Our Physics curriculum intends to promote exploration and understanding of the world around us. We aim to inspire and challenge students to engage in the wonderment and awe of everyday. Our content is presented in an order that tells a coherent and logical story through physics, with a strong emphasis on using practicals to embed skills and knowledge. We encourage teamwork, logical problem solving and clarity of communication.
Physics should encourage students to ask questions about the world around them and develop the skills needed to investigate them. Students learn how to apply theory to real-world issues from global energy, communications, ionising radiation, mechanics, right up to fundamental particle and quantum physics, where their study may make a real impact on our future.
Physics is offered as:
Term 1 | Term 2 | Term 3 | Term 4 | Term 5 | Term 6 | |
---|---|---|---|---|---|---|
Year 10 | Energy | Electricity | Particle model of matter | Atomic structure | Forces – motion and newtons laws | Forces – pressure, moments and springs |
Year 11 | Waves – principles and properties of waves | Waves – electromagnetic spectrum and properties of light | Electricity and magnetism | Space | Revision |
Students start by learning that nothing can happen without the transfer of energy, leading to an enhanced understanding of the universe. They are introduced to the idea that energy can be determined by measurements and that an appreciation of energy can help us make informed decisions about our uses of energy and their consequences. In the next topic we look at static and current electricity, using practical activities to investigate different types of circuit, including factors affecting resistance. They discover how electricity is transmitted to homes and about the energy and power transfers involved. Particle models are explored, including ideas about internal energy and specific heat capacity, along with their role when thinking about density. Students are introduced to some of the ideal gas laws. In “atomic structure”, students learn more about the current model of the atom and how this has been developed. They are introduced to ionising radiation and consider hazards relating to using them. The Forces topic teaches what forces are and what they do, including how motion can be calculated, Newton’s laws, turning effects and pressure. Throughout the course, students are given opportunities to carry out investigations and develop their practical skills.
Students learn about light and sound as waves, as well as how other electromagnetic waves behave. They investigate the behaviour of waves and learn about some of their uses, including in medicine. Students learn the key terms used to describe waves and how to accurately draw ray diagrams for lenses. Following this, we look at the basics of magnetism and the links between electricity and magnetism. This includes the studying of motors, generators, speakers, microphones and transformers. Students are given opportunities to practise maths skills, including rearranging equations and interpretation of graphs. The course concludes with the unit “Space” where we look at the origin and life cycle of the stars, including the role of gravity. We learn how we are able to state that the Universe is expanding and investigate phenomena such as red-shift and the big bang. Throughout the course, students are given opportunities to carry out investigations and develop their practical skills.
Throughout the course, students receive informal assessment via a mixture of verbal and written feedback, and using self and peer assessment. Students also experience formal mock examinations to familiarise with the examination protocol.
At the end of year 11 students are externally assessed in two written examinations:
Paper 1: | Paper 2: |
---|---|
What’s assessed
Topics 1-4: Energy; Electricity; Particle model of matter; and Atomic structure. | What’s assessed
Topics 5-8: Forces; Waves; Magnetism and electromagnetism; and Space physics. |
How it’s assessed
| How it’s assessed
|
Questions
• Multiple choice, structured, closed short answer and open response. | Questions
• Multiple choice, structured, closed short answer and open response. |
In addition, students complete “required practicals” at appropriate points in the scheme of work. Knowledge on these practicals is assessed in the written papers.
Books:
Websites:
Term 1 | Term 2 | Term 3 | Term 4 | Term 5 | Term 6 | |
---|---|---|---|---|---|---|
Year 12 | Energy production Waves | Thermal physics Atomic, nuclear and particle physics | Electricity and magnetism HL: Wave phenomena | Electricity and magnetism Option topic (TBC) | Mechanics Option topic completion | Mechanics HL: Electromagnetic Induction |
Year 13 | Mechanics Circular motion and gravitation | Circular motion and gravitation HL: Quantum and nuclear physics | Mocks and Revision | Revision |
Physics is the most fundamental of the experimental sciences in the International Baccalaureate, as it seeks to explain the universe itself from the very smallest particles to the vast distances between galaxies. In year 12, students build upon previous knowledge to look at more complex problems such as objects in circular motion, field forces and wave theory. Models are developed to try to understand observations, and these themselves can become theories that attempt to explain the observations.
Through studying the topics outlined above, Physics students should become aware of how scientists work and communicate with each other. In addition, through the overarching theme of the “Nature of Science” this knowledge and skills will be put into the context of the way science and scientists work in the 21st century and the ethical debates and limitations of creative scientific endeavour.
Students explore the lifecycle of the stars in detail, along with the role of gravity in the universe, including theories on how the universe was created and how it will end. They learn how to calculate the size of electromagnetic forces and use laws to predict their directions. Students go on to look at global energy use, making detailed calculations and evaluating alternatives to fossil fuels. Students enjoy looking at fundamental particles and interactions and touching on some basic Quantum theory.
Students are taught practically, with opportunities to design investigations, collect data, develop manipulative skills, analyse results, collaborate with peers and evaluate and communicate their findings. Students develop the skills to work independently on their own design, but also collegiately, including collaboration with schools in different regions, to mirror the way in which scientific research is conducted in the wider community.
Throughout the course, students receive informal assessment via a mixture of verbal and written feedback, and using self and peer assessment. Students also experience formal mock examinations to familiarise with the examination protocol. Practice practical work is carried out in preparation for the Internally assessed investigation.
Formal assessment at the end of year 13 consists of the following HL papers:
Length of examination | Weighting | |
---|---|---|
Paper 1 Multiple choice | 1 hour | 20% |
Paper 2 Short answer and extended response | 2 hours 15 mins | 36% |
Paper 3 Measurement and uncertainties and option topic | 1 hour 15 mins | 20% |
Internal assessment | 10 hours lab + write up time | 24% |
Books:
Websites:
Rule of law: Ethics of nuclear power/medicine and global warming. Practical rules for safe practice.
Mutual respect: Peer review, applying the scientific method.
Tolerance of others’ faith and beliefs: Big bang theory