Course map

Motion in two dimensions

  • Newton's laws and circular motionUnit 3: Unit 3, Area of Study 1
    • Apply Newton's three laws to coplanar forces in one and two dimensions
    • Analyse horizontal circular motion on flat roads, banked tracks and strings
    • Find the forces at the top and bottom of a vertical circle
    LessonPractice
  • Projectile motionUnit 3: Unit 3, Area of Study 1
    • Resolve a launch velocity and treat horizontal and vertical motion separately
    • Find time of flight, range, maximum height and impact velocity
    • Describe how air resistance changes a projectile's path
    LessonPractice
  • Momentum, impulse, work and energyUnit 3: Unit 3, Area of Study 1
    • Apply conservation of momentum to collisions and explosions in one dimension
    • Use impulse and force-time reasoning in collisions
    • Find work from force and displacement and from force-distance graphs
    • Track kinetic, elastic and gravitational potential energy, and judge whether a collision is elastic
    LessonPractice

Fields and their effects

  • Field modelsUnit 3: Unit 3, Area of Study 2
    • Describe gravitational, electric and magnetic fields with a field model
    • Compare the fields of point masses and point charges with the inverse square law
    • Find the magnetic fields of magnets, wires, loops and solenoids
    • Classify fields as static or changing and uniform or non-uniform
    LessonPractice
  • Gravity and satellitesUnit 3: Unit 3, Area of Study 2
    • Calculate gravitational field strength and force at a distance
    • Find changes in gravitational potential energy from graph areas
    • Model satellites in circular orbits and find their speed, period and radius
    LessonPractice
  • Electric fields and chargesUnit 3: Unit 3, Area of Study 2
    • Use Coulomb's law and the field of a point charge
    • Find the field, force and work on a charge between parallel plates
    • Find the speed of a charge accelerated through a potential difference
    LessonPractice
  • Magnetic forces, motors and acceleratorsUnit 3: Unit 3, Area of Study 2
    • Find the size and direction of the force on a moving charge and on a current
    • Calculate the radius of a charged particle's path in a magnetic field
    • Explain how a DC motor and its commutator work, and what changes its torque
    • Model a synchrotron with electric and magnetic fields
    LessonPractice

Generating and transmitting electricity

  • Induction and generatorsUnit 3: Unit 3, Area of Study 3
    • Calculate magnetic flux and describe the effect of angle
    • Calculate induced emf and find the direction of an induced current
    • Compare DC generators and alternators
    • Explain how photovoltaic cells and inverters supply a home
    LessonPractice
  • AC, transformers and transmissionUnit 3: Unit 3, Area of Study 3
    • Read the frequency, period, peak and peak-to-peak values of AC
    • Convert between peak and RMS values and compare AC with DC power
    • Calculate voltages and currents in ideal transformers
    • Calculate transmission losses and explain high-voltage transmission
    LessonPractice

Light and matter

  • Light as a waveUnit 4: Unit 4, Area of Study 1
    • Describe light as an electromagnetic wave travelling at c
    • Explain standing waves and find their wavelengths
    • Explain diffraction with the wavelength to gap ratio
    • Analyse Young's double slit experiment
    LessonPractice
  • Photons and the photoelectric effectUnit 4: Unit 4, Area of Study 1
    • Calculate photon energies in joules and electron-volts
    • Analyse photoelectric graphs: threshold frequency, work function and stopping voltage
    • Explain why the photoelectric effect needs the particle model of light
    LessonPractice
  • Matter waves and atomic spectraUnit 4: Unit 4, Area of Study 1
    • Calculate de Broglie wavelengths and compare photon and electron momentum
    • Interpret electron diffraction as evidence that matter behaves as a wave
    • Explain emission and absorption spectra with energy levels
    • Interpret single-photon and electron double slit experiments
    LessonPractice

Special relativity

  • Special relativityUnit 4: Unit 4, Area of Study 1
    • State Einstein's postulates and the meaning of the Michelson-Morley result
    • Identify proper time and proper length and apply time dilation and length contraction
    • Explain muons, accelerator design and GPS corrections
    • Calculate rest energy, total energy and relativistic kinetic energy
    LessonPractice

Key science skills

  • Key science skills and investigationsUnit 3 and Unit 4: Key science skills; Unit 4, Area of Study 2
    • Identify variables, controls and a suitable method
    • Distinguish accuracy, precision, repeatability, reproducibility and validity, and kinds of error
    • Linearise data and find the meaning of a gradient or intercept
    • Judge how far evidence supports a conclusion
    LessonPractice

The examination

  • The examinationUnit 3 and Unit 4
    • Know the examination: sections, marks, time, the formula sheet, notes and the calculator
    • Write Section B answers that show working, units, significant figures and clear explanations
    • Know that School-assessed Coursework is set by your school
    LessonPractice

VCE Physics Units 3 and 4. The examination covers Unit 3 and Unit 4. School-assessed Coursework is set by your school, so it is described in a lesson rather than practised here.

Independent preparation for VCE Physics Units 3 and 4. Not affiliated with or endorsed by the Victorian Curriculum and Assessment Authority (VCAA).

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