Unit 3: STEM Through MÄtauranga MÄori
Dual Knowledge Systems for Environmental Action
This 8-10 week unit integrates traditional MÄori environmental knowledge with contemporary STEM approaches. Students will learn how these two powerful knowledge systems can work together to create innovative solutions for the environmental challenges facing our communities and our planet.
Whakatūwhera - Unit Opening
In this unit, we explore how mÄtauranga MÄori and Western science are not opposing forces, but complementary ways of understanding our natural world. Through the lens of kaitiakitanga, we become environmental guardians using both traditional wisdom and modern technology.
"Ko au te taiao, ko te taiao ko au" - I am the environment, the environment is me.
Weeks 1-2: Dual Knowledge Systems
"He waka eke noa" - A canoe which we are all in with no exception
Learning Focus
Students investigate the nature of knowledge itself, moving beyond the idea that science is the "only" way to understand the world. They explore how MÄtauranga MÄori (local, place-based, holistic) and Western Science (universal, siloed, analytical) can work together.
Key Concepts
- Observation (Titiro): The foundation of all science.
- Maramataka: The MÄori lunar calendar as a predictive scientific tool.
- Empiricism vs Holism: Comparing how different cultures gather data.
Core Activities
- Lesson 1: Dual Knowledge Systems - Ranking "truth" and exploring different ways of knowing.
- Lab: Comparative Analysis - Testing a hypothesis using both scientific method and tikanga observation.
Weeks 3-4: Kaitiakitanga in Action
"Toitū te whenua, whatungarongaro te tangata" - The land remains when people have disappeared
Learning Focus
Applying the dual systems to the environment. Students learn to read the "tohu" (signs) of nature. Using bio-indicators (like the health of harakeke or presence of kawakawa looper moths) alongside chemical water testing.
Key Concepts
- Bio-indicators: Plants/animals that signal ecosystem health.
- Mauri: Understanding the "life force" of a river or forest physically and spiritually.
- RÄhui: Conservation as a spiritual and practical restriction.
Core Activities
- Lesson 2: Kaitiakitanga - Field trip preparation and protocol.
- Field Work: Bio-Indicator Survey vs Chemical Testing match-up.
Weeks 5-6: Cultural Maths & Eco-Tech
From Pattern to Prototype
Mathematics in Design
Unlocking the geometry within kÅwhaiwhai and tukutuku. Understanding that our ancestors were master mathematicians and engineers.
Eco-Innovation
Using biomimicry (adapting nature's designs) and mÄtauranga to solve modern problems (e.g., filtering water using traditional wetland designs).
Core Activities
- Lesson 3: Cultural Maths - Geometry of the Wharenui.
- Lesson 4: Eco-Tech - Design Challenge: Create a solution for a local environmental issue.
Weeks 7-8: Community Science Project
"NÄ tÅ rourou, nÄ taku rourou, ka ora ai te iwi" - With your basket and my basket, the people will thrive
Capstone Project: The Dual-Knowledge Report
Students select an environmental issue in their school or community (e.g., waste, water quality, biodiversity loss). They must produce a report/solution that includes:
- Scientific Data: Measurements, graphs, objective analysis.
- Cultural Context: Historical status of the land, whakataukÄ«, and potential for rÄhui or restoration.
- Action Plan: A proposed solution that respects both systems.
Lesson 5: Community Science guides the presentation of these findings.
NgÄ WhÄinga Akoranga ā Learning Intentions
- Students can explain how MÄtauranga MÄori and Western science represent distinct but complementary epistemologies.
- Students can conduct investigations drawing on both empirical methodology and MÄtauranga MÄori frameworks (whakapapa, tohu, kaitiakitanga).
- Students can critically evaluate claims using criteria from both knowledge systems.
- Students can design a community science project meaningful to local iwi and whÄnau.
Paearu Angitu ā Success Criteria
- I can describe two ways MÄtauranga MÄori and Western science answer the same question differently ā and explain why both have value.
- I can document field observations using frameworks from both knowledge traditions.
- I can present community science findings to an audience that includes whÄnau or kaitiaki.
Teacher Planning Snapshot
Curriculum Alignment
Science ā Te Mataiaho Phase 1 (Years 1ā3 entry point for this Phase 1 sub-unit). Nature of Science strand: multiple ways of knowing. Cross-curricular with Social Sciences. Aligns with Te Mataiaho's mandate to incorporate mÄtauranga MÄori alongside Western science. Community-facing assessment: authentic audience.
MÄtauranga MÄori Lens
Dual-knowledge design holds both epistemologies as equally valid. Whakapapa organises ecological knowledge relationally. Tohu (signs, indicators) provides observation frameworks alongside Western measurement. Kaitiakitanga orients inquiry toward guardianship. Local iwi or kaitiaki engaged as genuine advisors, not token validators.
Entry / On-level / Extension
- Entry: Guided observation at one local site comparing Western and MÄtauranga MÄori noticing frameworks. Scaffolded reflection prompts.
- On-level: Student-designed investigation requiring both knowledge systems. Community science project with peer feedback.
- Extension: Research an active debate where both systems have produced different findings. Write a position paper navigating the tension honestly.
Inclusion and Accessibility
- Cultural Safety: MÄori students may hold living knowledge of iwi tohu and kaitiakitanga. Invite as expert knowledge ā do not appropriate without permission.
- Neurodiversity: Field journals accepted as visual, sketched, or audio-recorded. Open investigation design supports varied learning styles.
- EAL/D: Bilingual glossary (whakapapa, tohu, kaitiakitanga, epistemology). Dual-system framing reduces disadvantage with purely Western science vocabulary.
š Unit Resources
Downloadable handouts, worksheets, and materials for this unit.