Year 10 Physics

Students will differentiate between scalar and vector quantities, identifying examples and their applications in physics.

Students will define and calculate distance, displacement, speed, and velocity, understanding their relationships.

Students will calculate acceleration and apply kinematic equations to solve problems involving constant acceleration.

Students will interpret and draw distance-time and velocity-time graphs, extracting information about motion.

Students will identify different types of forces and draw free body diagrams to represent forces acting on an object.

Students will explore Newton's First Law of Motion, understanding inertia and its implications.

Students will apply Newton's Second Law to calculate force, mass, and acceleration in various scenarios.

Students will identify action-reaction pairs and explain their role in interactions between objects.

Students will differentiate between mass and weight, understanding their relationship and how they are measured.

Students will explain the concept of terminal velocity and the factors affecting drag forces.

Students will define momentum and impulse, and apply the impulse-momentum theorem.

Students will apply the principle of conservation of momentum to analyze collisions and explosions.

Students will analyze factors affecting stopping distance and relate them to road safety.

Students will define moments and apply the principle of moments to solve problems involving levers and equilibrium.

Students will understand the concept of centre of mass and its role in an object's stability.

Students will identify and describe different forms of energy and how energy is stored in various systems.

Students will explain how energy is transferred by heating, waves, electricity, and forces (work done).

Students will apply the principle of conservation of energy to various physical systems.

Students will calculate changes in kinetic, gravitational potential, and elastic potential energy.

Students will perform calculations involving specific heat capacity to determine energy changes or temperature changes.

Students will investigate methods of reducing unwanted energy transfers, focusing on thermal insulation.

Students will define power as the rate of energy transfer and perform related calculations.

Students will calculate the efficiency of energy transfers and discuss ways to improve it.

Students will explore various renewable energy sources, their advantages, and disadvantages.

Students will differentiate between transverse and longitudinal waves, identifying examples of each.

Students will define and measure amplitude, wavelength, frequency, and period of waves.

Students will apply the wave equation to calculate wave speed, frequency, or wavelength.

Students will describe and explain the phenomena of reflection, refraction, and diffraction of waves.

Students will identify the different regions of the electromagnetic spectrum and their common properties.

Students will investigate the practical applications and potential dangers of different EM waves.

Students will explore the properties of visible light and how the human eye perceives it.

Students will apply Snell's Law to calculate angles of incidence and refraction for light passing through different media.

Students will describe the properties of converging and diverging lenses and draw ray diagrams for image formation.

Students will explore the nature of sound waves, including their production, transmission, and characteristics.

Students will explain static electricity, charging by friction, and the forces between charges.

Students will define electric current as the rate of flow of charge and perform related calculations.

Students will define potential difference and its role in driving current through a circuit.

Students will define resistance and apply Ohm's Law to calculate current, voltage, or resistance.

Students will investigate and interpret the current-voltage characteristics of ohmic and non-ohmic components.

Students will analyze series circuits, calculating total resistance, current, and voltage distribution.

Students will analyze parallel circuits, calculating total resistance, current, and voltage distribution.

Students will calculate electrical power and the energy transferred by electrical appliances.

Students will differentiate between alternating current (AC) and direct current (DC) and their applications.

Students will understand the features of mains electricity, including the three-pin plug and safety devices.

Students will describe the properties of permanent magnets and map magnetic field patterns.

Students will investigate how electric currents create magnetic fields and the uses of electromagnets.

Students will explain the motor effect and use Fleming's Left-Hand Rule to determine force direction.

Students will understand the working principle of a simple DC electric motor.

Students will explain electromagnetic induction and the working of simple generators.

Students will understand the function of transformers in changing voltage and their role in power transmission.

Students will describe the arrangement and motion of particles in solids, liquids, and gases.

Students will calculate the density of regular and irregular solids and liquids.

Students will explain changes of state in terms of particle theory and energy changes.

Students will distinguish between internal energy and temperature, relating them to particle kinetic and potential energy.

Students will define latent heat and calculate the energy required for changes of state.

Students will explain gas pressure in terms of particle collisions and its relationship with temperature.

Students will apply Boyle's Law to solve problems involving the inverse relationship between pressure and volume of a gas.

Students will calculate pressure in liquids and understand the concept of atmospheric pressure.

Students will explain evaporation and condensation in terms of particle escape and capture.