CCEA
Level 3
QN: 601/8519/3
Curriculum Active
CCEA Level 3 Advanced GCE in Physics
Official qualification regulated by Ofqual, awarded by CCEA. Classified as a GCE A Level.
Qualification Level
Level 3
Awarding Body
CCEA
Syllabus Units
6 Units
Guided Hours
Flexible
Instant access to interactive lessons, quizzes, and spaced revision.
Course Syllabus & Study Modules
Complete breakdown of verified curriculum topics and learning objectives.
1
Electricity and Magnetism
Capacitance
Verified
Key Learning Objectives:
- Define capacitance as the charge stored per unit potential difference and recall its unit, the farad.
- Calculate the energy stored in a capacitor using the equations W = ½QV, W = ½CV², and W = ½Q²/C.
- Analyse the exponential variation of current and voltage in RC circuits during charging and discharging.
- Derive and apply the exponential equations for capacitor discharge, such as Q = Q₀e^(-t/RC).
- Determine the time constant of an RC circuit from graphical data and understand its significance.
2
Electricity and Magnetism
Electric Current and Circuits
Verified
Key Learning Objectives:
- Define electric current as the rate of flow of charge and recall its unit
- Distinguish between electromotive force and terminal potential difference
- Apply Ohm's law to calculate resistance, current, or voltage in simple circuits
- Calculate the power dissipated by a resistor using appropriate power formulae
- Analyse series circuits to determine total resistance and voltage division
- Analyse parallel circuits to determine total resistance and current division
3
Electricity and Magnetism
Electromagnetism
Verified
Key Learning Objectives:
- Describe magnetic fields due to currents
- Calculate force on a current-carrying conductor in a magnetic field
4
Fields and Their Applications
Electric Fields
Verified
Key Learning Objectives:
- Define electric field strength as force per unit positive charge.
- Define electric potential as work done per unit positive charge moving from infinity to a point.
- Calculate the force between two point charges using Coulomb's law.
- Determine the resultant force on a charge due to multiple point charges using vector addition.
- Apply the relationship E = F/q for uniform electric fields.
- Relate electric field strength to potential gradient in a uniform field (E = V/d).
5
Fields and Their Applications
Gravitational Fields
Verified
Key Learning Objectives:
- Define gravitational field strength as force per unit mass and gravitational potential as work done per unit mass
- Apply Newton's law of gravitation to calculate forces between point masses
- Sketch and interpret gravitational field lines and equipotential surfaces for a point mass
- Derive expressions for orbital period and velocity of satellites using gravitational and centripetal forces
- Analyze gravitational potential energy changes when moving masses between points in a field
- Explain the significance of the inverse square law and the zero potential at infinity
6
Fields and Their Applications
Magnetic Fields
Verified
Key Learning Objectives:
- Define magnetic flux density and magnetic flux, and distinguish between the two concepts.
- Apply the Biot–Savart law to determine the magnetic field due to a current element.
- Derive the expression for the magnetic field around a long straight conductor using the Biot–Savart law.
- Calculate the magnetic field along the axis of a circular coil and a solenoid.
- Analyse the direction of magnetic fields using the right-hand grip rule and vector cross product.
- Evaluate the limitations of the Biot–Savart law for time-varying fields.
7
Forces and Motion
Dynamics
Verified
Key Learning Objectives:
- Apply Newton's laws of motion
- Solve problems involving forces, mass, and acceleration
8
Forces and Motion
Kinematics
Verified
Key Learning Objectives:
- Define and differentiate between the vector quantities displacement, velocity, and acceleration and their scalar counterparts.
- Derive and apply the equations of uniformly accelerated motion to solve one-dimensional problems.
- Interpret displacement-time, velocity-time, and acceleration-time graphs, extracting instant and average values.
- Sketch accurate motion graphs for objects with constant and varying acceleration, including changes in direction.
- Calculate displacement and velocity from the area under and gradient of motion graphs, respectively.
- Analyse vertical motion under gravity using kinematic equations, incorporating sign conventions.
9
Forces and Motion
Momentum
Verified
Key Learning Objectives:
- Define momentum and impulse in terms of mass, velocity, force, and time.
- Apply the principle of conservation of momentum to solve problems involving collisions and explosions in one dimension.
- Distinguish between elastic and inelastic collisions through the evaluation of kinetic energy changes.
- Analyse force-time graphs to determine impulse and average force.
