Best for
Ocean health, pollution, environmental systems, and integrated literacy-science learning where students need evidence prompts and stronger civic response thinking.
Integrated inquiry • Microplastics, mauri, and response • Years 7-10 • Print-ready tomorrow
Use this handout to help ākonga understand microplastics through both science evidence and mātauranga Māori. It moves students beyond “pick up rubbish” into a deeper look at how pollution affects mauri, species, people, and the kinds of action that actually matter.
This version is ready to teach. If you want it adapted around a local beach, harbour, awa mouth, school waste stream, or iwi-approved local case study, Te Wānanga can rebuild it while keeping the kaitiakitanga lens and response pathway strong.
If you want students to move from evidence into action without losing depth, the scaffolds are already here.
Use the linked curriculum companion to keep evidence interpretation, environmental systems thinking, and the Aotearoa kaitiakitanga lens visible in teacher planning.
Students often jump straight to “everyone should recycle more”. That is too thin. Stronger inquiry asks what happens to mauri, who carries the harm, and what kinds of response are needed at different levels.
| Evidence or observation | What impact does it suggest? | What action might follow? |
|---|---|---|
| Plastic fibres found in fish or shellfish | ||
| Rubbish and fragments collecting after heavy rain | ||
| Local concern about swimming, kai gathering, or beach health | ||
| Observation that a place no longer feels clean or healthy |
Draw or label who and what is affected when microplastics enter a local waterway or beach: species, kai gathering, recreation, whānau, hapori, and future generations.
What can one person or class change immediately?
What can a school, marae, or local group organise together?
What needs policy, business, council, or industry action?
Which level of action matters most in your case, and why? Use evidence and a kaitiakitanga lens in your answer.
Complete two rows of the table and choose one level of action only.
Trace impacts across the food web or community and justify one strong response.
Explain why a popular action might feel helpful but still be too small on its own.
Level 3–4: Apply number operations, statistical analysis, and mathematical reasoning to solve real-world problems; represent data using appropriate tools; interpret and communicate mathematical findings clearly.
Level 3–4: Understand how mathematical data and statistics are used to describe and analyse social, economic, and environmental patterns; recognise how data can reveal or obscure inequality.
Mathematics has always been part of mātauranga Māori — in the navigation of Te Moana-nui-a-Kiwa, in the architectural precision of wharenui, in the sophisticated storage and accounting systems of rua kūmara, and in the patterns of kōwhaiwhai and tukutuku that encode mathematical relationships in visual form. When Māori students engage with mathematics, they are not encountering something foreign: they are meeting a domain of knowledge that their tīpuna practised with extraordinary sophistication. Framing mathematical learning through whakapapa — connecting concepts to real Māori contexts — is not "cultural add-on" but recognition of where much mathematical knowledge lives in this land.