Best for
Years 9-10 science, climate literacy, sustainability inquiry, and local environment discussion.
Science • Years 9-10 • Ready to use tomorrow
Help ākonga connect climate science to local places, te taiao, and kaitiakitanga. This handout gives you a complete inquiry scaffold so students can investigate impacts, responses, and responsibilities in an Aotearoa context.
This handout is ready to print and teach as-is. If you want to swap in your awa, coastline, flood event, drought case, or local species focus, Te Wānanga can generate a class-specific version while keeping the science and te taiao lens intact.
If the lesson mentions observation prompts, recommendation frames, or local action scaffolds, they are already included here so kaiako can pick up and go.
This handout works best when the curriculum story is explicit. Use the linked companion page for planning, moderation, and reporting around climate science, environmental literacy, and place-based inquiry in Aotearoa.
Climate change in Aotearoa is not just a global graph. It shows up in flooding, drought, coastal erosion, sea temperature change, and pressure on ecosystems and communities. A strong classroom response keeps the science visible while also asking what care, guardianship, and local action should look like.
Using te taiao as a lens helps students think about climate change relationally: what happens to people, whenua, wai, and other living things together?
How are stronger storms, sea-level rise, or erosion affecting local coastlines, marae, roads, or habitats?
What communities, awa, farms, or urban areas are under pressure from more intense rainfall?
How could hotter, drier periods affect water use, food production, or ecosystem health?
Which local species, mahinga kai, or habitats are vulnerable as temperatures and seasons shift?
Write a short recommendation to your class, kura, local council, or community group explaining:
Invite students to ask whānau or local community members what climate changes they have noticed in local weather, seasons, coastlines, ngahere, or waterways. That gives students a way to connect classroom science with community observation and care.
Level 3–4: Investigate how living and physical systems work; understand relationships between organisms and their environments; collect, interpret, and evaluate scientific evidence to explain natural phenomena.
Level 3–4: Understand how human activity affects natural environments; explore the connection between ecological health and community wellbeing; recognise the role of cultural knowledge in environmental decision-making.
Mātauranga Māori is a sophisticated knowledge system built through centuries of careful observation, hypothesis, testing, and refinement — the same processes that define scientific inquiry. Māori knowledge of ecology, weather patterns, seasonal change, and animal behaviour guided sustainable resource management for generations before Western science arrived in Aotearoa. Understanding science through a dual-knowledge lens — bringing mātauranga Māori and Western science into dialogue rather than hierarchy — produces richer, more contextually grounded understanding. The concept of kaitiakitanga reminds us that scientific knowledge carries obligations: understanding how natural systems work means accepting responsibility for how we treat them.
Reflect on your learning. What was the most important idea? What question do you still have?
This handout is designed to be used alongside the broader unit resources available at Te Kete Ako handouts library. Related resources from the same unit are linked in the unit planner. All resources are provided — no additional preparation is required to use this handout in your classroom.
Students will engage with this resource to explore how mātauranga Māori and Western science offer complementary frameworks for understanding and responding to environmental challenges — learning to read landscapes, ecosystems, and ecological change through both indigenous and scientific lenses.
Scaffold support: Provide dual-lens analysis frameworks (mātauranga Māori lens | Western science lens) for entry-level comparison tasks. Offer extension challenges asking students to investigate a real environmental monitoring programme in Aotearoa that integrates both knowledge systems — for example, iwi-led water quality monitoring using both traditional indicators and scientific sampling.
ELL / ESOL: Environmental and scientific vocabulary (ecosystem, biodiversity, indicator species, sustainability, kaitiakitanga, taonga species) benefits from visual glossaries with images of local species and environments. Allow students to discuss environmental observations from their home countries as valid comparative contexts. Oral field observation is a powerful entry point that reduces language barriers.
Inclusion: Outdoor and field-based learning naturally supports diverse learners — sensory, kinaesthetic, and place-based engagement complements classroom tasks. Neurodiverse learners often thrive in structured outdoor inquiry. Ensure physical accessibility is considered for field components. Indigenous and Pacific students may bring family knowledge of traditional environmental practices — create space for this knowledge to be honoured, not just acknowledged.
Mātauranga Māori lens: Mātauranga Māori environmental knowledge is not folklore — it is centuries of systematic observation, classification, and adaptive management. Ngā tohu o te rangi (signs of the weather), ngā tohu o te taiao (signs of the natural world), and the detailed ecological knowledge encoded in place names all represent sophisticated environmental science. Kaitiakitanga is not simply "conservation" — it is a dynamic, relational ethic of guardianship that recognises humans as part of, not separate from, ecosystems. Marama Muru-Lanning and other contemporary mātauranga Māori researchers are demonstrating how this knowledge enriches environmental science.
Prior knowledge: Students benefit from foundational understanding of ecosystems and environmental science concepts. No specialist mātauranga Māori knowledge required — the unit builds this knowledge through inquiry.