1. Motion, Forces, and Energy1.1 Physical Quantities and Measurement Techniques0/01.1.1 Length and Volume Measurement Techniques1.1.2 Time Measurement Strategies1.1.3 Averaging and Error Analysis in Physics1.1.4 Scalar and Vector Quantities in Physics1.1.5 Vector Addition and Resolution1.2 Motion0/01.2.1 Speed and Velocity: Essential Concepts in Motion1.2.2 Motion Representation on Graphs1.2.3 Graphs and Motion Calculations1.2.4 Acceleration Concepts in Physics1.2.5 Gravitational Motion1.3 Mass and Weight0/01.3.1 Mass vs Weight in Physics1.3.2 Gravitational Field Strength1.3.3 Measurement Techniques1.3.4 Weight and Gravity1.4 Density0/01.4.1 Understanding Density1.4.2 Determining Density1.4.3 Density and Buoyancy1.5 Forces0/01.5.1 Effects of Forces1.5.2 Understanding Friction1.5.3 Spring Constant and Elasticity1.5.4 Motion in Circular Paths1.5.5 Turning Effect of Forces1.5.6 Centre of Gravity in Physics1.6 Momentum0/01.6.1 Understanding Momentum in Physics1.6.2 Impulse and Momentum Change1.6.3 Conservation of Momentum 1.7 Energy, Work and Power0/01.7.1 Energy, Work and Power: Forms of Energy and Energy Transfer1.7.2 Kinetic and Potential Energy1.7.3 Work Done in Physics1.7.4 Energy Resources1.7.5 Understanding Efficiency in Energy and Power1.7.6 Power Concepts in Physics1.8 Pressure0/01.8.1 Understanding Pressure in Physics1.8.2 Pressure in Everyday Context1.8.3 Pressure in Liquids1.8.4 Calculating Pressure Changes in Liquids1. Motion, Forces, and Energy1.1 Physical Quantities and Measurement Techniques0/01.1.1 Length and Volume Measurement Techniques1.1.2 Time Measurement Strategies1.1.3 Averaging and Error Analysis in Physics1.1.4 Scalar and Vector Quantities in Physics1.1.5 Vector Addition and Resolution1.2 Motion0/01.2.1 Speed and Velocity: Essential Concepts in Motion1.2.2 Motion Representation on Graphs1.2.3 Graphs and Motion Calculations1.2.4 Acceleration Concepts in Physics1.2.5 Gravitational Motion1.3 Mass and Weight0/01.3.1 Mass vs Weight in Physics1.3.2 Gravitational Field Strength1.3.3 Measurement Techniques1.3.4 Weight and Gravity1.4 Density0/01.4.1 Understanding Density1.4.2 Determining Density1.4.3 Density and Buoyancy1.5 Forces0/01.5.1 Effects of Forces1.5.2 Understanding Friction1.5.3 Spring Constant and Elasticity1.5.4 Motion in Circular Paths1.5.5 Turning Effect of Forces1.5.6 Centre of Gravity in Physics1.6 Momentum0/01.6.1 Understanding Momentum in Physics1.6.2 Impulse and Momentum Change1.6.3 Conservation of Momentum 1.7 Energy, Work and Power0/01.7.1 Energy, Work and Power: Forms of Energy and Energy Transfer1.7.2 Kinetic and Potential Energy1.7.3 Work Done in Physics1.7.4 Energy Resources1.7.5 Understanding Efficiency in Energy and Power1.7.6 Power Concepts in Physics1.8 Pressure0/01.8.1 Understanding Pressure in Physics1.8.2 Pressure in Everyday Context1.8.3 Pressure in Liquids1.8.4 Calculating Pressure Changes in Liquids2. Thermal Physics2.1 Kinetic Particle Model of Matter0/02.1.1 Characteristics of States of Matter2.1.2 Particle Dynamics in Different States2.1.3 Gas Behaviour and Brownian Motion2.1.4 Temperature and Pressure in Gases2.1.5 Absolute Temperature Scale and Gas Laws 2.2 Thermal Properties and Temperature0/02.2.2 Particle Theory and Thermal Expansion2.2.3 Specific Heat Capacity: Theory and Formula2.2.4 Experimentation in Specific Heat Capacity2.2.5 Understanding Melting and Boiling2.2.6 Evaporation Dynamics2.3 Transfer of Thermal Energy0/02.3.1 Conduction Mechanisms2.3.2 Convection Processes2.3.3 Thermal Radiation Insights2.3.4 Radiation and Temperature Equilibrium2.3.5 Radiation Experiments in Thermal Energy