Momentum, Impulse, Forces, Fields, and Atomic Physics.
Timed practice
Choose a set, work at your own pace, and check your score at the end.
A fixed set from the shared subject bank, with its own order, a timer, question flags, and scoring at the end.
A fixed set from the shared subject bank, with its own order, a timer, question flags, and scoring at the end.
A fixed set from the shared subject bank, with its own order, a timer, question flags, and scoring at the end.
A fixed set from the shared subject bank, with its own order, a timer, question flags, and scoring at the end.
Study guide
Develop problem-solving skills across momentum and impulse, electric and magnetic fields, light, quantum physics, atomic models, and nuclear physics using mixed questions and source diagrams.
The hub covers momentum and impulse, electrostatics, electromagnetism, the wave nature of light, quantum physics, atomic models, and nuclear physics.
Yes. Questions that depend on a graph, circuit, experimental setup, or other source include the needed source directly above the question.
No. Alberta Ace is independent from Alberta Education and provides original diploma-style preparation material.
Momentum, impulse, collisions, explosions, and conservation of momentum in one and two dimensions.
Use signs for one-dimensional collisions and components for two-dimensional collisions.
Electric charge, Coulomb forces, electric fields, potential difference, parallel plates, and Millikan-style charge problems.
Coulomb law gives magnitude first; determine direction separately from charge signs.
Magnetic fields, hand rules, magnetic force, induction, Lenz law, motors, generators, and transformers.
Use Faraday law for the existence and size of induction; use Lenz law for direction.
Electromagnetic radiation, the spectrum, interference, diffraction, thin films, polarization, and speed-of-light evidence.
Convert nanometres to metres in wave calculations.
Planck quantization, photons, photoelectric observations, Compton effect, de Broglie wavelength, and wave-particle duality.
Increasing intensity raises photoelectron count, not maximum kinetic energy.
Thomson, Rutherford, Bohr, spectral evidence, quantized energy levels, and the modern quantum model.
Emission happens when electrons drop to lower energy levels; absorption happens when they move up.
Nuclear notation, radioactive decay, half-life, mass-energy equivalence, binding energy, fission, and fusion.
Balance both mass number and atomic number in every nuclear equation.
Last studied: 5 days ago
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