Physics syllabus, dot point by dot point
Every dot point in the WA Physics syllabus, in syllabus order, with a focused answer for each. Open any dot point for the answer, exam-style questions and links to related points.
Unit 3: Gravity and Electromagnetism
Unit overview →How do gravitational field strength and gravitational potential energy describe a field?
How does a gravitational field govern projectile, circular and orbital motion?
How does gravity supply the centripetal force that keeps a satellite in orbit?
How do electric fields and potential describe the force and energy of charges?
How does rotating a coil in a magnetic field generate alternating and direct current?
How does the inverse-square law govern the gravitational force between two masses?
How does Coulomb's law describe the force between two point charges?
How does a magnetic field exert a force on a current-carrying conductor?
How does a magnetic field exert a force on moving charges and currents?
Why does an object moving in a circle at constant speed still accelerate?
Why is electrical energy transmitted at high voltage and stepped down with transformers?
How does a changing magnetic flux induce an emf in a circuit?
How can the independence of horizontal and vertical motion describe a projectile's flight?
How does a uniform electric field accelerate and deflect a charged particle?
Unit 4: Wave Models and Quantum Physics
Unit overview →How do atomic energy levels and nuclear reactions release and reveal energy?
How do fission and fusion release energy, and how do they differ?
Why are some nuclei more stable than others, and what holds a nucleus together?
How does polarisation show that light is a transverse wave?
How do reflected waves superpose to form standing waves and resonance?
How can both light and matter show wave and particle behaviour?
How do particle accelerators probe matter and support the Big Bang theory?
How does the photoelectric effect reveal the particle nature of light?
How are the regions of the electromagnetic spectrum related and produced?
How does the Standard Model classify the fundamental particles and forces?
How did the Bohr model explain quantised atomic energy levels?
Why does each element produce a unique pattern of spectral lines?
How do unstable nuclei decay, and how does half-life describe the rate?
How does light behave as a wave through diffraction and interference?
How does Einstein's mass-energy equivalence explain energy released in nuclear reactions?
How do time and length change for observers in relative motion at high speed?
How does a diffraction grating separate light into sharp, well-resolved spectral lines?
How does the wave model describe motion, superposition and standing waves?
How does Young's double-slit experiment provide evidence for the wave model of light?
