Physics for Scientists and Engineers: Foundations and Connections, 2017 WebAssign Update 1st edition

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• Chapter 1: Getting Started
  • 1.1: Physics
  • 1.2: How Are Laws of Physics Found?
  • 1.3: A Guide to Learning Physics
  • 1.4: Solving Problems in Physics
  • 1.5: Systems of Units
  • 1.6: Dimensional Analysis
  • 1.7: Error and Significant Figures
  • 1.8: Order-of-Magnitude Estimates
  • 1: General Problems
  • 1: PreLecture Explorations
  • 1: Integrated Tutorials
  • 1: Reading Comprehension
  • 1: Interactive Video Vignettes
  • 1: WebAssign Original Content
  
  
• Chapter 2: One-Dimensional Motion
  • 2.1: What Is One-Dimensional Translational Kinematics?
  • 2.2: Motion Diagrams
  • 2.3: Coordinate Systems and Position
  • 2.4: Position-Versus-Time Graphs
  • 2.5: Displacement and Distance Traveled
  • 2.6: Average Velocity and Speed
  • 2.7: Instantaneous Velocity and Speed
  • 2.8: Average and Instantaneous Acceleration
  • 2.9: Special Case: Constant Acceleration
  • 2.10: A Special Case of Constant Acceleration: Free Fall
  • 2: General Problems
  • 2: PreLecture Explorations
  • 2: Integrated Tutorials
  • 2: Reading Comprehension
  • 2: Interactive Video Vignettes
  • 2: WebAssign Original Content
  
  
• Chapter 3: Vectors
  • 3.1: Geometric Treatment of Vectors
  • 3.2: Cartesian Coordinate Systems
  • 3.3: Components of a Vector
  • 3.4: Combining Vectors by Components
  • 3: General Problems
  • 3: PreLecture Explorations
  • 3: Integrated Tutorials
  • 3: Reading Comprehension
  • 3: Interactive Video Vignettes
  • 3: WebAssign Original Content
  
  
• Chapter 4: Two- and Three-Dimensional Motion
  • 4.1: What Is Multidimensional Motion?
  • 4.2: Motion Diagrams for Multidimensional Motion
  • 4.3: Position and Displacement
  • 4.4: Velocity and Acceleration
  • 4.5: Special Case of Projectile Motion
  • 4.6: Special Case of Uniform Circular Motion
  • 4.7: Relative Motion in One Dimension
  • 4.8: Relative Motion in Two Dimensions
  • 4: General Problems
  • 4: PreLecture Explorations
  • 4: Integrated Tutorials
  • 4: Reading Comprehension
  • 4: Interactive Video Vignettes
  • 4: WebAssign Original Content
  
  
• Chapter 5: Newton's Law of Motion
  • 5.1: Our Experience With Dynamics
  • 5.2: Newton's First Law
  • 5.3: Force
  • 5.4: Inertial Mass
  • 5.5: Inertial Reference Frames
  • 5.6: Newton's Second Law
  • 5.7: Some Specific Forces
  • 5.8: Free-Body Diagrams
  • 5.9: Newton's Third Law
  • 5.10: Fundamental Forces
  • 5: General Problems
  • 5: PreLecture Explorations
  • 5: Integrated Tutorials
  • 5: Reading Comprehension
  • 5: Interactive Video Vignettes
  • 5: WebAssign Original Content
  
  
• Chapter 6: Applications of Newton's Law of Motion
  • 6.1: Newton's Laws in a Messy World
  • 6.2: Friction and the Normal Force Revisited
  • 6.3: A Model for Static Friction
  • 6.4: Kinetic and Rolling Friction
  • 6.5: Drag and Terminal Speed
  • 6.6: Centripetal Force
  • 6: General Problems
  • 6: PreLecture Explorations
  • 6: Integrated Tutorials
  • 6: Reading Comprehension
  • 6: Interactive Video Vignettes
  • 6: WebAssign Original Content
  
  
• Chapter 7: Gravity
  • 7.1: A Knowable Universe
  • 7.2: Kepler's Laws of Planetary Motion
  • 7.3: Newton's Law of Universal Gravity
  • 7.4: The Gravitational Field
  • 7.5: Variations in the Earth's Gravitational Field
  • 7: General Problems
  • 7: PreLecture Explorations
  • 7: Integrated Tutorials
  • 7: Reading Comprehension
  • 7: Interactive Video Vignettes
  • 7: WebAssign Original Content
  