Transfer2.3.6 Applications of Thermal Energy Transfer2. Thermal Physics2.1 Kinetic Particle Model of Matter0/02.1.1 Characteristics of States of Matter2.1.2 Particle Dynamics in Different States2.1.3 Gas Behaviour and Brownian Motion2.1.4 Temperature and Pressure in Gases2.1.5 Absolute Temperature Scale and Gas Laws 2.2 Thermal Properties and Temperature0/02.2.2 Particle Theory and Thermal Expansion2.2.3 Specific Heat Capacity: Theory and Formula2.2.4 Experimentation in Specific Heat Capacity2.2.5 Understanding Melting and Boiling2.2.6 Evaporation Dynamics2.3 Transfer of Thermal Energy0/02.3.1 Conduction Mechanisms2.3.2 Convection Processes2.3.3 Thermal Radiation Insights2.3.4 Radiation and Temperature Equilibrium2.3.5 Radiation Experiments in Thermal Energy Transfer2.3.6 Applications of Thermal Energy Transfer3. Waves3.1 General Properties of Waves0/03.1.1 Energy Transfer in Waves3.1.2 General Properties of Waves: Wave Features and Terminology3.1.3 Types of Waves3.1.4 Wave Behavior and Interactions3.1.5 Utilizing Ripple Tanks in Wave Studies3.1.6 Exploring Diffraction3.2 Light0/03.2.1 Reflection of Light3.2.2 Refraction of Light3.2.3 Thin Lenses in Physics3.2.4 Dispersion of Light3.3 Electromagnetic Spectrum0/03.3.1 Electromagnetic Spectrum Overview3.3.2 Electromagnetic Spectrum: Uses and Effects of Electromagnetic Waves3.3.3 Digital and Analogue Signals3.4 Sound0/03.4.1 Production and Nature of Sound3.4.2 Human Auditory Range3.4.3 Medium for Sound Transmission3.4.4 Speed of Sound in Different Mediums3.4.5 Sound Characteristics3.4.6 Ultrasound: Exploring High-Frequency Sound Waves Beyond Human Hearing3. Waves3.1 General Properties of Waves0/03.1.1 Energy Transfer in Waves3.1.2 General Properties of Waves: Wave Features and Terminology3.1.3 Types of Waves3.1.4 Wave Behavior and Interactions3.1.5 Utilizing Ripple Tanks in Wave Studies3.1.6 Exploring Diffraction3.2 Light0/03.2.1 Reflection of Light3.2.2 Refraction of Light3.2.3 Thin Lenses in Physics3.2.4 Dispersion of Light3.3 Electromagnetic Spectrum0/03.3.1 Electromagnetic Spectrum Overview3.3.2 Electromagnetic Spectrum: Uses and Effects of Electromagnetic Waves3.3.3 Digital and Analogue Signals3.4 Sound0/03.4.1 Production and Nature of Sound3.4.2 Human Auditory Range3.4.3 Medium for Sound Transmission3.4.4 Speed of Sound in Different Mediums3.4.5 Sound Characteristics3.4.6 Ultrasound: Exploring High-Frequency Sound Waves Beyond Human Hearing4. Electricity and MagnetismPremium4.1 Simple Phenomena of Magnetism0/04.1.1 Magnetic Forces and Poles4.1.2 Induced Magnetism4.1.3 Types of Magnets4.1.4 Magnetic Fields4.1.5 Applications of Magnets4.2 Electrical Quantities0/04.2.1 Electric Charge4.2.2 Electric Fields4.2.3 Electric Current: The Flow of Charge4.2.4 Electromotive Force and Potential Difference4.2.5 Understanding Resistance in Electrical Circuits4.2.6 Electrical Energy and Power in Electric Circuits4.3 Electric Circuits0/04.3.1 Circuit Diagrams and Components4.3.2 Series and Parallel Circuits4.3.3 Circuit Components and Their Actions4.4 Electrical Safety0/04.4.1 Electrical Hazards4.4.2 Mains Circuits and Switches4.4.3 Safety Devices in Electrical Systems4.4.4 Appliance Safety Measures4.5 Electromagnetic Effects0/04.5.1 Fundamentals of Electromagnetic Induction4.5.2 Practical Applications of Induction4.5.3 A.C. Generator Mechanics and Outputs4.5.4 Magnetic Influence of Electric Currents4.5.5 Interactions in Magnetic Fields4.5.6 Dynamics of D.C. Motors4.5.7 Transformer Technology4. Electricity and MagnetismPremium4.1 Simple Phenomena of Magnetism0/04.1.1 Magnetic Forces and Poles4.1.2 Induced