What subchapters(Preface
Unit 1  Mechanics
Chapter 1  Units and Measurement
Introduction
1.1 The Scope and Scale of Physics
1.2 Units and Standards
1.3 Unit Conversion
1.4 Dimensional Analysis
1.5 Estimates and Fermi Calculations
1.6 Significant Figures
1.7 Solving Problems in Physics
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 2  Vectors
Introduction
2.1 Scalars and Vectors
2.2 Coordinate Systems and Components of a Vector
2.3 Algebra of Vectors
2.4 Products of Vectors
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 3  Motion Along a Straight Line
Introduction
3.1 Position, Displacement, and Average Velocity
3.2 Instantaneous Velocity and Speed
3.3 Average and Instantaneous Acceleration
3.4 Motion with Constant Acceleration
3.5 Free Fall
3.6 Finding Velocity and Displacement from Acceleration
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 4  Motion in Two and Three Dimensions
Introduction
4.1 Displacement and Velocity Vectors
4.2 Acceleration Vector
4.3 Projectile Motion
4.4 Uniform and Nonuniform Circular Motion
4.5 Relative Motion in One and Two Dimensions
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 5  Newton's Laws of Motion
Introduction
5.1 Forces
5.2 Newton's First Law
5.3 Newton's Second Law
5.4 Mass and Weight
5.5 Newton’s Third Law
5.6 Common Forces
5.7 Drawing Free-Body Diagrams
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 6  Applications of Newton's Laws
Introduction
6.1 Solving Problems with Newton’s Laws
6.2 Friction
6.3 Centripetal Force
6.4 Drag Force and Terminal Speed
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 7  Work and Kinetic Energy
Introduction
7.1 Work
7.2 Kinetic Energy
7.3 Work-Energy Theorem
7.4 Power
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 8  Potential Energy and Conservation of Energy
Introduction
8.1 Potential Energy of a System
8.2 Conservative and Non-Conservative Forces
8.3 Conservation of Energy
8.4 Potential Energy Diagrams and Stability
8.5 Sources of Energy
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Chapter 9  Linear Momentum and Collisions
Introduction
9.1 Linear Momentum
9.2 Impulse and Collisions
9.3 Conservation of Linear Momentum
9.4 Types of Collisions
9.5 Collisions in Multiple Dimensions
9.6 Center of Mass
9.7 Rocket Propulsion
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 10  Fixed-Axis Rotation
Introduction
10.1 Rotational Variables
10.2 Rotation with Constant Angular Acceleration
10.3 Relating Angular and Translational Quantities
10.4 Moment of Inertia and Rotational Kinetic Energy
10.5 Calculating Moments of Inertia
10.6 Torque
10.7 Newton’s Second Law for Rotation
10.8 Work and Power for Rotational Motion
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 11  Angular Momentum
Introduction
11.1 Rolling Motion
11.2 Angular Momentum
11.3 Conservation of Angular Momentum
11.4 Precession of a Gyroscope
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 12  Static Equilibrium and Elasticity
Introduction
12.1 Conditions for Static Equilibrium
12.2 Examples of Static Equilibrium
12.3 Stress, Strain, and Elastic Modulus
12.4 Elasticity and Plasticity
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 13  Gravitation
Introduction
13.1 Newton's Law of Universal Gravitation
13.2 Gravitation Near Earth's Surface
13.3 Gravitational Potential Energy and Total Energy
13.4 Satellite Orbits and Energy
13.5 Kepler's Laws of Planetary Motion
13.6 Tidal Forces
13.7 Einstein's Theory of Gravity
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 14  Fluid Mechanics
Introduction
14.1 Fluids, Density, and Pressure
14.2 Measuring Pressure
14.3 Pascal's Principle and Hydraulics
14.4 Archimedes’ Principle and Buoyancy
14.5 Fluid Dynamics
14.6 Bernoulli’s Equation
14.7 Viscosity and Turbulence
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Unit 2  Waves and Acoustics
Chapter 15  Oscillations
Introduction
15.1 Simple Harmonic Motion
15.2 Energy in Simple Harmonic Motion
15.3 Comparing Simple Harmonic Motion and Circular Motion
15.4 Pendulums
15.5 Damped Oscillations
15.6 Forced Oscillations
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 16  Waves
Introduction
16.1 Traveling Waves
16.2 Mathematics of Waves
16.3 Wave Speed on a Stretched String
16.4 Energy and Power of a Wave
16.5 Interference of Waves
16.6 Standing Waves and Resonance
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
Chapter 17  Sound
Introduction
17.1 Sound Waves
17.2 Speed of Sound
17.3 Sound Intensity
17.4 Normal Modes of a Standing Sound Wave
17.5 Sources of Musical Sound
17.6 Beats
17.7 The Doppler Effect
17.8 Shock Waves
Chapter Review
Key Terms
Key Equations
Summary
Conceptual Questions
Problems
Additional Problems
Challenge Problems
) from openstax University Physics do I need to use to learn these learning objectives?
TOPIC 5.2 Connecting Linear and Rotational Motion Required Course Content LEARNING OBJECTIVE 5.2.A Describe the linear motion of a point on a rotating rigid system that corresponds to the rotational motion of that point, and vice versa. ESSENTIAL KNOWLEDGE 5.2.A.1 For a point at a distance rfromafixedaxisof rotation, the linear distance s traveled by the point as the system rotates through an angle ∆θ is given by the equation ∆ =s r∆θ . 5.2.A.2 Derived relationships of linear velocity and of the tangential component of acceleration to their respective angular quantities are given by the following equations: s r = θ ω α = = v r a r T 5.2.A.3 For a rigid system, all points within that system have the same angular velocity and angular acceleration. SUGGESTED SKILLS 1.C Create qualitative sketches of graphs that represent features of a model or the behavior of the physical system. 2.A Derive a symbolic expression from known quantities by selecting and following a logical mathematical pathway. 2.C Compare physical quantities between two or more scenarios or at different times and/or locations within a single scenario. 3.B Apply an appropriate law, definition, theoretical relationship, or model to make a claim. BOUNDARY STATEMENT AP Physics C: Mechanics expects students to be able to mathematically manipulate the magnitudes of angular displacement, angular velocity, and angular acceleration using vector conventions. However, the directions of the vectors will not be assessed on the exam. Descriptions of the directions of rotational kinematics quantities for a point or rigid body are limited to clockwise and counterclockwise with respect to a given axis of rotation.