10
Forces and Motion
Work, Energy and Power
Verified
Key Learning Objectives:
- Calculate work done, kinetic energy, gravitational potential energy
- Apply the principle of conservation of energy
11
Nuclear and Particle Physics
Nuclear Structure and Energy
Verified
Key Learning Objectives:
- Calculate mass defect for a given nucleus from tabulated masses.
- Derive binding energy from mass defect using Einstein's mass-energy equivalence.
- Interpret the binding energy per nucleon graph to predict spontaneous fission or fusion tendencies.
- Describe the mechanism of neutron-induced fission, including the emission of delayed neutrons.
- Explain the conditions of temperature and pressure necessary for sustained nuclear fusion.
- Compare the energy released per nucleon in fission and fusion processes.
12
Nuclear and Particle Physics
Particle Physics
Verified
Key Learning Objectives:
- Classify particles: hadrons, leptons, quarks
- Apply conservation laws in particle interactions
13
Nuclear and Particle Physics
Radioactivity
Verified
Key Learning Objectives:
- Describe the properties and mechanisms of alpha, beta, and gamma decay, including changes in atomic and mass numbers.
- Apply the radioactive decay law (N = N0 e^{-λt}) to calculate the number of undecayed nuclei, activity, or half-life.
- Determine the half-life of a radioactive substance from decay data or graphs.
- Explain the concept of activity and its measurement in becquerels.
- Solve problems involving radioactive decay and exponential decay models.
- Evaluate the hazards and safety precautions associated with different types of radiation.
14
Practical Skills and Synoptic Assessment
Experimental Design and Analysis
Verified
Key Learning Objectives:
- Design a valid experimental procedure to test a given hypothesis, identifying independent, dependent, and control variables.
- Apply appropriate safety precautions and risk assessments for practical work involving common hazards.
- Select and use apparatus to achieve an appropriate level of precision, considering instrument limitations and calibration.
- Construct and interpret graphs with linear and non-linear trends, including determination of gradients and intercepts.
- Calculate absolute, fractional, and percentage uncertainties from measurements and combine them using standard error propagation rules.
- Evaluate the reliability and accuracy of experimental results by comparing measured values with accepted standards and discussing sources of systematic and random error.
15
Practical Skills and Synoptic Assessment
Synoptic Questions
Verified
Key Learning Objectives:
- Integrate knowledge from different topics
- Solve multi-step problems
16
Thermal Physics and Gases
Gas Laws
Verified
Key Learning Objectives:
- Describe Boyle's, Charles', and Gay-Lussac's laws
- Explain the kinetic model of an ideal gas
17
Thermal Physics and Gases
Temperature and Heat
Verified
Key Learning Objectives:
- Define specific heat capacity and specific latent heat
- Apply the equation Q = mcΔθ to calculate thermal energy transfer
- Apply the equation Q = ml to calculate energy during phase changes
- Solve problems using the ideal gas equation pV = nRT
- Explain the difference between heat and temperature
- Convert between Celsius and Kelvin temperature scales
18
Waves and Optics
Refraction and Reflection
Verified
Key Learning Objectives:
- Apply Snell's law to calculate angles of incidence and refraction at plane boundaries
- Explain total internal reflection and derive the critical angle from refractive indices
- Calculate the critical angle for a given pair of media
- Describe how optical fibres utilise total internal reflection for efficient light transmission
- Analyse the limitations of Snell's law in cases involving dispersion and varying refractive indices
- Design simple experiments to verify Snell's law and measure critical angles
- Evaluate the conditions necessary for total internal reflection to occur in real-world scenarios
19
Waves and Optics
Superposition and Interference
Verified
Key Learning Objectives:
- Explain superposition principle
- Describe conditions for constructive and destructive interference
20
Waves and Optics
Wave Properties
Verified
Key Learning Objectives:
- Define amplitude, wavelength, frequency, and speed for periodic waves
- Apply the wave equation v=fλ to solve problems involving wave parameters
- Interpret displacement-time and displacement-position graphs to extract wave characteristics
- Distinguish between transverse and longitudinal waves in terms of particle motion relative to energy propagation
- Identify examples of transverse and longitudinal waves, such as electromagnetic waves and sound
- Explain why the speed of a wave depends on the medium and not on frequency or amplitude
Regulatory & Verification Details
- Qualification Number (QN)
- 601/8519/3
- Regulated Status
- Available to learners
- Awarding Body
- CCEA
- Qualification Type
- GCE A Level
- Operational Start
- Sept 2016
- Operational End
- Aug 2029