliday
Robert Resnick
Jearl Walker |
Chapter 1. MEASUREMENT
1-1 Measuring Things
1-2 The International System of Units
1-3 Changing Units
1-4 Length
1-5 Time
1-6 Mass
Review and Summary
Exercises and Problems
Chapter 2. MOTION ALONG A STRAIGHT LINE: WHAT GIVES THE THRILL IN DRAG RACING?
2-1 Motion
2-2 Position and Displacement
2-3 Average Velocity and Average Speed
2-4 Instantaneous Velocity and Speed
2-5 Acceleration
2-6 Constant Acceleration: A Special Case
2-7 Another Look at Constant Acceleration
2-8 Free-Fall Acceleration
2-9 The Particles of Physics
*Review and Summary
*Questions
*Exercises and Problems
*These features are at the end of each chapter from here on
Chapter 3. VECTORS: HOW CAN VECTORS BE USED IN CAVE EXPLORING?
3-1 Vectors and Scalars
3-2 Adding Vectors: Graphical Method
3-3 Vectors and Their Components
3-4 Unit Vectors
3-5 Adding Vectors by Components
3-6 Vectors and the Laws of Physics
3-7 Multiplying Vectors
Chapter 4. MOTION IN TWO AND THREE DIMENSIONS: HOW CAN THE PLACEMENT OF THE NET BE DETERMINED FOR A HUMAN CANNONBALL?
4-1 Moving in Two or Three Dimensions
4-2 Position and Displacement
4-3 Velocity and Average Velocity
4-4 Acceleration and Average Acceleration
4-5 Projectile Motion
4-6 Projectile Motion Analyzed
4-7 Uniformly Circular Motion
4-8 Relative Motion in One Dimension
4-9 Relative Motion in Two Dimensions
4-10 Relative Motion at High Speeds
Chapter 5. FORCE AND MOTION-I: CAN A MAN PULL TWO RAILROAD PASSENGER CARS WITH HIS TEETH?
5-1 What Causes an Acceleration?
5-2 Newton's First Law
5-3 Force
5-4 Mass
5-5 Newton's Second Law
5-6 Some Particular Forces
5-7 Newton's Third Law
5-8 Applying Newton's Laws
Chapter 6. FORCE AND MOTION-II: WHY DO CATS SOMETIMES SURVIVE LONG FALLS BETTER THAN SHORTER ONES?
6-1 Friction
6-2 Properties of Friction
6-3 The Drag Force and Terminal Speed
6-4 Uniform Circular Motion
6-5 The Forces of Nature
Chapter 7. KINETIC ENERGY AND WORK: HOW MUCH WORK IS REQUIRED IN LIFTING GREAT WEIGHTS?
7-1 Kinetic Energy
7-2 Work
7-3 Work and Kinetic Energy
7-4 Work Done by Weight
7-5 Work Done by a Variable Force
7-6 Work Done by a Spring Force
7-7 Power
7-8 Kinetic Energy at High Speeds
7-9 Reference Frames
Chapter 8. POTENTIAL ENERGY AND CONSERVATION OF ENERGY: HOW FAR WILL A BUNGEE-CORD JUMPER FALL?
8-1 Potential Energy
8-2 Path Independence of Conservative Forces
8-3 Determining Potential Energy Values
8-4 Conservation of Mechanical Energy
8-5 Reading a Potential Energy Curve
8-6 Work Done by Nonconservative Forces
8-7 Conservation of Energy
8-8 Mass and Energy
8-9 Quantized Energy
Chapter 9. SYSTEMS OF PARTICLES: HOW DOES A BALLERINA SEEMINGLY "TURN OFF" GRAVITY?
9-1 A Special Point
9-2 The Center of Mass
9-3 Newton's Second Law for a System of Particles
9-4 Linear Momentum
9-5 The Linear Momentum of a System of Particles
9-6 Conservation of Linear Momentum
9-7 Systems with Varying Mass: A Rocket
9-8 External Forces and Internal Energy Changes
Chapter 10. COLLISIONS: IS A BOARD OR A CONCRETE BLOCK EASIER TO BREAK IN KARATE?
10-1 What is a Collision?
10-2 Impulse and Linear Momentum
10-3 Elastic Collisions in One Dimension
10-4 Inelastic Collisions in One Dimension
10-5 Collisions in Two Dimensions
10-6 Reactions and Decay Processes
Chapter 11. ROTATION: WHAT ADVANTAGES DOES PHYSICS OFFER IN JUDO THROWS?
11-1 Translation and Rotation
11-2 The Rotational Variables
11-3 Are Angular Quantities Vectors?
