Why do we learn science?
Students at Ark Burlington Danes study science because it is a fundamental to the way we live and developing our futures. Scientific knowledge will allow students to solve practical problems, make informed decisions, and have the future potential to develop new technologies.
The scientific mindset that we teach our students will be key to them being able to identify problems, assess those problems and devise solutions to these problems using science knowledge. These skills will allow them to engage with the world around them, making informed decisions based on science knowledge and principles.
The goal of science education is not knowledge of a body of facts and theories but a progression towards key ideas which enable understanding of events and phenomena of relevance to students’ lives.
Science is one of the most important subjects in school due to its relevance to students’ lives and the universally applicable problem-solving and critical thinking it uses and develops. These are lifelong skills that allow our students to generate ideas, weigh decisions intelligently and even understand the evidence behind decision making. A science education allows students to make connections to the world around them it is empowers them but also allows them to adapt and have insights to new advances in the scientific world.
Head of Department
Ms Lorna Achampong
Our approach
We follow a coherent 5-year curriculum that every lesson is connected to, with a sophisticated interleaving of knowledge, practical and enquiry skills, mathematics and communication.
The Science Mastery 5-year curriculum map is organised under the ‘big ideas’ of science. This allows pupils to make links between topics, building ideas into a coherent picture of how the world works. Presenting new information under the umbrella of a familiar ‘big idea’ helps pupils to recognise the connectedness of science, and also how each new topic connects to everyday life and familiar contexts. This approach allows for the planned interleaving of prior learning with new learning in a meaningful way. We use engaging lessons, practical work and a real focus on science in their everyday lives to make sure they have the fundamental knowledge to progress.
The results of students throughout key stage 3 will enable us to decide who goes on to study separate science and who goes on to do combined science. Separate science allows students to gain 3 GCSEs in biology, chemistry and physics and combined science allows students to gain 2 GCSEs. Students who are aiming to do A levels in science are advised to do separate science as more content is covered which directly links to topics in the A level sciences.
Academic progress is important when guiding our decisions for separate sciences in key stage 4 and A level in key stage 5 but a good attitude, willingness to work and a desire to move into a scientific field is also looked upon favourably.
Year 7 - Science
Autumn |
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Cells Particles Forces Reproduction |
Spring |
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Atoms, Elements & Compounds Space Interdependence |
Summer |
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Mixtures Energy Transfers Electric Circuits: Current and potential difference |
Year 8 - Science
Autumn |
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Tissues and Organs Acids and Alkalis Movement and Pressure Respiration and Photosynthesis |
Spring |
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Changing substances Magnetism Life diversity Earth Systems |
Summer |
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Electric Circuits-Resistance Nutrition Light |
Year 9 - Science
Autumn |
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Growth and Differentiation The Periodic Table Acceleration Human Interaction |
Spring |
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Introduction to Quantitative Chemistry Heating Genetics |
Summer |
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Using Resources Sound and Waves Home Electricity |
Year 10 - Science
Autumn |
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The digestive system Structure and bonding Movement Circulation and respiration |
Spring |
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Extraction of metals Energy conservation Plant and Material Cycling Quantitative Chemistry |
Summer |
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Electric circuits and energy Health and disease Energy Changes Radioactivity Ecology |
Year 11 - Science
Autumn |
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Hormonal Coordination Electromagnetic Waves Adaptations, Interdependence & Competition The Earth's Atmosphere The Earth's Resources Variation and Evolution Electromagnetism Genetics and Evolution Rates and Equilibrium Crude Oil and Fuels |
Spring |
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Organising an Ecosystem Forces in Balance Force and Motion Chemical Analysis |
Summer |
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Revision and Exams |
Year 12 - Science
Autumn | ||
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Biology | Chemistry | Physics |
Biological Molecules Nucleic Acids Cell Structure Transport Across Cell Membranes Cell Recognition and the Immune System |
Atomic structure Amount of Substance Bonding Oxidation, Reduction and REDOX Group 2 Group 7 Periodicity |
Mechanics Materials |
Spring | ||
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Biology | Chemistry | Physics |
Exchange Mass Transport DNA, Genes and Protein Synthesis Genetic Diversity Biodiversity |
Introduction to Organic Chemistry Kinetics Alkanes Halogenoalkanes Alkenes and Alcohols Equilibria |
Electricity Waves Particles |
Summer | ||
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Biology | Chemistry | Physics |
Photosynthesis Respiration |
Thermodynamics Kinetics Practical endorsement Year 12 intervention/catch-up/exam review |
Wave particle duality Circular motion |
Year 13 - Science
Autumn | ||
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Biology | Chemistry | Physics |
Energy and Ecosystems Response to Stimuli Nervous Coordination and Muscles Homeostasis |
Aromatic chemistry Kp Carbonyl chemistry Acids and Bases Amines and their reactions |
Simple harmonic motion Thermodynamics Fields |
Spring | ||
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Biology | Chemistry | Physics |
Inherited Change Populations and Evolution Populations in Ecosystems Gene Expression Recombinant DNA Technology |
Organic synthesis Structure determination Chromatography Periodicity Transition metals Reactions of organic compounds |
Nuclear physics Turning points |
Summer | ||
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Biology | Chemistry | Physics |
Revision & Exams | Revision and Exams | Revision and Exams |