Energy CPD videos
CPD for 11-14 14-16 16-19
When teaching this topic, it is important to avoid your students conflating the energy analysis with an explanation of what’s going on. Energy is about doing calculations; it is a useful tool for predicting what can happen but shouldn't be used to explain phenomena.
Meet the presenters
(Left to right, IOP Coaches) Alessio Bernardelli, David Richardson, Jess Hamer, Joanna Kent & Trevor Plant.
- Energy stores (11-14)
- Choosing start and end points (11-14)
- Building energy calculations from the ground up (11-16)
- Introducing energy calculations (14-16)
- Thermal store (14-16)
- Energy calculations in action (14-16)
- Introduction to kinetic theory and the gas laws (16-19)
- The gas laws (16-19)
- Ideal gas law (16-19)
- The kinetic theory equation (16-19)
- Links to teaching resources
Jo and Trevor discuss the idea of energy stores and how they can be used when teaching about energy.
Jo and Trevor demonstrate how choosing different start and end points leads to different descriptions of energy shifting, and highlights some of the issues to consider in the choice.
Rachel discusses why an energy account is important and shares approaches to help build confidence with calculations.
Alessio introduces the main energy calculations. He uses graphs to make links between gravitational potential and kinetic energy equations.
David focuses on the thermal store and shows effective ways to carry out practicals to calculate the specific heat capacity of different substances, as well as the latent heat of fusion and vaporisation.
David and Alessio explore the energy stores involved in running and introduce practicals to estimate energy in action.
Jess covers some key terminology in kinetic theories, discusses Brownian motion and explains why kinetic theory is important in understanding the gas laws.
Joe takes a peek at the fundamental model of gas laws: particles as a model of gases and their behaviour.
Joe introduces the Zeroth law and the ideal gas equation, constructed from our independent gas laws.
Joe combines the macroscopic with our core model to derive an expression for kinetic energy of a molecule in a gas and takes a look at PV graphs.