Armenia Physics Unified Exam study plan

Derive and apply the three kinematic equations for uniformly accelerated motion to solve 15 problems with varying initial conditions

Construct free-body diagrams for 10 multi-force situations (incline, pulley, friction) and write Newton's second law for each axis

Solve static equilibrium problems using torque balance for rigid bodies with 3 or more forces

State the conditions under which momentum and mechanical energy are each conserved and classify 10 physical situations accordingly

Apply work-energy theorem and conservation of mechanical energy to solve 12 problems involving friction and non-conservative forces

Analyze elastic and inelastic collisions in one dimension and compute post-collision velocities and energy loss

Solve circular-motion and gravitation problems (centripetal force, orbital speed, Kepler's third law) for 8 cases

Identify and correct common sign and unit errors in your own worked solutions

Apply Coulomb's law and superposition to compute net electric field and potential at a point for 10 charge configurations

Analyze DC circuits with series/parallel combinations using Kirchhoff's rules and compute equivalent resistance and branch currents

Compute magnetic force on moving charges and current-carrying wires and apply the right-hand rule correctly in 10 problems

Apply Faraday's and Lenz's laws to determine induced emf magnitude and current direction in 8 changing-flux scenarios

Apply the ideal gas law and the first law of thermodynamics to compute work, heat, and internal energy change for isothermal, isobaric, isochoric, and adiabatic processes

Compute efficiency of heat engines and state the second law in terms of entropy

Interpret and extract values from graphs (P-V, V-T, x-t, I-V) including slope and area meaning

Estimate order-of-magnitude answers and propagate uncertainty through simple calculations

Distinguish random from systematic error and select appropriate measuring instruments for a given precision

Relate period, frequency, and angular frequency for simple harmonic motion and compute them for spring-mass and pendulum systems

Apply the wave equation (v = fλ) and superposition to solve interference and standing-wave problems

Use Snell's law and the thin-lens/mirror equation to locate images and compute magnification for 10 optical setups

Identify conditions for constructive/destructive interference and diffraction minima in 6 problems

Apply Einstein's photoelectric equation to compute stopping potential, threshold frequency, and work function for 8 cases

Use the Bohr model to compute energy levels, transition wavelengths, and ionization energy for hydrogen

Write and balance nuclear decay and reaction equations, applying conservation of mass number and charge

Compute mass defect and binding energy for simple nuclei and explain the shape of the binding-energy curve

Solve mixed-domain problems that combine mechanics with electricity (e.g., charged particle in a field) or energy with quantum concepts

Complete a full-length timed mock exam under exam conditions and record per-domain scores

Categorize every missed question by domain and error type (conceptual, algebraic, careless)

Re-solve all missed questions without notes until each is correct

Re-drill the two weakest domains identified in the mock, targeting at least 20 problems each

Memorize and self-test all formulas and constants from your consolidated formula sheet

Take a second timed mock exam and compare per-domain scores against week 7

Finalize a one-page constants-and-units reference for exam-day use