  
• Chapter 8: Conservation of Energy
  • 8.1: Another Approach to Newtonian Mechanics
  • 8.2: Energy
  • 8.3: Gravitational Potential Energy Near the Earth
  • 8.4: Universal Gravitational Potential Energy
  • 8.5: Elastic Potential Energy
  • 8.6: Conservation of Mechanical Energy
  • 8.7: Applying the Conservation of Mechanical Energy
  • 8.8: Energy Graphs
  • 8.9: Special Case: Orbital Energies
  • 8: General Problems
  • 8: PreLecture Explorations
  • 8: Integrated Tutorials
  • 8: Reading Comprehension
  • 8: Interactive Video Vignettes
  • 8: WebAssign Original Content
  
  
• Chapter 9: Energy in Nonisolated Systems
  • 9.1: Energy Transfer to and from the Environment
  • 9.2: Work Done by a Constant Force
  • 9.3: Dot Product
  • 9.4: Work Done by a Nonconstant Force
  • 9.5: Conservative and Nonconservative Forces
  • 9.6: Particles, Objects, and Systems
  • 9.7: Thermal Energy
  • 9.8: Work-Energy Theorem
  • 9.9: Power
  • 9: General Problems
  • 9: PreLecture Explorations
  • 9: Integrated Tutorials
  • 9: Reading Comprehension
  • 9: Interactive Video Vignettes
  • 9: WebAssign Original Content
  
  
• Chapter 10: Systems of Particles and Conservation of Momentum
  • 10.1: A Second Conservation Principle
  • 10.2: Momentum of a Particle
  • 10.3: Center of Mass Revisited
  • 10.4: Systems of Particles
  • 10.5: Conservation of Momentum
  • 10.6: Case Study: Rockets
  • 10.7: Rocket Thrust: An Open System (Optional)
  • 10: General Problems
  • 10: PreLecture Explorations
  • 10: Integrated Tutorials
  • 10: Reading Comprehension
  • 10: Interactive Video Vignettes
  • 10: WebAssign Original Content
  
  
• Chapter 11: Collisions
  • 11.1: What is a Collision?
  • 11.2: Impulse
  • 11.3: Conservation During a Collision
  • 11.4: Special Case: One-Dimensional Inelastic Collisions
  • 11.5: One-Dimensional Elastic Collisions
  • 11.6: Two-Dimensional Collisions
  • 11: General Problems
  • 11: PreLecture Explorations
  • 11: Integrated Tutorials
  • 11: Reading Comprehension
  • 11: Interactive Video Vignettes
  • 11: WebAssign Original Content
  
  
• Chapter 12: Rotation I: Kinematics and Dynamics
  • 12.1: Rotation Versus Translation
  • 12.2: Rotational Kinematics
  • 12.3: Special Case of Constant Angular Acceleration
  • 12.4: The Connection Between Rotation and Circular Motion
  • 12.5: Torque
  • 12.6: Cross Product
  • 12.7: Rotational Dynamics
  • 12: General Problems
  • 12: PreLecture Explorations
  • 12: Integrated Tutorials
  • 12: Reading Comprehension
  • 12: Interactive Video Vignettes
  • 12: WebAssign Original Content
  
  
• Chapter 13: Rotation II: A Conservation Approach
  • 13.1: Conservation Approach
  • 13.2: Rotational Inertia
  • 13.3: Rotational Kinetic Energy
  • 13.4: Special Case of Rolling Motion
  • 13.5: Work and Power
  • 13.6: Angular Momentum
  • 13.7: Conservation of Angular Momentum
  • 13: General Problems
  • 13: PreLectureExplorations
  • 13: Integrated Tutorials
  • 13: Reading Comprehension
  • 13: Interactive Video Vignettes
  • 13: WebAssign Original Content
  
  
• Chapter 14: Static Equilibrium, Elasticity, and Fracture
  • 14.1: What is Static Equilibrium?
  • 14.2: Conditions for Equilibrium
  • 14.3: Examples of Static Equilibrium
  • 14.4: Elasticity and Fracture
  • 14: General Problems
  • 14: PreLecture Explorations
  • 14: Integrated Tutorials
  • 14: Reading Comprehension
  • 14: Interactive Video Vignettes
  • 14: WebAssign Original Content
  