11-4 Rotation with Constant Angular Acceleration
11-5 Relating the Linear and Angular Variables
11-6 Kinetic Energy of Rotation
11-7 Calculating the Rotational Inertia
11-8 Torque
11-9 Newton's Second Law for Rotation
11-10 Work and Rotational Kinetic Energy
Chapter 12. ROLLING, TORQUE, AND ANGULAR MOMENTUM: WHY IS A QUADRUPLE SOMERSAULT SO DIFFICULT IN TRAPEZE ACTS?
12-1 Rolling
12-2 The Yo-yo
12-3 Torque Revisited
12-4 Angular Momentum
12-5 Newton's Second Law for Rotation in Angular
Form
12-6 The Angular Momentum of a System of
Particles
12-7 The Angular Momentum of a Rigid Body
Rotating about a Fixed Axis
12-8 Conservation of Angular Momentum
12-9 Quantized Angular Momentum
Chapter 13. EQUILIBRIUM AND ELASTICITY: CAN YOU SAFELY REST IN A FISSURE DURING A CHIMNEY CLIMB?
13-1 Equilibrium
13-2 The Requirements of Equilibrium
13-3 The Center of Gravity
13-4 Some Examples of Static Equilibrium
13-5 Indeterminate Structure
13-6 Elasticity
Chapter 14. GRAVITATION: HOW CAN A BLACK HOLE BE DETECTED?
14-1 The World and the Gravitational Force
14-2 Newton's Law of Gravitation
14-3 Gravitation and the Principle of Superposition
14-4 Gravitation Near the Earth's Surface
14-5 Gravitation Inside the Earth
14-6 Gravitational Potential Energy
14-7 Planets and Satellites: Orbits and Energy
14-9 Einstein and Gravitation
Chapter 15. FLUIDS: WHAT FACTOR OCCASIONALLY KILLS NOVICE SKIN DIVERS?
15-1 Fluids and the World Around Us
15-2 What is a Fluid?
15-3 Density and Pressure
15-4 Fluids at Rest
15-5 Measuring Pressure
15-6 Pascal's Principle
15-7 Archimedes' Principle
15-8 Ideal Fluids in Motion
15-9 Streamlines and the Equation of Continuity
15-10 Bernoulli's Equation
Chapter 16. OSCILLATIONS: WHY DID ONLY ONE SECTION OF THE NIMITZ FREEWAY COLLAPSE?
16-1 Oscillations
16-2 Simple Harmonic Motion
16-3 The Force Law for Simple Harmonic Motion
16-4 Energy in a Simple Harmonic Motion
16-5 An Angular Simple Harmonic Oscillator
16-6 Pendulums
16-7 Simple Harmonic Motion and Uniform
Circular Motion
16-8 Damped Simple Harmonic Motion
16-9 Forced Oscillations and Resonance
Chapter 17. WAVES I: HOW DOES A SCORPION DETECT A BEETLE WITHOUT USING SIGHT OR SOUND?
17-1 Waves and Particles
17-2 Types of Waves
17-3 Transverse and Longitudinal Waves
17-4 Wavelength and Frequency
17-5 The Speed of a Traveling Wave
17-6 Wave Speed on a Stretched String
17-7 Energy and Power of a Traveling String Wave
17-8 The Principle of Superposition for Waves
17-9 Interference of Waves
17-10 Phasors
17-11 Standing Waves
17-12 Standing Waves and Resonance
Chapter 18. WAVES II: HOW DOES A BAT DETECT A MOTH IN TOTAL DARKNESS
18-1 Sound Waves
18-2 The Speed of Sound
18-3 Traveling Sound Waves
18-4 Interference
18-5 Intensity and Sound Level
18-6 Sources of Musical Sound
18-7 Beats
18-8 The Doppler Effect
18-9 The Doppler Effect for Light
Chapter 19. TEMPERATURE, HEAT, AND THE FIRST LAW OF THERMODYNAMICS: WHY ARE BLACK ROBES WORN IN EXTREMELY HOT CLIMATES?
19-1 Thermodynamics
19-2 The Zeroth Law of Thermodynamics
19-3 Measuring Temperature
19-4 The Celsius and Fahrenheit Scales
19-5 Thermal Expansion
19-6 Temperature and Heat
19-7 The Absorption of Heat by Solids and Liquids
19-8 A Closer Look at Heat and Work
19-9 The First Law of Thermodynamics
19-10 Some Special Cases of the First Law of
Thermodynamics
19-11 Heat Transfer Mechanisms
Chapter 20. THE KINETIC THEORY OF GASES: WHEN A ROOM'S AIR IS HEATED, DOES THE INTERNAL ENERGY OF THE AIR INCREASE?
