Secondary LevelS3 – S4

Combined / Pure Physics

Conquer O-Level Physics with strong conceptual understanding and mathematical application

About This Programme

Master O-Level Physics — mechanics, thermal physics, waves, electricity, and magnetism. Our programme builds strong conceptual understanding and problem-solving skills for both Combined Science (Physics) and Pure Physics.

Syllabus Alignment

MOE Physics Syllabus 2024 (Upper Secondary)
GCE O-Level Pure Physics (6091) and Combined Science (Physics) (5107) formats
SEAB assessment objectives including Practical Assessment (Paper 3 for Pure)

Learning Outcomes

Master all five themes: General Physics, Thermal Physics, Waves, Electricity and Magnetism, and Nuclear Physics
Apply mathematical skills to solve quantitative physics problems
Develop practical experimental and measurement skills
Learn to explain physical phenomena using proper scientific terminology

Teaching Methodology

Concept-Problem Connection

Every physics concept is taught alongside its mathematical expression. Students learn to move seamlessly between qualitative understanding (what happens) and quantitative analysis (calculating values).

Practical Experimentation

Hands-on experiments for every major topic — measuring acceleration due to gravity, investigating Ohm's Law, tracing light rays through lenses. Students learn proper measurement techniques, error analysis, and graphical skills.

Problem-Solving Framework

Structured approach to physics problems: (1) Identify given information and the unknown, (2) Select relevant formula(s), (3) Solve step-by-step showing all working, (4) Check units and magnitude for reasonableness.

Key Topics Covered

Kinematics & Dynamics

Speed, velocity, acceleration, Newton's laws, forces, moments, and pressure

Energy & Thermal Physics

Work, power, energy transfers, kinetic model, heat capacity, and latent heat

Waves

Wave properties, electromagnetic spectrum, sound waves, and light (reflection, refraction, lenses)

Electricity & Magnetism

Current, voltage, resistance, circuit analysis, electromagnetic induction

Nuclear Physics

Atomic structure, radioactivity, half-life, and applications of nuclear physics

Frequently Asked Questions

How is Physics different from Biology and Chemistry?

Physics is the most mathematical of the three sciences. While Biology and Chemistry require significant content memorisation, Physics requires strong mathematical application skills. Students who enjoy Maths often find Physics the most intuitive science subject. Our programme bridges the gap between mathematical skill and physical understanding.

What equipment do students need for Physics practical?

All practical equipment is provided at our centres. Students should bring a scientific calculator, a 30 cm ruler, a protractor, and a flexible curve ruler for graphs. We provide all lab apparatus — ammeters, voltmeters, power supplies, lenses, mirrors, pendulum setups, and other equipment.

Exam Tips

1Always write down the formula first, then substitute values with units, then calculate — this earns method marks even if the final answer is wrong
2Check that your answer has the correct SI units: speed in m/s, force in N, energy in J, etc.
3For 'explain' questions about physical phenomena, use the cause-effect pattern: 'When X happens, Y changes because...'
4In practical questions, always comment on the reliability of your results — were there repeated readings? Were anomalies identified?
5Draw free-body diagrams for all force-related problems — they clarify the situation and often reveal the solution approach

Combined / Pure Chemistry

S3 – S4

Combined / Pure Biology

S3 – S4

E/A Mathematics

S1 – S4