  
• Chapter 15: Fluids
  • 15.1: What Is a Fluid?
  • 15.2: Static Fluid on the Earth
  • 15.3: Pressure
  • 15.4: Archimedes's Principle
  • 15.5: Measuring Pressure
  • 15.6: Ideal Fluid Flow
  • 15.7: The Continuity Equation
  • 15.8: Bernoulli's Equation
  • 15: General Problems
  • 15: PreLecture Explorations
  • 15: Integrated Tutorials
  • 15: Reading Comprehension
  • 15: Interactive Video Vignettes
  • 15: WebAssign Original Content
  
  
• Chapter 16: Oscillations
  • 16.1: Picturing Harmonic Motion
  • 16.2: Kinematic Equations of Simple Harmonic Motion
  • 16.3: Connection With Circular Motion
  • 16.4: Dynamics of Simple Harmonic Motion
  • 16.5: Special Case: Object-Spring Oscillator
  • 16.6: Special Case: Simple Pendulum
  • 16.7: Special Case: Physical Pendulum
  • 16.8: Special Case: Torsion Pendulum
  • 16.9: Energy in Simple Harmonic Motion
  • 16.10: Damped Harmonic Motion
  • 16.11: Driven Oscillators
  • 16: General Problems
  • 16: PreLecture Explorations
  • 16: Integrated Tutorials
  • 16: Reading Comprehension
  • 16: Interactive Video Vignettes
  • 16: WebAssign Original Content
  
  
• Chapter 17: Traveling Waves
  • 17.1: Introducing Mechanical Waves
  • 17.2: Pulses
  • 17.3: Harmonic Waves
  • 17.4: Special Case: Transverse Wave on a Rope
  • 17.5: Sound: Special Case of a Traveling Longitudinal Wave
  • 17.6: Energy Transport in Waves
  • 17.7: Two- and Three-Dimensional Waves
  • 17.8: Refraction and Diffraction
  • 17.9: The Doppler Shift
  • 17.10: The Wave Equation
  • 17: General Problems
  • 17: PreLecture Explorations
  • 17: Integrated Tutorials
  • 17: Reading Comprehension
  • 17: Interactive Video Vignettes
  • 17: WebAssign Original Content
  
  
• Chapter 18: Superposition and Standing Waves
  • 18.1: Superposition
  • 18.2: Reflection
  • 18.3: Interference
  • 18.4: Standing Waves
  • 18.5: Guitar: Resonance on a String Fixed at Both Ends
  • 18.6: Flute: Resonance in a Tube Open at Both Ends
  • 18.7: Clarinet: Resonance in a Tube Closed at One End and Open at the Other End
  • 18.8: Beats
  • 18.9: Fourier's Theorem
  • 18: General Problems
  • 18: PreLecture Explorations
  • 18: Integrated Tutorials
  • 18: Reading Comprehension
  • 18: Interactive Video Vignettes
  • 18: WebAssign Original Content
  
  
• Chapter 19: Temperature, Thermal Expansion, and Gas Laws
  • 19.1: Thermodynamics and Temperature
  • 19.2: Zeroth Law of Thermodynamics
  • 19.3: Thermal Expansion
  • 19.4: Thermal Stress
  • 19.5: Gas Laws
  • 19.6: Ideal Gas Law
  • 19.7: Temperature Standards
  • 19: General Problems
  • 19: PreLecture Explorations
  • 19: Integrated Tutorials
  • 19: Reading Comprehension
  • 19: Interactive Video Vignettes
  • 19: WebAssign Original Content
  
  
• Chapter 20: Kinetic Theory of Gases
  • 20.1: What Is the Kinetic Theory?
  • 20.2: Average and Root-Mean-Square Quantities
  • 20.3: The Kinetic Theory Applied to Gas Temperature and Pressure
  • 20.4: Maxwell-Boltzmann Distribution Function
  • 20.5: Mean Free Path
  • 20.6: Real Gases: The Van der Waals Equation of State
  • 20.7: Phase Changes
  • 20.8: Evaporation
  • 20: General Problems
  • 20: PreLecture Explorations
  • 20: Integrated Tutorials
  • 20: Reading Comprehension
  • 20: Interactive Video Vignettes
  • 20: WebAssign Original Content
  
