WACE ATAR Physics study plan

Derive and apply the constant-acceleration kinematic equations to multi-stage motion problems, including vertical projectile motion.

Construct free-body diagrams for inclined planes, connected masses, and circular motion, then resolve forces into components to write Newton's second law equations.

Distinguish and calculate work, kinetic energy, gravitational potential energy, and power in systems with friction and non-conservative forces.

State and apply conservation of momentum to one-dimensional collisions and explosions, classifying each as elastic or inelastic.

Describe wave properties (amplitude, wavelength, frequency, period, speed) and apply the wave equation to strings, sound, and light.

Explain superposition, standing waves, resonance, and the conditions for constructive and destructive interference.

Apply Snell's law, total internal reflection, and critical angle calculations to refraction problems.

Interpret the electromagnetic spectrum and relate photon energy to frequency using the Planck relationship.

Apply Coulomb's law and electric field concepts to point charges, including superposition of fields.

Calculate electric potential energy, potential difference, and work done moving a charge between points.

Analyse series and parallel DC circuits using Ohm's law and Kirchhoff's rules, and compute equivalent resistance.

Describe magnetic field effects on moving charges and current-carrying wires, and apply the right-hand rule.

Design a controlled investigation that identifies independent, dependent, and controlled variables for a mechanics or fields question.

Evaluate sources of random and systematic error and propose specific improvements to measurement technique.

Process experimental data by constructing graphs with uncertainty bars and determining gradients with units.

Justify conclusions by comparing experimental values with accepted values and calculating percentage discrepancy.

Interpret and critique the methodology, sample, and claims in a scientific media article or secondary source.

Distinguish between evidence, inference, and opinion when summarising a physics-related case study.

Explain how a specific physics discovery or technology developed over time and identify the social or economic factors involved.

Construct an evidence-based argument about a science-society issue such as energy policy or radiation safety.

Describe the historical development of a major physics model (for example atomic, wave, or gravitational models) and explain what evidence forced revisions.

Explain how models and theories are provisional and how peer review and replication support scientific claims.

Evaluate the ethical, environmental, or economic implications of a physics-based technology.

Communicate a physics concept to a non-specialist audience using accurate but accessible language.

Synthesise content across all four domains by mapping each syllabus dot point to a worked example or summary note.

Complete a timed, full-length practice paper under exam conditions and record raw marks by domain.

Diagnose the three weakest sub-topics from the practice paper and write targeted remediation notes for each.

Practise interpreting unfamiliar data sets and experimental scenarios to answer extended-response questions.

Review and re-attempt every previously missed question, confirming each error is now resolved.

Refine extended-response technique by writing structured answers with clear claims, evidence, and physics terminology.

Memorise and apply the full formula sheet without prompts, checking units and significant figures.

Simulate exam timing and stress management across two shorter timed sessions.