- 1. MECHANICS - Units and Physical Quantities
- 1.1. The nature of physics
- 1.2. Solving Physics Problems
- 1.3. Idealized Models
- 1.4. Standards and Units
- 1.5. Fundamental units - Time
- 1.6. Fundamental units - Length
- 1.7. Fundamantal units - Mass
- 1.8. The seven fundamental units
- 1.9. Derived Units - 1
- 1.10. Derived Units - 2
- 1.11. Derived Units - 3
- 1.12. Metric System
- 2. MECHANICS - Motion along a straight line
- 2.1. Straight line motion, average and instantaneous velocity
- 2.2. Straight-line motion with constant acceleration
- 2.3. Average and Instantaneous acceleration
- 2.4. Freely Falling Bodies
- 2.5. Straight line motion with varying acceleration
- 3. MECHANICS - Motion in 2 and 3 dimensions
- 3.1. Position, velocity and acceleration vectors
- 3.2. Projectile Motion
- 3.3. Uniform and Nonuniform circular motion
- 3.4. Relative Velocity
- 4. MECHANICS - Newton's laws of motion
- 4.1. Force as a Vector
- 4.2. Newton’s First Law (net forces on a body)
- 4.3. Newton’s Second Law (Mass and Acceleration)
- 4.4. Newton’s Third Law
- 4.5. Weight
- 5. MECHANICS - Applying Newton’s Laws
- 5.1. sing Newton’s First Law
- 5.2. Using Newton’s Second Law
- 5.3. Friction and Fluid Resistance
- 5.4. Forces in circular motion
- 6. MECHANICS - Work and Kinetic Energy
- 6.1. Work done by a force
- 6.2. Kinetic Energy
- 6.3. The Work-Energy Theorem
- 6.4. Work done by varying force on a curved path
- 6.5. Power
- 7. MECHANICS – Potential energy and energy conversion
- 7.1. Gravitational and elastic potential energy
- 7.2. Mechanical energy is conserved
- 7.3. Mechanical energy is not conserved
- 7.4. Law of conservation of energy
- 7.5. Determining force from potential energy
- 8. MECHANICS – Momentum, Impulse and Collisions
- 8.1. Momentum of a particle
- 8.2. Impulse and momentum
- 8.3. Conservation of momentum
- 8.4. Collisions
- 8.5. Center of mass
- 8.6. Rocket propulsion
- 9. MECHANICS - Rotation of rigid bodies
- 9.1. Rotational kinematics
- 9.2. Relating linear and angular kinematics
- 9.3. Moment of inertia and rotational kinematics
- 9.4. Calculating the moment of inertia
- 10. MECHANICS - Dynamics of Rotational Motion
- 10.1. Torque
- 10.2. Rotational dynamics
- 10.3. Combined translation and rotation
- 10.4. Work done by a torque
- 10.5. Angular momentum
- 10.6. Rotational dynamics and angular momentum
- 11. MECHANICS - Equilibrium and Elasticity
- 11.1. Conditions of equilibrium
- 11.2. Stress, strain and Hooke's law
- 11.3. Tensile and compressive stress
- 11.4. Bulk stress
- 11.5. Shear stress
- 11.6. The limits of Hooke's law
- 12. MECHANICS - Fluid Mechanics
- 12.1. Density and pressure
- 12.2. Pressures in a fluid at rest
- 12.3. Buoyancy
- 12.4. Fluid flow
- 13. MECHANICS - Gravitation
- 13.1. Newton's law of gravitation
- 13.2. Gravitational forces, weight and gravitational potential energy
- 13.3. Orbits
- 13.4. Black holes
- 14. MECHANICS - Periodic motion
- 14.1. Periodic motion
- 14.2. Simple harmonic motion
- 14.3. Energy in simple harmonic motion
- 14.4. Angular simple harmonic motion
- 14.5. Simple pendulum
- 14.6. Physical pendulum
- 14.7. Damped oscillations
- 14.8. Forced oscillations amd resonance
- 15. WAVES/AUCOSTICS - Mechanical waves
- 15.1. Waves and their properties
- 15.2. Wave functions and wave dynamics
- 15.3. Wave power
- 15.4. Wave superposition
- 15.5. Standing waves on a string
- 16. WAVES/AUCOSTICS - Sound and Hearing
- 16.1. Sound waves
- 16.2. Intensity and sound intensity level
- 16.3. Standing sound waves
- 16.4. Interference
- 16.5. Beats
- 16.6. Doppler effect
- 16.7. Shock waves
- 17. THERMODYNAMICS - Temperature and Heat
- 17.1. Temperature and temperature scales
- 17.2. Thermal expansion and thermal stress
- 17.3. Heat, phase change and calorimetry
- 17.4. Conduction, convection and radiation
- 18. THERMODYNAMICS - Thermal properties of matter
- 18.1. Equations of state
- 18.2. Molecular properties of matter
- 18.3. Kinetic-molecular model of an ideal gas
- 18.4. Heat capacities
- 18.5. Molecular speeds
- 18.6. Phases of matter
- 19. THERMODYNAMICS - The first law of thermodynamics
- 19.1. Heat and work in thermodynamic processes
- 19.2. The first law of thermodynamics
- 19.3. Important kinds of thermodynamic processes
- 19.4. Thermodynamics of ideal gases
- 19.5. Adiabatic processes in ideal gases
- 20. THERMODYNAMICS - The second law of thermodynamics
- 20.1. Reversible and irreversible processes
- 20.2. Heat engines
- 20.3. The Otto cycle
- 20.4. Refrigerators
- 20.5. The second law of thermodynamics
- 20.6. The Carnot cycle
Chapters
1. MECHANICS - Units and Physical Quantities |
2. MECHANICS - Motion along a straight line |
3. MECHANICS - Motion in 2 and 3 dimensions |
4. MECHANICS - Newton's laws of motion |
5. MECHANICS - Applying Newton’s Laws |
6. MECHANICS - Work and Kinetic Energy |
7. MECHANICS – Potential energy and energy conversion |
8. MECHANICS – Momentum, Impulse and Collisions |
9. MECHANICS - Rotation of rigid bodies |
10. MECHANICS - Dynamics of Rotational Motion |
11. MECHANICS - Equilibrium and Elasticity |
12. MECHANICS - Fluid Mechanics |
13. MECHANICS - Gravitation |
14. MECHANICS - Periodic motion |
15. WAVES/AUCOSTICS - Mechanical waves |
16. WAVES/AUCOSTICS - Sound and Hearing |
17. THERMODYNAMICS - Temperature and Heat |
18. THERMODYNAMICS - Thermal properties of matter |
19. THERMODYNAMICS - The first law of thermodynamics |
20. THERMODYNAMICS - The second law of thermodynamics |