IB Physics HL Syllabus Checklist

Syllabus Checklist

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1.1 – Measurements in physics
Fundamental and derived SI units
Scientific notation and metric multipliers
Significant figures
Orders of magnitude
Estimation
1.2 – Uncertainties and errors
Random and systematic errors
Absolute, fractional and percentage uncertainties
Error bars
Uncertainty of gradient and intercepts
1.3 – Vectors and scalars
Vector and scalar quantities
Combination and resolution of vectors
2.1 – Motion
Distance and displacement
Speed and velocity
Acceleration
Graphs describing motion
Equations of motion for uniform acceleration
Projectile motion
Fluid resistance and terminal speed
2.2 – Forces
Objects as point particles
Free-body diagrams
Translational equilibrium
Newton’s laws of motion
Solid friction
2.3 – Work, energy and power
Kinetic energy
Gravitational potential energy
Elastic potential energy
Work done as energy transfer
Power as rate of energy transfer
Principle of conservation of energy
Efficiency
2.4 – Momentum and impulse
Newton’s second law expressed in terms of rate of change of momentum
Impulse and force–time graphs
Conservation of linear momentum
Elastic collisions, inelastic collisions and explosions
3.1 – Thermal concepts
Molecular theory of solids, liquids and gases
Temperature and absolute temperature
Internal energy
Specific heat capacity
Phase change
Specific latent heat
3.2 – Modelling a gas
Pressure
Equation of state for an ideal gas
Kinetic model of an ideal gas
Mole, molar mass and the Avogadro constant
Differences between real and ideal gases
4.1 – Oscillations
Simple harmonic oscillations
Time period, frequency, amplitude, displacement and phase difference
Conditions for simple harmonic motion
4.2 – Travelling waves
Travelling waves
Wavelength, frequency, period and wave speed
Transverse and longitudinal waves
The nature of electromagnetic waves
The nature of sound waves
4.3 – Wave characteristics
Wavefronts and rays
Amplitude and intensity
Superposition
Polarization
4.4 – Wave behaviour
Reflection and refraction
Snell’s law, critical angle and total internal reflection
Diffraction through a single-slit and around objects
Interference patterns
Double-slit interference
Path difference
4.5 – Standing waves
The nature of standing waves
Boundary conditions
Nodes and antinodes
5.1 – Electric fields
Charge
Electric field
Coulomb’s law
Electric current
Direct current (dc)
Potential difference
5.2 – Heating effect of electric currents
Circuit diagrams
Kirchhoff’s circuit laws
Heating effect of current and its consequences
Resistance expressed as R = V/I
Ohm’s law
Resistivity
Power dissipation
5.3 – Electric cells
Cells
Internal resistance
Secondary cells
Terminal potential difference
Electromotive force (emf)
5.4 – Magnetic effects of electric currents
Magnetic fields
Magnetic force
6.1 – Circular motion
Period, frequency, angular displacement and angular velocity
Centripetal force
Centripetal acceleration
6.2 – Newton’s law of gravitation
Newton’s law of gravitation
Gravitational field strength
7.1 – Discrete energy and radioactivity
Discrete energy and discrete energy levels
Transitions between energy levels
Radioactive decay
Fundamental forces and their properties
Alpha particles, beta particles and gamma rays
Half-life
Absorption characteristics of decay particles
Isotopes
Background radiation
7.2 – Nuclear reactions
The unified atomic mass unit
Mass defect and nuclear binding energy
Nuclear fission and nuclear fusion
7.3 – The structure of matter
Quarks, leptons and their antiparticles
Hadrons, baryons and mesons
The conservation laws of charge, baryon number, lepton number and strangeness
The nature and range of the strong nuclear force, weak nuclear force and electromagnetic force
Exchange particles
Feynman diagrams
Confinement
The Higgs boson
8.1 – Energy sources
Specific energy and energy density of fuel sources
Primary energy sources
Sankey diagrams
Electricity as a secondary and versatile form of energy
Renewable and non-renewable energy sources
8.2 – Thermal energy transfer
Conduction, convection and thermal radiation
Black-body radiation
Albedo and emissivity
The solar constant
The greenhouse effect
Energy balance in the Earth surface–atmosphere system
9.1 – Simple harmonic motion
The defining equation of SHM
Energy changes
9.2 – Single-slit diffraction
The nature of single-slit diffraction
9.3 – Interference
Young’s double-slit experiment
Modulation of two-slit interference pattern by one-slit diffraction effect
Multiple slit and diffraction grating interference patterns
Thin film interference
9.4 – Resolution
The size of a diffracting aperture
The resolution of simple monochromatic two-source systems
9.5 – Doppler effect
The Doppler effect for sound waves and light waves
10.1 – Describing fields
Gravitational fields
Electrostatic fields
Field lines
Electric potential and gravitational potential
Equipotential surfaces
10.2 – Fields at work
Potential and potential energy
Potential gradient
Potential difference
Escape speed
Orbital motion, orbital speed and orbital energy
Forces and inverse-square law behaviour
11.1 – Electromagnetic induction
Electromotive force (emf)
Magnetic flux and magnetic flux linkage
Faraday’s law of induction
Lenz’s law
11.2 – Power generation and transmission
Alternating current (ac) generators
Average power and root mean square (rms) values of current and voltage
Transformers
Diode bridges
Half-wave and full-wave rectification
11.3 – Capacitance
Capacitance
Dielectric materials
Capacitors in series and parallel
Resistor-capacitor (RC) series circuits
Time constant
12.1 – The interaction of matter with radiation
Photons
The photoelectric effect
Matter waves
Pair production and pair annihilation
Quantization of angular momentum in the Bohr model for hydrogen
The wave function
The uncertainty principle for energy and time and position and momentum
Tunnelling, potential barrier and factors affecting tunnelling probability
12.2 – Nuclear physics
Rutherford scattering and nuclear radius
Nuclear energy levels
The neutrino
The law of radioactive decay and the decay constant

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