20-1 A New Way to Look at Gases
20-2 Avogadro's Number
20-3 Ideal Gases
20-4 Pressure, Temperature, and RMS Speed
20-5 Translational Kinetic Energy
20-6 Mean Free Path
20-7 The Distribution of Molecular Speeds
20-8 The Molar Specific Heats of an Ideal Gas
20-9 Degrees of Freedom and Molar Specific Heats
20-10 A Hint of Quantum Theory
20-11 The Adiabatic Expansion of an Ideal Gas
Chapter 21. ENTROPY AND THE SECOND LAW OF THERMODYNAMICS: WHAT IN THE WORLD GIVES DIRECTION TO TIME?
21-1 Some One-Way Processes
21-2 Change in Entropy
21-3 The Second Law of Thermodynamics
21-4 Entropy in the Real World: Engines
21-5 Entropy in the Real World: Refrigerators
21-6 A Statistical View of Entropy
Chapter 22. ELECTRIC CHARGE: WHAT CAUSES THE "SPARKING" OF A WINTERGREEN LIFESAVER?
22-1 Electromagnetism
22-2 Electric Charge
22-3 Conductors and Insulators
22-4 Coulomb's Law
22-5 Charge is Quantized
22-6 Charge is Conserved
Chapter 23. ELECTRIC FIELDS: HOW DO MICROWAVES HEAT WATER?
23-1 Charges and Forces: A Closer Look
23-2 The Electric Field
23-3 Electric Field Lines
23-4 The Electric Field Due to a Point Charge
23-5 The Electric Field Due to an Electric Dipole
23-6 The Electric Field Due to a Line of Charge
23-7 The Electric Field Due to a Charged Disk
23-8 A Point Charge in an Electric Field
23-9 A Dipole in an Electric Field
Chapter 24. GAUSS' LAW: HOW WIDE IS A LIGHTNING STRIKE?
24-1 A New Look a Coulomb's Law
24-2 Flux
24-3 Flux of An Electric Field
24-4 Gauss' Law
24-5 Gauss' Law and Coulomb's Law
24-6 A Charged Isolated Conductor
24-7 Applying Gauss' Law: Cylindrical Symmetry
24-8 Applying Gauss' Law: Planar Symmetry
24-9 Applying Gauss' Law: Spherical Symmetry
Chapter 25. ELECTRIC POTENTIAL: WHAT IS THE DANGER IS YOUR HAIR SUDDENLY STANDS UP?
25-1 Electric Potential Energy
25-2 Electric Potential
25-3 Equipotential Surfaces
25-4 Calculating the Potential from the Field
25-5 Potential Due to a Point Source
25-6 Potential Due to a Group of Point Charges
25-7 Potential Due to an Electronic Dipole
25-8 Potential Due to a Continuous Charge
Distribution
25-9 Calculating the Field from the Potential
25-10 Electric Potential Energy of a System of
Point Charges
25-11 Potential of a Charged Isolated Conductor
Chapter 26. CAPACITANCE: HOW DO YOU STOP VENTRICULAR FIBRILLATION IN A REMOTE LOCATION?
26-1 The Uses of Capacitors
26-2 Capacitance
26-3 Calculating the Capacitance
26-4 Capacitors in Parallel and in Series
26-5 Storing Energy in an Electric Field
26-6 Capacitor with a Dielectric
26-7 Dielectrics: An Atomic View
26-8 Dielectrics and Gauss' Law
Chapter 27. CURRENT AND RESISTANCE: WHAT CAUSED THE FLAMING CRASH OF THE ZEPPELIN HINDENBURG?
27-1 Moving Charges and Electric Currents
27-2 Electric Current
27-3 Current Density
27-4 Resistance and Resistivity
27-5 Ohm's Law
27-6 A Microscopic View of Ohm's Law
27-7 Power in Electric Circuits
27-8 Semiconductors
27-9 Superconductors
Chapter 28. CIRCUITS: HOW DOES AN ELECTRIC EEL PRODUCE A LARGE CURRENT?
28-1 "Pumping" Charges
28-2 Work, Energy, and Emf
28-3 Calculating the Current
28-4 Other Single-Loop Circuits
28-5 Potential Differences
28-6 Multiloop Circuits
28-7 The Ammeter and the Voltmeter
28-8 RC Circuits
Chapter 29. MAGNETIC FIELDS: WHY IS AN AURORA SO THIN AND YET SO TALL AND WIDE?
29-1 The Magnetic Field
29-2 The Definition of B
29-3 Crossed Fields: Discovery of the Electron
29-4 Crossed Fields: The Hall Effect
29-5 A Circulating Charged Particle
29-6 Cyclotrons and Synchrotrons
29-7 The Magnetic Force on a Current-Carrying
Wire
29-8 Torque on a Current Loop
29-9 The Magnetic Dipole
Chapter 30. MAGNETIC FIELDS DUE TO CURRENTS: HOW CAN CARGO BE SHOT INTO SPACE?