  
• Chapter 21: Heat and the First Law of Thermodynamics
  • 21.1: What Is Heat?
  • 21.2: How Does Heat Fit Into the Conservation of Energy?
  • 21.3: The First Law of Thermodynamics
  • 21.4: Heat Capacity and Specific Heat
  • 21.5: Latent Heat
  • 21.6: Work in Thermodynamic Processes
  • 21.7: Specific Thermodynamic Processes
  • 21.8: Equipartition of Energy
  • 21.9: Adiabatic Processes Revisited
  • 21.10: Conduction, Convection, and Radiation
  • 21: General Problems
  • 21: PreLecture Explorations
  • 21: Integrated Tutorials
  • 21: Reading Comprehension
  • 21: Interactive Video Vignettes
  • 21: WebAssign Original Content
  
  
• Chapter 22: Entropy and the Second Law of Thermodynamics
  • 22.1: Second Law of Thermodynamics, Clausius Statement
  • 22.2: Heat Engines
  • 22.3: Second Law of Thermodynamics, Kelvin-Planck Statement
  • 22.4: The Most Efficient Engine
  • 22.5: Case Study: Refrigerators
  • 22.6: Entropy
  • 22.7: Second Law of Thermodynamics, General Statements
  • 22.8: Order and Disorder
  • 22.9: Entropy, Probability, and the Second Law
  • 22: General Problems
  • 22: PreLecture Explorations
  • 22: Integrated Tutorials
  • 22: Reading Comprehension
  • 22: Interactive Video Vignettes
  • 22: WebAssign Original Content
  
  
• Chapter 23: Electric Forces
  • 23.1: Another Fundamental Force
  • 23.2: Models of Electrical Phenomena
  • 23.3: A Qualitative Look at the Electrostatic Force
  • 23.4: Insulators and Conductors
  • 23.5: Coulomb's Law
  • 23.6: Applications of Coulomb's Law
  • 23: General Problems
  • 23: PreLecture Explorations
  • 23: Integrated Tutorials
  • 23: Reading Comprehension
  • 23: Interactive Video Vignettes
  • 23: WebAssign Original Content
  
  
• Chapter 24: Electric Fields
  • 24.1: What Are Fields?
  • 24.2: Special Case: Electric Field of a Charged Sphere
  • 24.3: Electric Field Lines
  • 24.4: Electric Field of a Collection of Charged Particles
  • 24.5: Electric Field of a Continuous Charge Distribution
  • 24.6: Special Cases of Continuous Distributions
  • 24.7: Case Study: The Shape of Lightning Rods
  • 24.8: Charged Particle in an Electric Field
  • 24.9: Special Case: Dipole in an Electric Field
  • 24: General Problems
  • 24: PreLecture Explorations
  • 24: Integrated Tutorials
  • 24: Reading Comprehension
  • 24: Interactive Video Vignettes
  • 24: WebAssign Original Content
  
  
• Chapter 25: Gauss's Law
  • 25.1: Qualitative Look at Gauss's Law
  • 25.2: Flux
  • 25.3: Gauss's Law
  • 25.4: Special Case: Linear Symmetry
  • 25.5: Special Case: Spherical Symmetry
  • 25.6: Special Case: Planar Symmetry
  • 25.7: Special Case: Conductors
  • 25: General Problems
  • 25: PreLecture Explorations
  • 25: Integrated Tutorials
  • 25: Reading Comprehension
  • 25: Interactive Video Vignettes
  • 25: WebAssign Original Content
  
  
• Chapter 26: Electric Potential
  • 26.1: Scalars Versus Vectors
  • 26.2: Gravity Analogy
  • 26.3: Electric Potential Energy U_E
  • 26.4: Electric Potential V
  • 26.5: Special Case: Electric Potential Due to a Collection of Charged Particles
  • 26.6: Electric Potential Due to a Continuous Distribution
  • 26.7: Connection Between Electric Field ⃗E and Electric Potential V
  • 26.8: Finding ⃗E from V
  • 26.9: Graphing E and V
  • 26: General Problems
  • 26: PreLecture Explorations
  • 26: Integrated Tutorials
  • 26: Reading Comprehension
  • 26: Interactive Video Vignettes
  • 26: WebAssign Original Content
  
