Eğitimetri Digital | Academic Guide
IB Physics – Academic Framework & Curriculum
Comprehensive Academic Guide, Syllabus Structure, and Assessment Strategies
Section 01: Theoretical Framework & Methodology
1.1 Theoretical Approach
The International Baccalaureate (IB) Physics program seeks to explain the fundamental laws of the universe through mathematical modeling, rigorous experimentation, and analytical reasoning. At Eğitimetri Digital, our pedagogical model moves beyond rote memorization, anchoring instruction in deep conceptual understanding, critical modeling, and the Nature of Science (NoS).
Conceptual Architecture
Core themes such as energy, force, fields, and wave-particle duality link disparate topics, treating physics as an interconnected unified framework rather than isolated formulas.
Inquiry-Based Learning
Students engage with investigative questions to derive principles organically, cultivating critical thinking, hypothesis testing, and analytical problem-solving skills.
1.2 Academic Methodology
- Mathematical Integration: Rigorous application of calculus and advanced algebraic modeling to physical phenomena.
- Experimental Rigor & Uncertainty Analysis: Emphasizing precision, systematic vs. random error quantification, and graphical linearizations.
- Command Term Literacy: Systematic training in handling IB command terms (analyze, deduce, evaluate, outline) for maximum score yields.
Section 02: Detailed IB Physics Curriculum (First Assessment 2025+)
2.1 Theme A: Space, Time and Motion (Mechanics)
- A.1 Kinematics: Motion graphs, projectile motion, relative velocity, and fluid drag mechanics.
- A.2 Forces & Newton’s Laws: Free-body diagrams, translational equilibrium, friction, and centripetal dynamics.
- A.3 Work, Energy & Power: Conservation of mechanical energy, work-energy theorem, and efficiency analysis.
- A.4 Momentum: Impulse, linear momentum conservation in 1D and 2D, elastic/inelastic collisions.
2.2 Theme B: The Particulate Nature of Matter (Thermal & Fluids)
- B.1 Thermal Energy: Specific heat capacity, latent heat, phase transitions, and thermal equilibrium.
- B.2 Greenhouse Effect: Blackbody radiation, solar constant, albedo, and enhanced anthropogenic warming.
- B.3 Gas Laws: Ideal gas equation, kinetic theory model assumptions, molecular kinetic energy, and root-mean-square speed.
- B.4 Thermodynamics (HL): First law of thermodynamics, internal energy, thermodynamic cycles (P-V diagrams), and entropy.
2.3 Theme C: Wave Behaviour (Oscillations & Optics)
- C.1 Simple Harmonic Motion (SHM): Restoring forces, phase angles, energy graphs, and resonance conditions.
- C.2 Wave Characteristics: Transverse vs. longitudinal waves, wave equation, reflection, and refraction.
- C.3 Wave Phenomena: Interference (Young’s double-slit), diffraction gratings, polarization, and path difference.
- C.4 Standing Waves: Boundary conditions, nodes/antinodes in strings and pipes, harmonics (HL).
2.4 Theme D: Fields (Gravitational, Electrostatic & Magnetic)
- D.1 Gravitational Fields: Newton’s law of gravitation, gravitational field strength, and orbital mechanics.
- D.2 Electric & Magnetic Fields: Coulomb’s law, electric field lines, magnetic force on moving charges.
- D.3 Motion in Fields: Charged particle deflection, velocity selectors, and particle accelerators (HL).
- D.4 Induction: Magnetic flux, Faraday’s law, Lenz’s law, AC generators, and transformers (HL).
2.5 Theme E: Nuclear and Quantum Physics
- E.1 Structure of the Atom: Rutherford scattering, atomic spectra, energy levels, and photon emission/absorption.
- E.2 Quantum Physics: Photoelectric effect, wave-particle duality, de Broglie wavelength, and electron diffraction.
- E.3 Radioactive Decay: Isotopes, half-life calculations, radioactive decay law, mass-energy equivalence.
- E.4 Fission & Fusion: Nuclear binding energy per nucleon curves, nuclear reactors, and stellar energy generation (HL).
Section 03: Exam Structure & Paper 1-2 Strategies
3.1 Paper 1 & Paper 2 Focus
- Paper 1 (Multiple Choice & Data Analysis): Emphasizes rapid decision making, distractor elimination, and experimental data interpretation (Paper 1B).
- Paper 2 (Structured Long-Response): Measures rigorous mathematical derivations, advanced problem solving, significant figures, and uncertainty propagation.
| Period / Month | Focus Area | Paper 1 & 2 Preparation Strategy | Eğitimetri Digital Output |
|---|---|---|---|
| Oct – Nov | Mechanics & Waves | Fast elimination techniques, vector analysis, free-body diagrams. | Diagnostic Topic Scans (P1 & P2) |
| Dec – Jan | Thermal & Electricity | Data-based graphical analysis, circuit analysis, thermal cycles. | Unit Simulation Exams |
| Feb – Mar | Fields, Quantum & Nuclear | Modern physics distractor analysis, photoelectric calculations. | Past Paper Review Bootcamps |
| Apr – May | Comprehensive Revision | Timed full-length Paper 1 & Paper 2 exam simulations under pressure. | Final Exam Simulation Trials |
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