1. Matter

1.1 The Particle Model

1.1.1 Developing Models of the Atom

1.1.2 Atomic Structure

1.1.3 Density

1.1.4 Solids, Liquids & Gases

1.1.5 PAG: Determining Density

1.2 Changes of State

1.2.1 Changes of State

1.2.2 Heat Energy & Temperature

1.2.3 Specific Heat Capacity

1.2.4 Specific Latent Heat

1.2.5 PAG: Investigating Specific Heat Capacity

1.3 Pressure

1.3.1 Temperature & Pressure

2. Forces

2.1 Motion

2.1.1 Measuring Speed

2.1.2 Calculating Speed

2.1.3 SI Units

2.1.4 Scalars & Vectors

2.1.5 Graphs of Motion

2.1.6 Area Under Velocity-Time Graphs

2.1.7 Calculating Uniform Acceleration

2.2 Forces

2.2.1 Contact & Non-Contact Forces

2.2.2 Forces as Vectors

2.2.3 Free Body Diagrams

2.2.4 Balanced & Unbalanced Forces

2.2.5 Circular Motion

2.3 Newton's Laws

2.3.1 Newton’s First Law

2.3.2 Newton’s Second Law

2.3.3 PAG: Investigating Force & Acceleration

2.3.4 Newton’s Third Law

2.3.5 Inertia

2.3.6 Momentum

2.4 Work Done & Energy Transfer

2.4.1 Work Done

2.4.2 Energy Stores & Transfers

2.4.3 Power

2.5 Forces & Elasticity

2.5.1 Changing Shape

2.5.2 Hooke's Law

2.5.3 Force–Extension Graphs

2.5.4 Work Done on a Spring

2.5.5 PAG: Investigating Force & Extension

2.6 Forces in Action

2.6.1 Weight, Mass & Gravity

3. Electricity

3.1 Static & Charge

3.1.1 Electric Charge

3.1.2 Static Electricity

3.1.3 Charge & Current

3.2 Simple Circuits

3.2.1 Circuit Diagrams

3.2.2 Current, Resistance & Potential Difference

3.2.3 Resistors

3.2.4 I–V Graphs

3.2.5 PAG: Investigating I–V Characteristics

3.3 Series & Parallel Circuits

3.3.1 Series & Parallel Circuits

3.3.2 Resistors in Series & Parallel

3.3.3 PAG: Investigating Series & Parallel Circuits

3.3.4 Comparing Series & Parallel Circuits

3.3.5 Testing Series & Parallel Circuits

3.3.6 Electrical Power

3.3.7 Calculating Energy Transfers

4. Magnetism & Magnetic Fields

4.1 Magnets & Magnetic Fields

4.1.1 Magnetism

4.1.2 Permanent & Induced Magnets

4.1.3 Magnetic Fields

4.1.4 The Earth's Magnetic Field

4.1.5 Magnetic Fields in Wires & Solenoids

4.2 Uses of Magnetism

4.2.1 The Motor Effect

4.2.2 Fleming's Left-Hand Rule

4.2.3 Electric Motors

5. Waves in Matter

5.1 Wave Behaviour

5.1.1 Describing Wave Motion

5.1.2 The Wave Equation

5.1.3 Transverse & Longitudinal Waves

5.1.4 Measuring the Speed of Waves

5.1.5 PAG: Measuring Wave Properties

5.2 The Electromagnetic Spectrum

5.2.1 Properties of EM Waves

5.2.2 Electromagnetic (EM) Waves

5.2.3 Applications of EM Waves

5.2.4 Dangers of High-Energy EM Waves

5.2.5 Radio Waves

5.3 Wave Interactions

5.3.1 EM Waves & Matter

6. Radioactivity

6.1 Radioactive Emissions

6.1.1 Atomic Nuclei

6.1.2 The Absorption & Emission of EM Radiation

6.1.3 Nuclear Notation

6.1.4 Isotopes

6.1.5 Radioactive Decay

6.1.6 Decay Equations

6.1.7 Properties of Alpha, Beta & Gamma

6.1.8 Half-Life

6.1.9 Calculating Radioactive Decay

6.2 Uses & Hazards of Radiation

6.2.1 Contamination & Irradiation

7. Energy

7.1 Conservation of Energy

7.1.1 The Law of Conservation of Energy

7.1.2 Examples of Energy Transfer

7.1.3 Changes in Energy

7.1.4 KE, GPE & EPE

7.2 Power & Efficiency

7.2.1 Wasted Energy

7.2.2 Thermal Conductivity

7.2.3 PAG: Investigating Insulation

7.2.4 Efficiency

7.2.5 Improving Efficiency

7.2.6 Energy Transfers in Appliances

7.2.7 Power Ratings

8. Global Challenges

8.1 Physics on the Move

8.1.1 Estimating Speeds & Accelerations

8.1.2 Units & Calculations

8.1.3 Reaction Time

8.1.4 Factors Affecting Stopping Distance

8.2 Energy Resources & Power Transmission

8.2.1 Energy Resources

8.2.2 Comparing Energy Resources

8.2.3 The National Grid

8.2.4 Use of Transformers

8.2.5 AC & DC

8.2.6 Mains Electricity

8.2.7 Dangers of Mains Electricity