  
• Chapter 27: Capacitors and Batteries
  • 27.1: The Leyden Jar
  • 27.2: Capacitors
  • 27.3: Batteries
  • 27.4: Capacitors in Parallel and Series
  • 27.5: Capacitance: Special Cases
  • 27.6: Dielectrics
  • 27.7: Energy Stored by a Capacitor with a Dielectric
  • 27.8: Gauss's Law in a Dielectric
  • 27: General Problems
  • 27: PreLecture Explorations
  • 27: Integrated Tutorials
  • 27: Reading Comprehension
  • 27: Interactive Video Vignettes
  • 27: WebAssign Original Content
  
  
• Chapter 28: Current and Resistance
  • 28.1: Microscopic Model of Charge Flow
  • 28.2: Current
  • 28.3: Current Density
  • 28.4: Resistivity and Conductivity
  • 28.5: Resistance and Resistors
  • 28.6: Ohm's Law
  • 28.7: Power in a Circuit
  • 28: General Problems
  • 28: PreLecture Explorations
  • 28: Integrated Tutorials
  • 28: Reading Comprehension
  • 28: Interactive Video Vignettes
  • 28: WebAssign Original Content
  
  
• Chapter 29: Direct Current (DC) Circuits
  • 29.1: Measuring Potential Differences Between Two Points
  • 29.2: Kirchhoff's Loop Rule
  • 29.3: Resistors in Series
  • 29.4: Kirchhoff's Junction Rule
  • 29.5: Resistors in Parallel
  • 29.6: Circuit Analysis
  • 29.7: DC Multimeters
  • 29.8: RC Circuits
  • 29: General Problems
  • 29: PreLecture Explorations
  • 29: Integrated Tutorials
  • 29: Reading Comprehension
  • 29: Interactive Video Vignettes
  • 29: WebAssign Original Content
  
  
• Chapter 30: Magnetic Fields and Forces
  • 30.1: Another Fundamental Force
  • 30.2: Revealing Magnetic Fields
  • 30.3: Ørsted's Discovery
  • 30.4: The Biot-Savart Law
  • 30.5: Using the Biot-Savart Law
  • 30.6: The Magnetic Dipole Moment and Modeling Atoms
  • 30.7: Ferromagnetic Materials
  • 30.8: Magnetic Force on a Charged Particle
  • 30.9: Motion of Charged Particles in a Magnetic Field
  • 30.10: Case Study: The Hall Effect
  • 30.11: Magnetic Force on a Current-Carrying Wire
  • 30.12: Force Between Two Long, Straight, Parallel Wires
  • 30.13: Current Loop in a Uniform Magnetic Field
  • 30: General Problems
  • 30: PreLecture Explorations
  • 30: Integrated Tutorials
  • 30: Reading Comprehension
  • 30: Interactive Video Vignettes
  • 30: WebAssign Original Content
  
  
• Chapter 31: Gauss's Law for Magnetism and Ampère's Law
  • 31.1: Measuring the Magnetic Field
  • 31.2: Gauss's Law for Magnetism
  • 31.3: Ampère's Law
  • 31.4: Special Case: Linear Symmetry
  • 31.5: Special Case: Solenoids
  • 31.6: Special Case: Toroids
  • 31.7: General Form of Ampère's Law
  • 31: General Problems
  • 31: PreLecture Explorations
  • 31: Integrated Tutorials
  • 31: Reading Comprehension
  • 31: Interactive Video Vignettes
  • 31: WebAssign Original Content
  
  
• Chapter 32: Faraday's Law of Induction
  • 32.1: Another Kind of Emf
  • 32.2: Faraday's Law
  • 32.3: Lenz's Law
  • 32.4: Lenz's Law and Conservation of Energy
  • 32.5: Case Study: Slide Generator
  • 32.6: Case Study: AC Generators
  • 32.7: Case Study: Faraday's Generator and Other DC Generators
  • 32.8: Case Study: Power Transmission and Transformers
  • 32: General Problems
  • 32: PreLecture Explorations
  • 32: Integrated Tutorials
  • 32: Reading Comprehension
  • 32: Interactive Video Vignettes
  • 32: WebAssign Original Content
  
  
• Chapter 33: Inductors and AC Circuits
  • 33.1: Inductors and Inductance
  • 33.2: Back Emf
  • 33.3: Special Case: Resistor–Inductor (RL) Circuit
  • 33.4: Energy Stored in a Magnetic Field
  • 33.5: Special Case: Inductor–Capacitor (LC) Circuit
  • 33.6: Special Case: AC Circuit with Resistance
  • 33.7: Special Case: AC Circuit with Capacitance
  • 33.8: Special Case: AC Circuit with Inductance
  • 33.9: Special Case: AC Circuit with Resistance, Inductance, and Capacitance
  • 33: General Problems
  • 33: PreLecture Explorations
  • 33: Integrated Tutorials
  • 33: Reading Comprehension
  • 33: Interactive Video Vignettes
  • 33: WebAssign Original Content
  
