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Science
Curriculum Intent
Science stimulates and excites students’ curiosity about phenomena and events in the world around them. It also satisfies this curiosity with knowledge. Because science links direct practical experience with ideas, it can engage learners at many levels. Scientific method is about developing and evaluating explanations through experimental evidence and modelling. This is a spur to critical and creative thought. Through science, students understand how major scientific ideas contribute to technological change – impacting on industry, business and medicine and improving quality of life. Students recognise the cultural significance of science and trace its world-wide development. They learn to question and discuss science based issues that may affect their own lives, the direction of society and the future of the world. Our science curriculum recognises our local context and will develop skills and knowledge which have currency at a local, national and international level. Our science curriculum seeks to set high academic aspirations, reflect local and regional employment opportunities and broaden horizons.
The progression of scientific knowledge from Key Stage 3 through to Key Stage 5 equips students with a deep and coherent understanding of the natural world. Beginning with core concepts in biology, chemistry, and physics, students develop the foundational knowledge and skills needed to ask scientific questions, interpret data, and apply their learning to everyday phenomena. They learn how living systems function, how substances interact, and how forces, energy, and matter underpin the universe.
As students move through Key Stage 4, this knowledge becomes more structured and interconnected. They begin to see the relevance of science in solving global challenges, such as climate change, health, energy, and sustainability. Through increasingly complex ideas—like chemical reactivity, genetic inheritance, or electromagnetism—students learn to think critically, evaluate evidence, and make informed decisions about the world around them.
By Key Stage 5, students are prepared to think and work like scientists. They develop precision in practical work, fluency in scientific language, and confidence in tackling advanced theoretical concepts. Whether continuing into STEM careers or not, students leave with the analytical thinking, problem-solving skills, and curiosity needed to engage with science as informed citizens—ready to contribute to a rapidly changing and scientifically-driven world.
Key Stage 3
The Key Stage 3 Science curriculum is designed to build a strong foundation across biology, chemistry, and physics, enabling students to develop a deep understanding of key scientific concepts and practical skills. Through a wide range of engaging topics, students learn to think scientifically, ask meaningful questions, and apply their knowledge to the world around them.
In biology, students explore the structure and function of cells, body systems, and the processes that sustain life, such as respiration, photosynthesis, reproduction, and digestion. They study ecosystems, inheritance, variation, and natural selection, gaining insight into how living organisms adapt and evolve. Topics such as health and lifestyle, fertilisation, and human development help students connect science to everyday life.
In chemistry, students investigate the properties and behaviours of particles, elements, and compounds. They learn about the periodic table, acids and alkalis, chemical reactions, metals, and the patterns of reactivity. Practical work includes separation techniques and understanding chemical changes through word equations and reaction observations. Environmental chemistry and the use of chemistry in real-life contexts are also explored.
In physics, the curriculum covers forces, motion, energy, electricity, waves, light, sound, and space. Students build and analyse circuits, study magnetism, and explore how energy is stored and transferred. Concepts such as speed, pressure, and Newton’s laws are introduced, supported by data analysis and real-world applications.
Across all three disciplines, the curriculum emphasises investigative work, mathematical reasoning, and the ability to communicate scientific ideas effectively. By the end of Key Stage 3, students are equipped with the knowledge and skills needed for Key Stage 4 science and are better prepared to understand and contribute to the scientific challenges of the modern world.
Key Stage 4
The Key Stage 4 Science curriculum builds on the foundations of Key Stage 3, deepening students’ understanding of biology, chemistry, and physics. It equips learners with the scientific knowledge and critical thinking skills needed to explain natural phenomena, solve real-world problems, and prepare for further scientific study or careers in STEM.
In biology, students explore life at the molecular, cellular, and systemic levels. They study genetics, evolution, and biotechnology, gaining insight into how traits are inherited and modified. Topics such as cell division, reproduction, homeostasis, and disease provide a thorough understanding of the human body and health. Learners also investigate ecosystems, biodiversity, and the impact of human activity on the environment.
In chemistry, students examine the structure of atoms, chemical bonding, and the periodic table. They learn how to predict chemical reactions, balance equations, and analyse rates of reaction. The curriculum explores real-life applications, such as extracting metals, understanding fuels, and using chemistry to tackle environmental issues. Core ideas like energy changes, acids and alkalis, and dynamic equilibrium are taught through both theory and practical work.
In physics, students gain a robust understanding of forces, energy, waves, electricity, magnetism, and atomic structure. They study motion and pressure, calculate work and energy transfer, and analyse the behaviour of materials and systems. Students also explore practical applications of physics such as motors, transformers, and power generation, learning to interpret data and apply mathematical relationships to scientific problems.
Throughout all three disciplines, the curriculum emphasises scientific inquiry, analytical thinking, and the use of evidence. Students develop their practical and mathematical skills while learning to communicate scientific ideas clearly and confidently. By the end of Key Stage 4, learners are well-prepared to progress into advanced study at Key Stage 5 or apply their knowledge in a variety of real-world contexts.
Key Stage 5
At Key Stage 5, the science curriculum is designed to develop students into confident, independent thinkers with a strong grasp of advanced scientific concepts and the practical skills needed for higher education, apprenticeships, and STEM careers. The curriculum deepens theoretical understanding while emphasising real-world application, critical analysis, and scientific literacy.
In Applied Science, students learn to integrate scientific principles from biology, chemistry, and physics with practical skills and workplace contexts. They develop a robust understanding of data collection, laboratory procedures, and experimental design, all while exploring how science is applied in industries such as healthcare, environmental science, and engineering. There is a strong emphasis on evaluation, accuracy, and ethical considerations.
In Biology, students examine life processes from the molecular to the ecosystem level. Topics such as genetics, evolution, cellular biology, and homeostasis allow learners to explore how living systems operate and respond to changes. They engage with cutting-edge fields such as gene expression, biotechnology, and ecology, supported by rigorous experimental work. There is a clear focus on the interconnections between structure and function, variation and selection, and regulation and response.
In Chemistry, the curriculum builds on core principles of atomic structure, bonding, and chemical reactions, expanding into physical chemistry, organic synthesis, and the periodic properties of elements. Students apply advanced mathematical skills to quantify chemical processes and learn to interpret data from spectroscopic techniques. There is a strong focus on real-world application—from the role of chemistry in energy production to pharmaceuticals and sustainable materials.
In Physics, students explore the fundamental principles that govern the universe—from mechanics and electricity to nuclear physics and cosmology. They apply mathematical models to describe complex systems, evaluate experimental evidence, and explore topics such as oscillations, particle physics, and electromagnetic fields. The curriculum fosters precision, logical reasoning, and the ability to model and predict physical phenomena in both theoretical and applied contexts.
Across all disciplines, the curriculum promotes scientific inquiry, problem-solving, and a critical understanding of how science shapes—and is shaped by—technology, society, and the environment. Students are equipped not just with subject knowledge, but with the transferable skills needed to thrive in an increasingly scientific and data-driven world.
