Year 13 Physics

Introduction to rotational kinematics, defining angular displacement, velocity, and their relationship to linear motion.

Analysis of objects moving in circular paths at constant speed, focusing on centripetal acceleration and force.

Examining the forces involved when an object moves in a vertical circle, considering changes in tension or normal force.

Defining SHM and identifying its key characteristics, including displacement, velocity, and acceleration.

Study of periodic motion where acceleration is proportional to displacement, including mass spring systems and pendulums.

Detailed analysis of horizontal and vertical mass-spring systems, deriving the period equation.

Investigating the conditions under which a simple pendulum exhibits SHM and deriving its period.

Exploration of how energy is dissipated in real world systems and the effects of external driving forces.

Investigating the response of an oscillating system to an external periodic force and the phenomenon of resonance.

Exploring the concept that particles can exhibit wave-like properties and waves can exhibit particle-like properties.

Defining internal energy as the sum of kinetic and potential energies of molecules, and its relation to temperature.

Understanding specific heat capacity and latent heat in the context of internal energy changes.

Investigating the energy involved in phase transitions (melting, boiling) without a change in temperature.

Deriving the ideal gas laws and the equation of state through experimental observation and theory.

Applying the ideal gas equation (PV=nRT) to solve problems involving pressure, volume, temperature, and moles.

The conservation of energy in thermal systems, involving work done, heat added, and internal energy.

Analyzing different thermodynamic processes (isobaric, isochoric, isothermal, adiabatic) and their P-V diagrams.

Introduction to the operation of heat engines and the concept of thermodynamic efficiency.

Exploring the principles of refrigerators and heat pumps as reverse heat engines.

Introduction to entropy as a measure of disorder and its role in the second law of thermodynamics.

Analysis of Newton's law of gravitation, field strength, and the concept of gravitational potential.

Defining gravitational field strength and mapping gravitational field lines for various mass distributions.

Understanding gravitational potential energy and defining gravitational potential as energy per unit mass.

Applying gravitational principles to analyze orbital motion, including Kepler's laws and escape velocity.

Modeling the forces between charges using Coulomb's law and mapping electric field lines.

Defining electric potential and electric potential energy, and their relationship to work done in an electric field.

The study of energy storage in electric fields and the discharging characteristics of capacitors.

Calculating the energy stored in a capacitor and analyzing its applications in various circuits.

Defining electric current, voltage, and resistance, and applying Ohm's Law to simple circuits.

Investigating the intrinsic properties of materials that determine their electrical resistance.

Defining magnetic fields, magnetic flux, and magnetic flux density, and visualizing field patterns.

Investigating the force on current carrying conductors and moving charges in magnetic fields.

Analyzing the force experienced by individual charged particles moving through a magnetic field.

Understanding Faraday's and Lenz's laws and their role in generating electromotive force.

Applying Lenz's law to determine the direction of induced current and its connection to energy conservation.

Exploring the principles of electromagnetic induction in the operation of AC generators and electric motors.

The application of induction in power transmission and the behavior of alternating currents.

Analyzing the characteristics of alternating current (AC) and its advantages over direct current (DC).

Understanding the nature of electromagnetic waves, their properties, and the electromagnetic spectrum.

Reviewing the structure of the atom, defining isotopes, and introducing nuclear notation.

The nature of alpha, beta, and gamma radiation, including decay constants and half-life.

Understanding the exponential decay law, decay constant, and calculating half-life.

Mass-energy equivalence and the processes of nuclear fission and fusion.

Detailed study of nuclear fission and fusion, including chain reactions and energy release.

Exploring practical applications of radioactivity and nuclear energy in medicine, industry, and power generation.

The Standard Model, classifying particles into quarks, leptons, and baryons, and the exchange particles of fundamental forces.

Delving deeper into the properties and classifications of quarks and leptons, including their flavors and generations.

Understanding the four fundamental forces and their mediating exchange particles (bosons).

Introduction to units of astronomical distance (AU, light-year, parsec) and stellar brightness (apparent and absolute magnitude).

The birth, life, and death of stars based on their initial mass and the Hertzsprung Russell diagram.

Interpreting the H-R diagram to understand stellar evolution, luminosity, temperature, and spectral class.

Tracing the life cycle of stars from protostars to their final stages (white dwarfs, neutron stars, black holes).

Evidence for the expanding universe, including Hubble's law and cosmic microwave background radiation.

Exploring the Big Bang theory, its key evidence (CMBR, abundance of light elements), and its implications.

Introduction to the concepts of dark matter and dark energy and their roles in the universe's structure and expansion.

The physics of optical, radio, and X-ray telescopes and their resolving power.

Exploring various techniques used in modern astronomy, including spectroscopy, interferometry, and adaptive optics.