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
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.
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.
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.
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.
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.
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.
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.
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.