VCE Physics study plan
VCE Physics · Give each week a clear focus.
8 weeks · About 6 hours per week
Unit 1
Define and apply the SI base units, prefixes, and significant-figure rules to at least 30 quantities without unit errors
Convert between scalar and vector descriptions of motion and resolve at least 15 two-dimensional vectors into components
Construct and interpret displacement-time and velocity-time graphs for five described motions, stating what the gradient and area represent
Derive and apply the constant-acceleration equations to solve 20 structured kinematics problems
Your checkpoint
A one-page formula and unit-convention sheet plus 20 worked kinematics problems scored against a self-marked answer key at 80% or better
Unit 1
Resolve forces on inclines and in equilibrium situations using free-body diagrams for at least 12 scenarios
Apply Newton's three laws to predict acceleration in multi-force situations and identify the reaction pair in each case
Calculate work, kinetic energy, gravitational potential energy, and power in at least 15 combined problems
Distinguish elastic from inelastic collisions and apply momentum conservation to two-object interactions
Your checkpoint
A set of 12 annotated free-body diagrams each paired with a fully worked force, energy, or momentum solution
Unit 1 & Unit 2
Describe wave properties including amplitude, wavelength, frequency, period, and speed, and apply the wave equation to 15 problems
Compare transverse and longitudinal waves and explain reflection, refraction, diffraction, and interference with labelled ray or wavefront sketches
Explain the photoelectric effect and calculate photon energy, threshold frequency, and stopping voltage
Relate the double-slit interference pattern spacing to wavelength, slit spacing, and screen distance
Your checkpoint
A four-page illustrated summary of wave behaviour and the photoelectric effect, including six fully solved calculations
Unit 2
Apply the laws of reflection and refraction, including Snell's law and total internal reflection, to 15 ray-tracing problems
Draw accurate ray diagrams for converging and diverging lenses and classify the resulting images
Use the lens and mirror equations to calculate image position, magnification, and orientation
Explain the operation of a basic optical instrument or fibre-optic system using total internal reflection
Your checkpoint
A timed 45-minute mixed mechanics-and-waves test completed under exam conditions and marked to a written error log
Unit 3
State and apply the laws of circular motion to calculate centripetal acceleration and force in at least 12 rotating systems
Analyse projectile motion by separating horizontal and vertical components and solve for range, time of flight, and maximum height
Explain the difference between inertial and non-inertial frames and describe apparent weight in accelerating frames
Apply conservation of energy and momentum to two-dimensional collisions and explosions
Your checkpoint
A worked portfolio of 10 circular-motion and projectile problems, each with a labelled diagram and a check of the final units
Unit 3
Describe gravitational fields as vector fields and calculate field strength and potential energy at a point
Apply Kepler's laws and Newton's law of universal gravitation to satellite and planetary orbits
Explain the origin of gravitational field lines and relate field strength to potential gradient
Solve problems involving orbital speed, period, and escape velocity for at least eight scenarios
Your checkpoint
A one-page orbital-mechanics reference sheet plus eight solved satellite and planet problems with numerical answers checked to two significant figures
Unit 4
Describe magnetic fields produced by currents and calculate the force on a current-carrying conductor in a magnetic field
Apply Faraday's and Lenz's laws to predict the direction and magnitude of induced currents in at least 10 changing-flux scenarios
Explain the operation of transformers and calculate voltage, current, and power ratios for ideal transformers
Relate electromagnetic induction to the generation and transmission of electrical energy in power grids
Your checkpoint
A two-page induction and transformer summary sheet with six fully worked problems and direction arrows on every induced-current diagram
Unit 1 & Unit 2 & Unit 3 & Unit 4
Consolidate all four domains by re-solving every item from the personal error log until each is correct without notes
Complete two full-length timed practice papers under exam conditions and record per-domain accuracy
Identify the two weakest sub-topics across the papers and write targeted remediation notes for each
Build a final one-page formula and constants sheet organised by domain
Your checkpoint
A completed score tracker showing per-domain accuracy for two full practice papers plus a one-page revision sheet covering all four domains
Milestones
Week 2: Score at least 75% on a self-made 25-question mechanics quiz covering kinematics, forces, energy, and momentum, with no unit or significant-figure errors
Week 4: Complete the timed mixed test in 45 minutes with at least 70% accuracy and a written error log listing every mistake by cause
Week 6: Solve five unseen circular-motion and gravitational-field problems cold, achieving at least 4 correct with full working shown
Week 8: Achieve at least 75% overall on both full practice papers with no domain below 65%, and have every error-log item resolved