1. Key Concepts of Physics

1.1 Expressing Quantities & SI Units

1.1.1 Units & Prefixes

1.1.2 Conversions & Standard Form

2. Motion & Forces

2.1 Describing Motion

2.1.1 Scalars & Vectors

2.1.2 Speed

2.1.3 Velocity

2.1.4 Distance-Time Graphs

2.1.5 Acceleration

2.1.6 Calculating Uniform Acceleration

2.1.7 Velocity-Time Graphs

2.1.8 Area under a Velocity-Time Graph

2.1.9 Measuring Speed

2.2 Forces

2.2.1 Newton's First Law

2.2.2 Newton's Second Law

2.2.3 Core Practical: Investigating Force & Acceleration

2.2.4 Newton's Third Law

2.2.5 Weight, Mass & Gravity

2.2.6 Circular Motion

2.3 Momentum

2.3.1 Momentum

2.3.2 Conservation of Momentum

2.3.3 Force & Momentum

2.3.4 Mass & Inertia

2.4 Stopping Distances

2.4.1 Stopping Distances

2.4.2 Measuring Reaction Time

2.4.3 Factors Affecting Stopping Distance

3. Conservation of Energy

3.1 Conservation of Energy

3.1.1 Gravitational Potential Energy

3.1.2 Kinetic Energy

3.1.3 Conservation of Energy

3.1.4 Examples of Energy Transfers

3.2 Efficiency & Energy Resources

3.2.1 Wasted Energy

3.2.2 Conduction of Heat

3.2.3 Efficiency

3.2.4 Improving Efficiency

3.2.5 Energy Resources

4. Waves

4.1 Properties of Waves

4.1.1 Introduction to Waves

4.1.2 Describing Wave Motion

4.1.3 Transverse & Longitudinal Waves

4.1.4 The Wave Equation

4.1.5 Measuring Wave Speed

4.1.6 Refraction

4.1.7 Refraction & Speed

4.1.8 Wave Interactions & Wavelength

4.1.9 Core Practical: Investigating Wave Properties

5. Light & the Electromagnetic Spectrum

5.1 Electromagnetic Waves

5.1.1 Properties of Electromagnetic Waves

5.1.2 The Electromagnetic Spectrum

5.1.3 EM Waves & Matter

5.1.4 Dangers of High-Energy EM Waves

5.1.5 Applications of EM Waves

5.1.6 EM Waves & Atoms

5.1.7 Radio Waves

6. Radioactivity

6.1 Atomic Structure

6.1.1 Inside the Atom

6.1.2 Protons, Neutrons & Electrons

6.1.3 Atomic & Mass Number

6.1.4 Isotopes

6.1.5 Electron Structure

6.1.6 Positive Ions

6.1.7 Developing Models of the Atom

6.2 Radioactive Decay

6.2.1 Types of Radiation

6.2.2 Properties of Radiation

6.2.3 Background Radiation

6.2.4 Detecting Radiation

6.2.5 Beta Decay

6.2.6 Decay & Transformations

6.2.7 Nuclear Equations

6.2.8 The Random Nature of Decay

6.2.9 Activity & Decay

6.2.10 Half-Life

6.3 Uses & Dangers of Radiation

6.3.1 Dangers of Radiation

6.3.2 Contamination & Irradiation

7. Energy – Forces Doing Work

7.1 Work, Power & Efficiency

7.1.1 Energy Stores & Transfers

7.1.2 Changes in Energy

7.1.3 Work & Energy

7.1.4 GPE & KE

7.1.5 Dissipation of Energy

7.1.6 Power

7.1.7 Efficiency & Power

8. Forces & their Effects

8.1 Types of Forces

8.1.1 Contact & Non-Contact Forces

8.1.2 Force as a Vector

8.1.3 Scale Drawings

8.1.4 Free Body Diagrams

8.1.5 Balanced Forces

9. Electricity & Circuits

9.1 Current, Potential Difference & Resistance

9.1.1 Atomic Structure

9.1.2 Circuit Diagrams

9.1.3 Potential Difference

9.1.4 Current

9.1.5 Current in Circuits

9.1.6 Resistance

9.2 Components in Series & Parallel Circuits

9.2.1 Resistors in Series & Parallel

9.2.2 Comparing Series & Parallel Circuits

9.2.3 Electrical Components

9.2.4 Testing Components

9.2.5 Core Practical: Investigating & Testing Circuits

9.3 Energy Transfers in Circuits

9.3.1 Heating in Circuits

9.3.2 Reducing Heating in Circuits

9.3.3 Uses & Dangers of Electric Heating

9.3.4 Calculating Electric Energy

9.3.5 Energy & Power

9.3.6 Electricity & Power

9.3.7 Energy Transfers in Appliances

9.4 Mains Electricity

9.4.1 AC & DC

9.4.2 Mains Electricity

9.4.3 Dangers of Mains Electricity

10. Magnetism & the Motor Effect

10.1 Magnetism

10.1.1 Magnetism

10.1.2 Permanent & Induced Magnets

10.1.3 Magnetic Fields

10.1.4 The Earth's Magnetic Field

10.2 Electromagnetism & The Motor Effect

10.2.1 Magnetic Fields in Wires

10.2.2 Magnetic Fields in Solenoids

10.2.3 The Motor Effect

10.2.4 Fleming's Left Hand Rule

10.2.5 Calculating Magnetic Force

11. Electromagnetic Induction

11.1 Electromagnetic Induction

11.1.1 Factors Affecting EM Induction

11.1.2 Transformers

11.1.3 The National Grid

11.1.4 The Ideal Transformer Equation

12. Particle Model

12.1 States of Matter & Thermal Capacity

12.1.1 Density

12.1.2 Solids, Liquids & Gases

12.1.3 Core Practical: Determining Density

12.1.4 Changes of State

12.1.5 Thermal Energy

12.1.6 Specific Heat & Latent Heat

12.1.7 Specific Heat Capacity

12.1.8 Specific Latent Heat

12.1.9 Thermal Insulation

12.1.10 Core Practical: Investigating Specific Heat Capacity

12.2 Particle Model & Pressure

12.2.1 Kinetic Theory

12.2.2 Absolute Zero

13. Forces & Matter

13.1 Forces & Elasticity

13.1.1 Changing Shape

13.1.2 Hooke's Law

13.1.3 Elastic Potential Energy

13.1.4 Core Practical: Investigating Force & Extension