A-Level Physics Curriculum
Our comprehensive A-Level Physics program covers Years 1 and 2, providing students with a deep understanding of physical principles through theoretical study and hands-on experimentation. The curriculum follows international standards and emphasizes practical application of concepts.
Duration
2 Years (AS Level + A2 Level)
Level
A-Level (Advanced Level)
Prerequisites
GCSE Physics or equivalent foundation in physics
How to Join
Our A-Level Physics curriculum is designed for students seeking a rigorous understanding of physics principles. We welcome students with a solid foundation in mathematics and a passion for scientific exploration.
Program Features
- Open to all students meeting prerequisites
- Small class sizes for personalized attention
- Flexible scheduling to accommodate different learning needs
AS Level (Year 1) - Core Topics
Foundation year covering essential physics concepts and experimental methods.
Physical Quantities and Units
2 weeksDescription
Understanding measurement, SI units, and error analysis
Key Experiments
- Measurement precision analysis
- Error propagation studies
Kinematics and Dynamics
3 weeksDescription
Motion, forces, and Newton's laws of motion
Key Experiments
- Free fall experiments
- Projectile motion analysis
- Force and acceleration studies
Work, Energy and Power
2 weeksDescription
Energy conservation, potential and kinetic energy
Key Experiments
- Energy conservation verification
- Power measurement experiments
Waves and Superposition
3 weeksDescription
Wave properties, interference, and diffraction
Key Experiments
- Resonance experiments
- Double-slit interference
- Diffraction grating studies
Electricity and DC Circuits
3 weeksDescription
Current, voltage, resistance, and circuit analysis
Key Experiments
- Ohm's law verification
- Series and parallel circuits
- Kirchhoff's laws
Particle Physics
2 weeksDescription
Atomic structure, radioactivity, and nuclear physics
Key Experiments
- Radioactive decay studies
- Geiger counter experiments
A2 Level (Year 2) - Advanced Topics
Advanced year focusing on complex physics concepts and specialized applications.
Circular Motion and Gravitational Fields
2 weeksDescription
Centripetal force, gravitational fields, and orbital mechanics
Key Experiments
- Centripetal force apparatus
- Gravitational field mapping
Thermodynamics and Ideal Gases
3 weeksDescription
Temperature, heat, gas laws, and kinetic theory
Key Experiments
- Boyle's law verification
- Heat capacity measurements
- Thermal expansion studies
Vibrations and Resonance
2 weeksDescription
Simple harmonic motion, damping, and resonance phenomena
Key Experiments
- Mass-spring systems
- Resonance tube experiments
- Damping studies
Electric Fields and Capacitance
3 weeksDescription
Electric fields, potential, and capacitor behavior
Key Experiments
- Electric field mapping
- Capacitor charging/discharging
- Dielectric studies
Magnetic Fields and Electromagnetic Induction
3 weeksDescription
Magnetic fields, electromagnetic induction, and AC circuits
Key Experiments
- Magnetic field mapping
- Electromagnetic induction
- AC circuit analysis
Quantum Physics and Nuclear Physics
3 weeksDescription
Photoelectric effect, wave-particle duality, and nuclear reactions
Key Experiments
- Photoelectric effect studies
- Nuclear decay analysis
- Spectroscopy
Medical Physics and Astronomy
2 weeksDescription
Applications in medicine and astrophysics
Key Experiments
- Ultrasound imaging principles
- X-ray production
- Stellar spectroscopy
Assessment Structure
Comprehensive evaluation combining theoretical knowledge and practical skills.
Written Examinations
Theory papers covering all topics with problem-solving and analysis questions
Practical Assessment
Hands-on experiments with data collection, analysis, and evaluation
Coursework Projects
Independent research projects and extended experimental investigations
Learning Resources
Comprehensive materials to support your learning journey.
Ready to Start Your A-Level Physics Journey?
Join our comprehensive A-Level Physics program and develop a deep understanding of physical principles through hands-on experimentation.