30-1 Calculating the Magnetic Field Due to a
Current
30-2 Force between Two Parallel Currents
30-3 Ampere's Law
30-4 Solenoids and Torroids
30-5 A Current Loop as a Magnetic Dipole
Chapter 31. INDUCTION AND INDUCTANCE: HOW DID THE ELECTRIC GUITAR REVOLUTIONIZE ROCK?
31-1 Two Symmetric Situations
31-2 Two Experiments
31-3 Faraday's Law of Induction
31-4 Lenz's Law
31-5 Induction and Energy Transfers
31-6 Induced Electric Fields
31-7 Self-Induction
31-8 RL Circuits
31-9 Energy Stored in a Magnetic Field
31-10 Energy Density of a Magnetic Field
31-11 Mutual Induction
Chapter 32. MAGNETISM OF MATTER; MAXWELL'S EQUATIONS: HOW CAN A CLAY-WALLED KILN REVEAL THE EARTH'S MAGNETIC FIELD OF THE PAST?
32-1 Magnets
32-2 Gauss' Law for Magnetism
32-3 The Magnetism of the Earth
32-4 Magnetism and Electrons
32-5 Magnetic Materials
32-6 Diamagnetism
32-7 Paramagnetism
32-8 Ferromagnetism
32-9 Induced Magnetic Fields
32-10 Displacement Current
32-11 Maxwell's Equations
Chapter 33. ELECTROMAGNETIC OSCILLATIONS AND ALTERNATING CURRENT: WHY DO ELECTRICAL TRANSMISSION LINES HAVE HIGH POTENTIAL AND NOT HIGH CURRENT?
33-1 New Physics--Old Mathematics
33-2 LC Oscillations, Qualitatively
33-3 The Electrical-Mechanical Analogy
33-4 LC Oscillations, Quantitatively
33-5 Damped Oscillations in an RLC Circuit
33-6 Alternating Current
33-7 Forced Oscillations
33-8 Three Simple Circuits
33-9 The Series RLC Circuit
33-10 Power in Alternating-Current Circuits
33-11 Transformers
Chapter 34. ELECTROMAGNETIC WAVES: WHAT SHAPES THE CURVED DUST TAIL OF A COMET?
34-1 Maxwell's Rainbow
34-2 The Traveling Electromagnetic Wave,
Qualitatively
34-3 The Traveling Electromagnetic Wave,
Quantitatively
34-4 Energy Transport and the Poynting Vector
34-5 Radiation Pressure
34-6 Polarization
34-7 Reflection and Refraction
34-8 Total Internal Reflection
34-9 Polarization by Reflection
Chapter 35. IMAGES: WHAT DISTORTION OF REALITY LIES IN MANET'S A BAR AT THE FLIES-BERGERE?
35-1 Two Types of Images
35-2 Plane Mirrors
35-3 Spherical Mirrors
35-4 Locating Images by Drawing Rays
35-5 Spherical Refracting Surfaces
35-6 Thin Lenses
35-7 Optical Instruments
35-8 Three Proofs
Chapter 36. INTERFERENCE: WHAT PRODUCES THE BLUE-GREEN OF A MORPHO'S WING?
36-1 Interference
36-2 Light as a Wave
36-3 Diffraction
36-4 Young's Interference Experiment
36-5 Coherence
36-6 Intensity in Double-Slit Interference
36-7 Interference from Thin Films
36-8 Michelson's Interferometer
Chapter 37. WHY DO THE COLORS IN A POINTILLISM PAINTING CHANGE WITH VIEWING DISTANCE?
37-1 Diffraction and the Wave Theory of Light
37-2 Diffraction from a Single Slit: Locating the
Minima
37-3 Single Slit Diffraction, Qualitatively
37-4 Single Slit Diffraction, Quantitatively
37-5 Diffraction from a Circular Aperture
37-6 Diffraction from a Double Slit
37-7 Diffraction Gratings
37-8 Gratings: Dispersion and Resolving Power
37-9 X-ray Diffraction
Chapter 38. RELATIVITY: WHY IS SPECIAL RELATIVITY SO IMPORTANT IN MODERN NAVIGATION?
38-1 What is Relativity All About?
38-2 The Postulates
38-3 Measuring an Event
38-4 Simultaneous Events
38-5 The Relativity of Time
38-6 The Relativity of Length
38-7 The Lorentz Transformation
38-8 Some Consequences of the Lorentz Equations
38-9 The Relativity of Velocities
38-10 The Doppler Effect
38-11 A New Look at Momentum
38-12 A New Look at Energy
APPENDICES
A. THE INTERNATIONAL SYSTEM OF UNITS (SI)
B. SOME FUNDAMENTAL CONSTANTS OF PHYSICS
C. SOME ASTRONOMICAL DATA
D. CONVERSION FACTORS
E. MATHEMATICAL FORMULAS
ANSWERS TO CHECKPOINTS AND ODD-NUMBERED QUESTIONS, EXERCISES AND PROBLEMS
INDEX