  
• Chapter 34: Maxwell's Equations and Electromagnetic Waves
  • 34.1: Light: One Last Classical Topic
  • 34.2: Generalized Form of Faraday's Law
  • 34.3: Five Equations of Electromagnetism
  • 34.4: Electromagnetic Waves
  • 34.5: The Electromagnetic Spectrum
  • 34.6: Energy and Intensity
  • 34.7: Momentum and Radiation Pressure
  • 34.8: Polarization
  • 34: General Problems
  • 34: PreLecture Explorations
  • 34: Integrated Tutorials
  • 34: Reading Comprehension
  • 34: Interactive Video Vignettes
  • 34: WebAssign Original Content
  
  
• Chapter 35: Diffraction and Interference
  • 35.1: Light Is a Wave
  • 35.2: Sound Wave Interference Revisited
  • 35.3: Young's Experiment: Position of the Fringes
  • 35.4: Single-Slit Diffraction
  • 35.5: Young's Experiment: Intensity
  • 35.6: Single-Slit Diffraction Intensity
  • 35.7: Double-Slit Diffraction
  • 35: General Problems
  • 35: PreLecture Explorations
  • 35: Integrated Tutorials
  • 35: Reading Comprehension
  • 35: Interactive Video Vignettes
  • 35: WebAssign Original Content
  
  
• Chapter 36: Applications of the Wave Model
  • 36.1: Implications of the Wave Model
  • 36.2: Circular Aperture Diffraction
  • 36.3: Thin-Film Interference
  • 36.4: Diffraction Gratings
  • 36.5: Dispersion and Resolving Power of Gratings
  • 36.6: Case Study: Michelson's Interferometer
  • 36: General Problems
  • 36: PreLecture Explorations
  • 36: Integrated Tutorials
  • 36: Reading Comprehension
  • 36: Interactive Video Vignettes
  • 36: WebAssign Original Content
  
  
• Chapter 37: Reflection and Images Formed by Reflection
  • 37.1: Geometric Optics
  • 37.2: Law of Reflection
  • 37.3: Images Formed by Plane Mirrors
  • 37.4: Spherical Mirrors
  • 37.5: Images Formed by Convex Mirrors
  • 37.6: Images Formed by Concave Mirrors
  • 37.7: Spherical Aberration
  • 37: General Problems
  • 37: PreLecture Explorations
  • 37: Integrated Tutorials
  • 37: Reading Comprehension
  • 37: Interactive Video Vignettes
  • 37: WebAssign Original Content
  
  
• Chapter 38: Refraction and Images Formed by Refraction
  • 38.1: Law of Refraction
  • 38.2: Total Internal Reflection
  • 38.3: Dispersion
  • 38.4: Refraction at Spherical Surfaces
  • 38.5: Thin Lenses
  • 38.6: Images Formed by Diverging Lenses
  • 38.7: Images Formed by Converging Lenses
  • 38.8: The Human Eye
  • 38.9: One-Lens Systems
  • 38.10: Multiple-Lens Systems
  • 38: General Problems
  • 38: PreLecture Explorations
  • 38: Integrated Tutorials
  • 38: Reading Comprehension
  • 38: Interactive Video Vignettes
  • 38: WebAssign Original Content
  
  
• Chapter 39: Relativity
  • 39.1: It's in the Eye of the Observer
  • 39.2: Special Case: Galilean Relativity
  • 39.3: Postulates of Special Relativity
  • 39.4: Lorentz Transformations
  • 39.5: Length Contraction
  • 39.6: Time Dilation
  • 39.7: The Relativistic Doppler Effect
  • 39.8: Velocity Transformation
  • 39.9: Mass and Momentum Transformation
  • 39.10: Newton's Second Law and Energy
  • 39.11: General Relativity
  • 39.12: Gravitational Lenses and Black Holes
  • 39: General Problems
  • 39: PreLecture Explorations
  • 39: Integrated Tutorials
  • 39: Reading Comprehension
  • 39: Interactive Video Vignettes
  • 39: WebAssign Original Content
  
