Your detailed IB Physics work plan
Welcome to the IB Physics Classroom, where we break down complex topics into manageable plans. This page outlines our structured approach to mastering IB Physics, ensuring a clear path to success for every student.

Plan 1: Mastering fundamental mechanics
Our first detailed plan covers the foundational concepts of units A and B, essential for any IB Physics student. You will thoroughly understand:
- A1.1 Distance, displacement, speed, and velocity.
- A.1.2 Acceleration, deceleration, and equations of motion.
- A1.3 Projectile motion.
- A2.1 Resultant force, weight, buoyancy.
- A2.2 Elastic restoring force, surface friction, viscosity/Stoke's law.
- A.2.3 Field forces and Newton's laws.
- A.2.4 Momentum, collisions and impulse.
- A.2.5 Collisions and explosions in two dimensions(HL only).
- A 2.6 Circular motion and centripetal forces.
- A3.1 Work and kinetic energy
- A3.2 P.E, E.P.E and Hooke's law.
- A.3.3 Conservation of mechanical energy, Power and Efficiency.
- A.4 HL only
- A.4.1 Comparing rational motion to linear motion, torque and rotational equilibrium.
- A.4.2 Angular displacement, frequency, velocity and acceleration.
- A.4.3 Moment of inertial
- A.4.4 Newton second law of rational motion, conservation of angular momentum and impulse.
- A.4.5 Rotational kinetic energy.
- A5 (HL only)
- A.5.1 Reference frame, Newton's postulates about time and space, and Galilean relativity and it's limitations.
- A.5.2 Special relativity, and Lorentz transformations.
- A.5 .3 Clock synchronization, simultaneity, and velocity additional transformation.
- A.5.4 Time dilation, length contraction, and muon-decay experiment.
- A.5.5 Space-time.
We ensure each subtopic is covered in depth, preparing you for advanced challenges.
B.1.1 Density and temperature
B.1.2 kinetic energy of gas particle, thermal energy and thermal conductivity.
B.1.3 Thermal convection, radiation and stars.
B.1.4 Heating/cooling, specific heat capacity, thermal capacity.
B.1.5 Changes of phase , boiling /evaporation and latent heat.
B.2.1 Luminosity, apparent brightness of the sun, solar constant, Alberto and emissivity.
B.2.2 Greenhouse gases, greenhouse effects, and global warming.
B.3.1 Pressure and amount of substance.
B.3.2 Gas laws
B.3.3 Idea gases, internal energy of an idea gas, and real gases.
B.4. HL only.
B.4.1 Work done on a gas or by a gas and the first law of thermodynamics.
B.4.2 Thermodynamic processes, cycles and PV diagrams.
B.4.3 Heat pumps, reversible and irreversible changes, entropy and second law of thermodynamics.
B.5.1 Electric charge, current and circuits.
B.5.2 Potential difference, electrical resistance and Ohm's law.
B.5.3 Electrical resistance, Connecting components in a circuit.
B.5.4 Emf and internal resistance, variable resistors, potentiometer and electrical power.

Plan 3: Exam preparation and past papers
Our final plan focuses on comprehensive exam preparation. This includes covering topic E and extensive practice with full past papers, including paper 1 and paper 2. We address common questions and concerns to ensure you're fully prepared for your examinations.
More details on this section will be available shortly.
E.1.1 The subatomic particle, G.M-Rutherford experiment and the nucleus.
E.1.2 Nuclear notation, energy levels and evidence of energy level.
E.1.3 Photons.
E.2 HL Only.
E.2.1 The photoelectric effects and experiment to test Einstein model.
E.2.2 The wave-particle duality and Campton scattering.
E.3.1 Isotopes, radioactive emissions, and their properties.
E.3.2 Activities of a radioactive source and their uses.
E.3.3 Nuclear energy, fission and fusion.
E.3.4 and 3.5 HL only.
E.3.4 The strong nuclear force/nuclear stability & spectra of alpha, beta and gamma radiation.
E.3.5 Detail mathematics in radioactive decay, decay constant/half-life and experiment to determine half-life.
E.4.1 Nuclear fission and changes in energy and mass.
E.4.2 Controlled release of nuclear energy, waste materials from reactors, and energy density.
E.5.1 Nuclear fusion, formation of stars, and proton-proton cycle.
E.5.2 Main-sequence stars and evolution of stars.
E.5.3 Distances from Earth to stars and creation of different element.

Plan 2: Expanding your physics knowledge
Our second plan builds upon the basics, introducing more complex topics. This section will cover concepts C and D, further deepening your understanding of physics principles.
Check back soon for more details as we finalize these exciting new modules.
C.1.1 Oscillations, simple pendulum and mass spring system.
C.1.2 SHM, phase difference and energy changes during SHM.
C.1.3 Displacement, velocity, acceleration and calculating energy changes in SHM.
C.2.1 Classification of waves, terminologies and wave equation.
C.2.2 Sound waves and electromagnetic waves.
C3.1 Reflection and refraction
C 3.2 Diffraction and interference
C 3.3 (HL) Single-slit diffraction of light, two slits, multiple, and modulation by single-slit diffraction.
C.4.1 Standing waves in strings and pipes.
C.4.2 Damping, resonance and applications.
C5.1 Doppler effects for sound, EM waves and light form distant stars.
C.5.2 (HL only)Equations for sound and other mechanical waves in doppler effects.
D.1.1 Keppler's laws
D.1.2 Newton's universal law of gravitation and gravitational field.
D.1.3 Orbital motion
D.1.4 G.P.E and gravitational potentials.(HL only).
D.1.5 Speed and energies of satellites.(HL only).
D.2.1 Electric charges, electric force and electric field strength.
D.2.2 Magnetic field lines, field lines round a solenoid and straight wire carrying current.
D.2.3 (HL only) Electric potential energy, electric potential and equipotential surfaces.
D.3.1Charged particles and motion of charged particles in fields.
D.3.2 Forces on current carrying conductors.
D.4 HL only.
D.4.1 Electromagnetic induction, induced emf and particle beams.
D.4.2 Motion of charged particle in magnetic field, electromagnetic induction due to a permanent magnet and transformers.
D.4.3 Magnetic flux and flux linkage, and Faraday's law of electromagnetic induction.
D.4.4 Energy transfer during electromagnetic induction, induction in coils and self induction.