Magnetism4.1.3 Types of Magnets4.1.4 Magnetic Fields4.1.5 Applications of Magnets4.2 Electrical Quantities0/04.2.1 Electric Charge4.2.2 Electric Fields4.2.3 Electric Current: The Flow of Charge4.2.4 Electromotive Force and Potential Difference4.2.5 Understanding Resistance in Electrical Circuits4.2.6 Electrical Energy and Power in Electric Circuits4.3 Electric Circuits0/04.3.1 Circuit Diagrams and Components4.3.2 Series and Parallel Circuits4.3.3 Circuit Components and Their Actions4.4 Electrical Safety0/04.4.1 Electrical Hazards4.4.2 Mains Circuits and Switches4.4.3 Safety Devices in Electrical Systems4.4.4 Appliance Safety Measures4.5 Electromagnetic Effects0/04.5.1 Fundamentals of Electromagnetic Induction4.5.2 Practical Applications of Induction4.5.3 A.C. Generator Mechanics and Outputs4.5.4 Magnetic Influence of Electric Currents4.5.5 Interactions in Magnetic Fields4.5.6 Dynamics of D.C. Motors4.5.7 Transformer Technology5. Nuclear PhysicsPremium5.1 The Nuclear Model of the Atom0/05.1.1 Fundamentals of Atomic Structure5.1.2 The Nuclear Model of the Atom: Alpha Particle Scattering Experiment5.1.3 Composition and Characteristics of the Nucleus5.1.4 Concept of Isotopes5.1.5 Nuclear Reactions: Fission and Fusion5.1.6 Proton Number and Nucleon Number Implications5.2 Radioactivity0/05.2.1 Understanding Background Radiation5.2.2 Characterizing Nuclear Emissions5.2.3 Radioactive Decay Processes5.2.4 Practical Applications of Half-life in Radioactivity5.2.5 Radioactivity in Society: Safety and Applications5. Nuclear PhysicsPremium5.1 The Nuclear Model of the Atom0/05.1.1 Fundamentals of Atomic Structure5.1.2 The Nuclear Model of the Atom: Alpha Particle Scattering Experiment5.1.3 Composition and Characteristics of the Nucleus5.1.4 Concept of Isotopes5.1.5 Nuclear Reactions: Fission and Fusion5.1.6 Proton Number and Nucleon Number Implications5.2 Radioactivity0/05.2.1 Understanding Background Radiation5.2.2 Characterizing Nuclear Emissions5.2.3 Radioactive Decay Processes5.2.4 Practical Applications of Half-life in Radioactivity5.2.5 Radioactivity in Society: Safety and Applications6. Space PhysicsPremium6.1 Earth and the Solar System0/06.1.1 Earth's Rotational Dynamics6.1.2 Earth's Orbital Characteristics6.1.3 Lunar Orbit and Phases6.1.4 Calculating Orbital Speed6.1.5 Composition of the Solar System6.1.6 Planetary Types and Accretion Theory6.1.7 Gravitational Influence of Planets6.1.8 Light Travel Time in the Solar System6.1.9 The Sun's Gravitational Role in the Solar System6.1.10 Elliptical Planetary Orbits6.2 Stars and the Universe0/06.2.1 Characteristics of the Sun6.2.2 Nuclear Fusion in Stars6.2.3 Structure of Galaxies6.2.4 The Life Cycle of Stars6.2.5 The Expanding Universe6.2.6 Cosmic Microwave Background Radiation (CMBR)6.2.7 Galactic Motion and Redshift6.2.8 The Hubble Constant and Estimating Universe's Age6. Space PhysicsPremium6.1 Earth and the Solar System0/06.1.1 Earth's Rotational Dynamics6.1.2 Earth's Orbital Characteristics6.1.3 Lunar Orbit and Phases6.1.4 Calculating Orbital Speed6.1.5 Composition of the Solar System6.1.6 Planetary Types and Accretion Theory6.1.7 Gravitational Influence of Planets6.1.8 Light Travel Time in the Solar System6.1.9 The Sun's Gravitational Role in the Solar System6.1.10 Elliptical Planetary Orbits6.2 Stars and the Universe0/06.2.1 Characteristics of the Sun6.2.2 Nuclear Fusion in Stars6.2.3 Structure of Galaxies6.2.4 The Life Cycle of Stars6.2.5 The Expanding Universe6.2.6 Cosmic Microwave Background Radiation (CMBR)6.2.7 Galactic Motion and Redshift6.2.8 The Hubble Constant and Estimating Universe's Age