BGCSE Physics 1427 study plan
BGCSE Physics 1427 · Give each week a clear focus.
8 weeks · About 6 hours per week
Mechanics: kinematics, dynamics, forces, moments, work, energy, power and machines & Measurement and Practical Skills: SI units, instruments, errors and uncertainty, experimental technique and data analysis
Convert between SI base units and common prefixes (kilo, milli, micro, nano), and state the correct unit for each mechanical quantity.
Measure length, mass, time and temperature with a ruler, vernier caliper, balance, stopwatch and thermometer, recording each reading to the correct precision.
Distinguish scalar from vector quantities, and combine two perpendicular vectors by scale drawing and by Pythagoras.
Calculate average speed, velocity and acceleration from experimental data, and plot distance–time and velocity–time graphs.
Determine gradient and area under motion graphs to obtain velocity and displacement, and identify common random and systematic measurement errors.
Your checkpoint
A one-page practical report containing 10 instrument readings with absolute uncertainties, two motion graphs plotted from own data, and gradient/area calculations; self-check against a mark scheme with at least 8/10 correct.
Mechanics: kinematics, dynamics, forces, moments, work, energy, power and machines
Draw labelled free-body diagrams for objects on horizontal surfaces, inclined planes and hanging arrangements.
Apply Newton's second law (F = ma) to solve one- and two-body problems involving weight, friction and tension.
Calculate the moment of a force about a pivot and apply the principle of moments to balanced beams.
Determine whether a rigid body is in translational and rotational equilibrium using force and moment equations.
Describe how friction, air resistance and terminal velocity affect motion, using a labelled velocity–time sketch.
Your checkpoint
A worked problem set of 20 mixed force-and-moment questions, including 4 equilibrium beam problems, with full solutions; target at least 17/20.
Mechanics: kinematics, dynamics, forces, moments, work, energy, power and machines & Electricity and Magnetism: circuits, current, voltage, resistance, electrical energy, magnetism and electromagnetic effects
Calculate work done, kinetic energy, gravitational potential energy and power in mechanical systems.
Apply conservation of energy to falling objects, pendulums and inclined planes, accounting for friction losses.
Calculate efficiency and mechanical advantage of levers, pulleys and inclined planes.
Define electric current, potential difference and resistance, and use the equation V = IR.
Build and test a simple series circuit, measuring current and voltage with an ammeter and voltmeter connected correctly.
Your checkpoint
A 15-question energy-and-machines quiz plus a labelled circuit diagram and measured I–V table for one resistor; score at least 80% on the quiz.
Electricity and Magnetism: circuits, current, voltage, resistance, electrical energy, magnetism and electromagnetic effects
Calculate equivalent resistance for series and parallel combinations and solve combined circuit problems.
Measure current and voltage in series and parallel circuits and state the rules for each.
Calculate electrical power and energy using P = VI, P = I²R and E = Pt, including the cost of electricity.
Describe the effect of length, cross-sectional area, material and temperature on the resistance of a wire.
Interpret and apply current–voltage graphs for ohmic and non-ohmic components.
Your checkpoint
A circuit analysis portfolio: 8 solved circuits (4 series, 4 parallel) with equivalent resistance, currents and voltages, plus an energy-cost calculation for a household appliance.
Electricity and Magnetism: circuits, current, voltage, resistance, electrical energy, magnetism and electromagnetic effects & Waves, Sound and Optics: wave properties, reflection, refraction, lenses, mirrors and sound
Describe magnetic field patterns around a bar magnet, a straight current-carrying wire and a solenoid using field-line diagrams.
Apply Fleming's left-hand rule to predict the direction of force on a current-carrying conductor.
Explain electromagnetic induction and apply Fleming's right-hand rule and Lenz's law qualitatively to generators and transformers.
Define wavelength, frequency, amplitude, period and wave speed, and use v = fλ.
Distinguish transverse from longitudinal waves and describe evidence for wave behaviour.
Your checkpoint
A 12-mark diagram-and-explanation task covering three magnetic field patterns, force direction predictions and one induction example, plus 10 v = fλ calculations with at least 9 correct.
Waves, Sound and Optics: wave properties, reflection, refraction, lenses, mirrors and sound
Construct ray diagrams for plane mirrors, concave and convex mirrors, and converging and diverging lenses.
Apply the law of reflection and Snell's law to calculate angles of reflection and refraction, including refractive index.
Use the lens/mirror equation (1/f = 1/u + 1/v) and magnification to locate and describe images.
Describe sound as a longitudinal wave and explain pitch, loudness, echo and ultrasound applications.
Compare reflection, refraction, diffraction and dispersion using wavefront diagrams.
Your checkpoint
An optics portfolio with 8 accurate ray diagrams and 10 refraction/lens calculations, plus a 150-word explanation of an ultrasound or echo application; at least 8/10 calculations correct.
Thermal Physics: heat transfer, temperature, thermal expansion, specific heat capacity and changes of state
Convert between Celsius and kelvin and describe temperature in terms of the average kinetic energy of particles.
Explain conduction, convection and radiation with particle and energy models, and identify everyday examples.
Calculate thermal expansion of solids and describe practical consequences and precautions.
Apply Q = mcΔT to calculate heat energy, specific heat capacity and temperature change.
Interpret heating and cooling curves and calculate latent heat during changes of state using Q = mL.
Your checkpoint
A thermal physics practical write-up: specific heat capacity of a metal block or water, including data table, graph, gradient-based calculation, uncertainty discussion and comparison with an accepted value.
Atomic and Nuclear Physics: atomic structure, radioactivity, half-life and uses of nuclear radiation & Measurement and Practical Skills: SI units, instruments, errors and uncertainty, experimental technique and data analysis
Describe atomic structure, isotopes and the nature of alpha, beta and gamma radiation.
Balance nuclear decay equations and calculate half-life, activity and remaining mass after n half-lives.
Compare penetration, ionisation and safety precautions for alpha, beta and gamma radiation, and describe two medical or industrial uses.
Design a fair-test experiment, identify independent, dependent and control variables, and evaluate sources of random and systematic error.
Complete a full timed paper and review every error using a structured error log.
Your checkpoint
A full 90-minute mock paper covering all six domains, marked against a scheme, with a completed error log and a one-page revision sheet for the three weakest topics.
Milestones
Week 2: Closed-book 15-minute recall test on kinematics definitions, units, graph interpretation and moments: score at least 12/15.
Week 4: Timed 30-minute mechanics-and-circuits diagnostic (25 marks): score at least 20/25 and log every error by topic.
Week 6: Ten-minute ray-diagram and wave-equation check: draw 2 correct diagrams and solve 6/6 v = fλ problems.
Week 8: Full mock exam score at least 70% overall with no domain below 50%, and an error log completed with re-test dates.