About this resource
This page provides the draft Years 0–10 Science Learning Area. This is now available for wider feedback and familiarisation. The current Science curriculum remains in effect until 1 January 2027 and can be found here The New Zealand Curriculum – Science.
Mā te whakaaro nui e hanga te whare; mā te mātauranga e whakaū. By great thought the house is built; by knowledge it is made firm. |
Purpose statement
The Science learning area equips students with disciplinary knowledge and practices to understand, explain, and explore the physical and biological world. Across the key strands of physical sciences and biological sciences, students are taught foundational scientific knowledge that underpins their engagement with scientific practices.
Through the study of Science, students learn how to observe systematically, ask testable questions, design investigations, analyse data, and communicate findings using scientific conventions. They engage with science as a dynamic, evidence-based discipline shaped by empirical inquiry, peer critique, and social and cultural contexts.
The Science learning area provides students with tools to understand that scientific knowledge evolves through the convergence of evidence from multiple studies, and that robust explanations must be substantiated through inquiry. Students learn that science is a collaborative and iterative process, where innovation and dissent are valued when grounded in evidence.
As students progress through Science, they deepen their understanding of how disciplinary knowledge and scientific practices work together, which supports them to investigate real-world phenomena. They learn that science is a human endeavour shaped by people from many times, places, and cultures, and that diverse perspectives, including te ao Māori, can enrich scientific thinking and practice.
Learning Area Structure
The year-by-year teaching sequence lays out the knowledge and practices to be taught each year.
In Science Years 0–10: teaching is structured around the following two strands:
- Physical Science: Focuses on matter, energy, forces, motion, and Earth and space systems. It develops students’ understanding of how physical systems behave and interact, and how scientific reasoning and modelling are used to explain and predict phenomena.
- Biological Science: Focuses on organisms, body systems, genetics, ecosystems, and biological processes. It develops students’ understanding of how living systems function and change and how scientific knowledge connects to health, sustainability, and biodiversity.
The year-by-year teaching sequence, organised through strands and elements, sets out what is to be taught. Its enactment is shaped by teachers, who design learning in response to their learners, adjusting the order and emphasis and adding appropriate contexts and content.
Science is a human endeavour of collaboration, creativity, and discovery, engaging hundreds of thousands of people worldwide. To celebrate this, we highlight some prominent scientists who have made influential scientific discoveries or advances relevant to the content being taught. Emphasising the human stories, values, and impacts of science enriches the teaching and learning of the knowledge and practices.
Introduction
Across Years 0–10, science learning builds progressively from concrete observation to abstract reasoning, supporting students to explore, investigate, and explain the physical and biological world. The teaching sequence is best understood as a developmental arc, with knowledge, scientific practices, and conceptual understandings deepening over time. This supports schema-building around the systems, patterns, and processes that shape life and the universe. Knowledge has been selected to reflect everyday phenomena and systems students can directly experience, ensuring relevance and accessibility within the context of New Zealand.
In Years 0–3, teachers support students to begin observing and describing their surroundings, fostering foundational scientific knowledge and curiosity through direct, hands-on experiences. Students identify and describe observable features, compare behaviours, and use simple models to explain phenomena. Teaching supports the development of science-specific observational skills, sensory exploration, concrete thinking, and communication grounded in facts and evidence.
In Years 4–6, teachers help students to ask testable questions, explore cause and effect, and use simple models to explain what they see. Students test properties (e.g. density, buoyancy), investigate forces and energy transfer, and apply cause-and-effect reasoning to explain physical and biological processes. Teaching supports students to begin using standard measurement, identify variables, and interpret data. Across these years, the knowledge and practices lay the foundation for working scientifically through integrated observation, reasoning, and early data handling.
In Years 7–8, teachers support students to apply scientific practices with greater structure and precision, carrying out investigations, analysing and interpreting data, and constructing evidence-based explanations of more complex systems. Students design and conduct fair tests, use particle models to explain changes, and interpret electrical circuits. Through structured investigations, they observe cells using microscopes or digital images, model inheritance and adaptation, and explain ecological relationships using data and diagrams. Teaching supports evidence-based explanation and reasoning, systems thinking, and interdisciplinary connections.
In Years 9–10, teachers guide students to apply scientific knowledge and practices to increasingly abstract and interdisciplinary contexts. Students engage in independent scientific inquiry and apply model-based thinking to explain relationships. Students use evidence to critique claims, model systems, explain interactions across strands, apply algebraic reasoning, evaluate data quality, and construct scientific arguments. Teachers provide opportunities for students to represent chemical reactions using equations, calculate energy efficiency, and analyse motion using Newton’s laws and graphical data. Teachers support students to interpret genetic and environmental influences on traits, model immune responses, and evaluate human impacts on ecosystems using scientific and environmental data.
The Science learning area prepares students with the knowledge, practices, and capabilities to access related curriculum subjects for Years 11–13, including Biology, Chemistry, Earth and Space Science, Physics, Agricultural and Horticultural Science, and Primary Industries.
Links to Science supports and resources:
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