  
• Chapter 40: The Origin of Quantum Physics
  • 40.1: Another Modern Idea
  • 40.2: Black-Body Radiation and the Ultraviolet Catastrophe
  • 40.3: The Photoelectric Effect
  • 40.4: The Compton Effect
  • 40.5: Wave-Particle Duality
  • 40.6: The Wave Properties of Matter
  • 40: General Problems
  • 40: PreLecture Explorations
  • 40: Integrated Tutorials
  • 40: Reading Comprehension
  • 40: Interactive Video Vignettes
  • 40: WebAssign Original Content
  
  
• Chapter 41: Schrödinger's Equation
  • 41.1: The New Quantum Theory
  • 41.2: A Trapped Particle
  • 41.3: The Double-Slit Experiment Revisited: Probability Waves
  • 41.4: Schrödinger's Equation
  • 41.5: Special Case: A Particle in an Infinite Square Well
  • 41.6: Special Case: A Particle in a Finite Square Well
  • 41.7: Barrier Tunneling
  • 41.8: Special Case: Quantum Simple Harmonic Oscillator
  • 41.9: Heisenberg's Uncertainty Principle
  • 41: General Problems
  • 41: PreLecture Explorations
  • 41: Integrated Tutorials
  • 41: Reading Comprehension
  • 41: Interactive Video Vignettes
  • 41: WebAssign Original Content
  
  
• Chapter 42: Atoms
  • 42.1: Early Atomic Models
  • 42.2: Rutherford's Model of the Atom
  • 42.3: Bohr's Model and Atomic Spectra
  • 42.4: De Broglie's Theory and Atoms
  • 42.5: Schrödinger's Equation Applied to Hydrogen
  • 42.6: Magnetic Dipole Moments and Spin
  • 42.7: Other Atoms
  • 42.8: Organizing Atoms
  • 42.9: The Zeeman Effect
  • 42.10: Practical Devices
  • 42: General Problems
  • 42: PreLecture Explorations
  • 42: Integrated Tutorials
  • 42: Reading Comprehension
  • 42: Interactive Video Vignettes
  • 42: WebAssign Original Content
  
  
• Chapter 43: Nuclear and Particle Physics
  • 43.1: Describing the Nucleus
  • 43.2: The Strong Force
  • 43.3: Models of Nuclei
  • 43.4: Radioactive Decay
  • 43.5: The Weak Force
  • 43.6: Binding Energy
  • 43.7: Fission Reactions
  • 43.8: Fusion Reactions
  • 43.9: Human Exposure to Radiation
  • 43.10: The Standard Model
  • 43: General Problems
  • 43: PreLecture Explorations
  • 43: Integrated Tutorials
  • 43: Reading Comprehension
  • 43: Interactive Video Vignettes
  • 43: WebAssign Original Content
  
  
• Chapter A: Mathematics
  • A.1: Algebra and Geometry
  • A.2: Trigonometry
  • A.3: Calculus
  • A.4: Propagation of Uncertainty
  
  
• Chapter B: Reference Tables
  • B.1: Symbols and Units
  • B.2: Conversion Factors
  • B.3: Some Astronomical Data
  • B.4: Rough Magnitudes and Scales
  
  
• Chapter Q1: Quick Prep: Keeping It in the Ballpark
  • Problem
  • Tutorials
  
  
• Chapter Q2: Quick Prep: The Motion of Objects Along a Line
  • Problem
  • Tutorials
  
  
• Chapter Q3: Quick Prep: Those Special Functions
  • Problem
  • Tutorials
  
  
• Chapter Q4: Quick Prep: Elements of Approximation and Graphing
  • Problem
  • Tutorials
  
  
• Chapter Q5: Quick Prep: Probability and Error
  • Problem
  • Tutorials
  
  
• Chapter Q6: Quick Prep: Return to Lineland
  • Problem
  • Tutorials
  
  
• Chapter Q7: Quick Prep: Vectors, Displacement, and Velocity
  • Problem
  • Tutorials
  
  
• Chapter Q8: Quick Prep: Life on a Sphere
  • Problem
  • Tutorials
  
  
• Chapter Q9: Quick Prep: Force
  • Problem
  • Tutorials
  
  
• Chapter Q10: Quick Prep: Vector Projections
  • Problem
  • Tutorials