Estonian Basic-School Physics Exam study materials
Estonian Basic-School Physics Exam study resources

Estonian Basic-School Physics Exam study plan

Estonian Basic-School Physics Exam · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Kinematics and mechanics (motion, forces, pressure, work and energy) & Scientific method, measurement, units and data handling

  • Convert between km/h and m/s fluently and solve 15 uniform-motion problems using the formula s = vt, showing units in every line.

  • Sketch and interpret displacement–time and velocity–time graphs for 10 described motions, stating where acceleration is zero, positive or negative.

  • Apply the equations for uniformly accelerated motion (v = v0 + at, s = v0t + at²/2) to 12 free-fall and braking problems.

  • Set up a measurement log with quantity, symbol, unit and uncertainty for every value you record this week.

Your checkpoint

A one-page formula sheet plus a 20-problem kinematics set solved with full working, self-marked against unit consistency and significant figures.

Week 2

Kinematics and mechanics (motion, forces, pressure, work and energy)

  • Draw free-body diagrams for 12 situations (incline, lift, towed trailer, hanging lamp) and label every force with its Newton's-third-law partner.

  • Solve 10 problems combining F = ma with friction, including static versus kinetic friction and the normal force on an incline.

  • Calculate pressure in solids (p = F/A) and in liquids (p = ρgh) and explain 5 everyday examples such as snowshoes, dams and hydraulic brakes.

  • Compute work, power and efficiency for 8 mechanical systems and state where energy is dissipated.

Your checkpoint

A worked problem portfolio of 30 mechanics exercises (forces, pressure, work, energy, power) with free-body diagrams and a short note on the commonest mistake in each.

Week 3

Kinematics and mechanics (motion, forces, pressure, work and energy) & Thermal physics (temperature, heat transfer, states of matter, thermal energy)

  • Apply conservation of mechanical energy and the work–energy theorem to 10 problems involving ramps, pendulums and springs.

  • Convert between Celsius, kelvin and the concept of absolute zero, and explain thermal expansion with 3 concrete examples.

  • Distinguish heat transfer by conduction, convection and radiation and identify the dominant mechanism in 10 everyday situations.

  • Calculate the heat needed to warm or melt a substance using Q = mcΔT and Q = mL, keeping units consistent.

Your checkpoint

A written comparison table of the three heat-transfer mechanisms with one calculated example each, plus 15 solved calorimetry and energy-conservation problems.

Week 4

Thermal physics (temperature, heat transfer, states of matter, thermal energy) & Electricity and magnetism (current, voltage, resistance, circuits, magnetic effects)

  • Describe the particle model of solids, liquids and gases and use it to explain diffusion, evaporation, boiling and the shape of the heating curve.

  • Solve 10 problems on specific heat capacity and specific latent heat, including mixing problems with no heat loss.

  • State Ohm's law, define current, voltage and resistance with their units, and calculate any one from the other two in 15 exercises.

  • Build and measure a simple series and parallel circuit, recording current and voltage at several points and comparing with calculation.

Your checkpoint

A mid-point mock test of 25 mixed mechanics and thermal questions taken under time, scored and reviewed with a written list of every error type.

Week 5

Electricity and magnetism (current, voltage, resistance, circuits, magnetic effects)

  • Calculate equivalent resistance for series, parallel and mixed networks and find branch currents and voltages in 12 circuits.

  • Compute electrical power and energy (P = UI, E = UIt) and estimate the cost of running 5 household appliances for a month in kWh.

  • Describe the magnetic field of a straight wire and a coil, state the right-hand rule, and explain how an electromagnet, relay and electric motor work.

  • Explain electrical safety: fuses, earthing, short circuits and why the human body is dangerous at mains voltage.

Your checkpoint

A circuit workbook of 20 solved networks with power and energy calculations, plus a labelled diagram of a household circuit showing fuse, switch and earth.

Week 6

Optics and waves (light, reflection, refraction, lenses, sound)

  • Apply the laws of reflection and refraction, calculate refractive index and critical angle, and trace 10 ray diagrams through plane mirrors and glass blocks.

  • Draw ray diagrams for converging and diverging lenses and calculate image position and magnification with the thin-lens equation for 10 cases.

  • Relate sound pitch, loudness and quality to frequency, amplitude and waveform, and calculate speed, wavelength and frequency with v = fλ.

  • Explain echoes, ultrasound, noise levels in decibels and 3 applications of sound and light in technology.

Your checkpoint

A ray-diagram sheet of 12 correctly constructed diagrams (mirrors, refraction, lenses) with a one-line justification for each image's size and orientation.

Week 7

Atomic and nuclear physics (structure of matter, radioactivity, ionising radiation) & Physics in everyday life, technology and the environment

  • Describe atomic structure and isotopes, write nuclear decay equations for alpha and beta decay, and balance 10 of them by mass and charge number.

  • Distinguish alpha, beta and gamma radiation by penetration, ionising power and typical sources, and state half-life and use it in 8 decay calculations.

  • Explain background radiation, dose, and the principles of radiation protection (time, distance, shielding) with 3 realistic scenarios.

  • Connect physics to technology and environment: energy sources, efficiency of devices, recycling of batteries and light bulbs, and the greenhouse effect.

Your checkpoint

A two-page briefing on radioactivity and energy choices: decay equations worked out, a half-life calculation, and an argued recommendation on one technology or environmental measure.

Week 8

Scientific method, measurement, units and data handling & Kinematics and mechanics (motion, forces, pressure, work and energy) & Thermal physics (temperature, heat transfer, states of matter, thermal energy) & Electricity and magnetism (current, voltage, resistance, circuits, magnetic effects) & Optics and waves (light, reflection, refraction, lenses, sound) & Atomic and nuclear physics (structure of matter, radioactivity, ionising radiation)

  • Rehearse measurement skills: choose instruments, read scales to the right precision, estimate uncertainty and identify systematic versus random error in 10 short scenarios.

  • Interpret tables and graphs from experimental data, draw a line of best fit and describe the relationship in words.

  • Complete two full timed mock exams and mark them against a checklist of formula, unit and reasoning errors.

  • Revisit and re-solve every question you missed across weeks 1–7, confirming each weak topic now yields a correct answer unaided.

Your checkpoint

A final one-page error log summarising recurring mistakes and the corrected rule for each, plus mock-exam scores showing improvement over week 4.

Milestones

Week 2: Solve 5 unseen force-and-motion problems in 30 minutes with correct free-body diagrams and units.

Week 4: Score at least 60% on the mixed mechanics-and-thermal mock and list every error type in writing.

Week 6: Construct 3 correct ray diagrams from scratch and solve 3 circuit problems with power calculations unaided.

Week 8: Score at least 75% on a full timed mock exam and explain every corrected mistake in your own words.