Hi, My Names Rob Coles and I`m an A level student who is trying to revise for exams. As I made the mistake of choosing exceedingly boring sudjects to study just because they were easier (and there was no option to study computing), I am now trying to releive the boredom by revising physics through html coding. I am studying the WJEC syllabus, which I have transcribed below, as I revise sections and compile the pages I will turn the relevent section into a url.

Fields, Forces and Energy (66 hours)

1. BASIC PHYSICS (8 hours)
   • 1.1 Units and dimensions.
   • 1.2 Scalar and vector quantities.
2. KINEMATICS (8 hours)
   • 2.1 Rectilinear Motion
3. DYNAMICS (16 hours)
   • 3.1 Linear momentum.
   • 3.2 Newton's laws of motion.
   • 3.3 The newton.
   • 3.4 Conservation of linear momentum
   • 3.5 Free body diagrams.
4. STATICS (6 hours)
   • 4.1 Moment, torque and couple.
   • 4.2 Centre of mass, centre of gravity and stability.
   • 4.3 Equilibrium of rigid bodies.
5. WORK, ENERGY, POWER (8 hours)
   • 5.1 Work.
   • 5.2 Potential energy.
   • 5.3 Kinetic energy.
   • 5.4 Power.
   • 5.5 Energy conservation.
   • 5.6 Energy resources.
   • 5.7 Dissipative forces.
   • 5.8 Internal energy.
   • 5.9 First law of thermodynamics.
   • 5.10 Energy transfer.
6. ROTATIONAL DYNAMICS (8 hours)
   • 6.1 Uniform circular motion.
   • 6.2 Centripetal force and acceleration.
   • 6.3 Couple and torque.
7. FIELDS OF FORCE (12 hours)
   • 7.1 Electrostatic and gravitational fields as examples of fields of force.
   • 7.2 Field strength (or intensity).
   • 7.3 Electrical and gravitational inverse square law.
   • 7.4 Potential in force fields.
   • 7.5 Relation between force and potential energy gradient.
   • 7.6 Relation between intensity and potential gradient.
   • 7.7 Vector addition of electric forces.
   • 7.8 Potential energy for a system of charges
   .

   Molecules and Matter (29 hours)

8. IDEAL GASES (8 hours)
   • 1.1 Ideal gas laws and the equation of state.
   • 1.2 Kinetic theory of gases.
   • 1.3 The kinetic theory of pressure of a perfect gas.
   • 1.4 The kinetic energy of a molecule.
9. PHASES OF MATTER (8 hours)
   • 2.1 Solids, liquids and gases.
   • 2.2 Bonding.
   • 2.3 Force-separation curve and potential energy-separation curve for two neutral atoms/molecules.
   • 2.4 Microscopic interpretation of the expansion of solids and liquids and Hooke's law.
10. SOLIDS UNDER STRESS (13 hours)
    • 3.1 Stress and strain.
    • 3.2 Elastic and plastic behaviour.

    Oscillations and Waves (53 hours)

11. OSCILLATIONS (18 hours)
    • 1.1 Physical and mathematical treatment of undamped simple harmomc motion.
    • 1.2 Energy interchanges during simple harmonic motion.
    • 1.3 Damping of oscillations.
    • 1.4 Free oscillations, forced oscillations and resonance.
12. WAVES (6 hours)
    • 2.1 Progressive
    • 2.2 Transverse and Longditudinal
    • 2.3 Frequency, wavelength and velocity of Waves
13. SUPERPOSITION (12 hours)
    • 3.1 Interference.
    • 3.2 Two-source interference patteras.
    • 3.3 Stationary waves.
    • 3.4 Beats.
    • 3.5 Diffraction.
14. LIGHT WAVES (12 hours)
    • 4.1 Reflection.
    • 4.2 Refraction.
    • 4.3 Interference.
    • 4.4 Diffraction.
    • 4.5 Polarisation

    Electricity and Magnetism

15. CAPACITANCE (4 hours)
    • 1.1 The concept of capacitance.
    • 1.2 The parallel plate capacitor and factors affecting its capacitance.
    • 1.3 Capacitors in series and parallel.
    • 1.4 Energy stored in a capacitor.
16. CURRENT ELECTRICITY(15 hours)
    • 2.1 Electric current.
    • 2.2 Nature of charge carders in conductors and serniconductors.
    • 2.3 Potential difference.
    • 2.4 Relationship between current and potential difference.
    • 2.5 Resistance, resistivity and conductivity.
    • 2.6 Varation of resistance with temperature.
    • 2.7 Heating effect of an electric current.
    • 2.8 EMF and internal resistance.
17. D.C. CIRCUITS (9 hours)
    • 3.1 Series and parallel circuits.
    • 3.2 Combination of resistors.
    • 3.3 Kirchhoff's laws.
    • 3.4 The potential divider.
    • 3.5 Balanced potentials--the potentiometer.
18. ELECTROMAGNETISM (18 hours)
    • 4.1 Concept of magnetic fields.
    • 4.2 Magnetic flux density.
    • 4.3 Magnetic flux.
    • 4.4 Magnetic fields due to currents.
    • 4.5 Effect of a ferrous core:--relative permeability.
    • 4.6 Force on a current-carrying conductor.
    • 4.7 Force on a moving charge.
    • 4.8 Force between current-carrying conductors.
    • 4.9 Definition of the ampere.
    • 4.10 Measurement of magnetic flux density.
    • 4.11 Deflection of beams of charged particles in electic and magnetic fields.
19. ELECTROMAGNETIC INDUCTION (5 hours)
    • 5.1 Laws of electromagnetic induction.
    • 5.2 Calculation of induced emf and charge.
    • 5.3 Self induction.
20. ALTERNATING CURRENTS (12 hours)
    • 6.1 Peak and r.m.s. values of sinusoidal quantities.
    • 6.2 The transformer.
    • 6.3 Transmission of electrical energy.
    • 6.4 Vector treatment of alternating voltages and currents.
    • 6.5 Effect of resistance, inductance and capacitance in a series circuit. Phase lag and lead.
    • 6.6 Resonance.
    • 6.7 Rectification and smoothing.
    • 6.8 Use of the cathode ray oscilloscope.

    Atomic Physics (40 hours)

21. QUANTUM PHYSICS (14 hours)
    • 1.1 The electromagnetic spectrum.
    • 1.2 Spectra--the main features of optical spectra; X-ray spectra.
    • 1.3 Photoelectric effect.
    • 1.4 Wave particle duality.
22. NUCLEAR PHYSICS (12 hours)
    • 2.1 The nuclear atom.
    • 2.2 The nucleus.
    • 2.3 Isotopes.
    • 2.4 Binding energy.
    • 2.5 Fission and fusion.
    • 2.6 Nuclear reactors.