Unit 9: Environmental Mātauranga — Protecting Our Taiao

"How Do We Fix What's Broken in Our Environment?" — A 6-week journey where students use both mātauranga Māori and modern science to take real action on local environmental problems.

Unit 9 · Week 4

📊 Week 4: Climate Data Analysis — Reading Nature's Warning Signs

Students analyze real NIWA climate data to understand how climate change affects local environments. They connect scientific measurements with traditional climate indicators to develop a comprehensive understanding of environmental change.

Focus Question

How does climate data help us understand environmental problems and plan solutions?

🎯 Learning Intentions

  • Analyze real climate data from NIWA to identify trends and patterns
  • Connect climate changes to local environmental problems observed in previous weeks
  • Compare scientific climate measurements with traditional environmental indicators

✅ Success Criteria

  • I can read and interpret climate graphs and data tables accurately
  • I can calculate climate trends and identify extreme weather events
  • I can connect climate data to environmental problems my team wants to solve

🗣️ Kupu / Vocabulary

  • climate, trend, anomaly, data set
  • indicator, forecast, maramataka, taiao

📚 Curriculum Links

  • Science: Climate systems, data interpretation, evidence-based conclusions
  • Mathematics: Statistical analysis, graph interpretation, percentage calculations
  • Social Studies: Human-environment interactions, cause and effect relationships

Ngā Mahi - Week 4 Activities

1. Hook: Climate Change in the News (15 mins)

Activity: Show recent New Zealand climate headlines (drought, flooding, extreme heat) and ask students to connect these to problems they've observed at school.

Big Picture Connection: The environmental problems we're investigating at school are connected to global climate change. Understanding the data helps us plan better solutions.

2. NIWA Climate Data Analysis (35 mins)

Activity: Work through the NIWA Climate Data Analysis handout with real 2024 data.

  • Calculate average temperature increases across New Zealand cities
  • Analyze rainfall extremes (droughts and floods in same year)
  • Create graphs showing temperature changes over time
  • Count extreme weather events and map their locations
  • Convert temperature changes to percentages for comparison
Mathematics Integration: This activity develops data literacy skills — reading tables, calculating averages, creating graphs, and interpreting statistical patterns.

3. Local Climate Impact Assessment (20 mins)

Activity: Use the Local Climate Impacts Worksheet to connect NIWA data to local environmental problems.

  • Identify which climate changes affect your region specifically
  • Connect climate trends to water quality problems from Week 2
  • Link weather extremes to biodiversity changes from Week 3
  • Predict how climate change might worsen environmental problems identified in Week 1

4. Traditional Climate Knowledge Integration (15 mins)

Activity: Use the Traditional Climate Indicators to compare scientific data with mātauranga Māori.

  • Research traditional Māori signs of climate and seasonal change
  • Interview kaumātua (if available) about observed environmental changes
  • Compare traditional observations with NIWA scientific measurements
  • Identify where traditional knowledge and science agree or complement each other
Mātauranga Māori: Traditional knowledge often provides long-term observations that complement scientific data, offering insights into natural patterns and changes over generations.

5. Environmental Action Planning (25 mins)

Activity: Connect climate data analysis to environmental action planning for the chosen problem from Week 1.

  • Identify how climate change makes your chosen environmental problem worse
  • Research what climate projections predict for your region
  • Brainstorm solutions that address both immediate problems and climate adaptation
  • Consider traditional knowledge in solution design
  • Prioritize actions that will be most effective given climate trends
Strategic Thinking: Understanding climate trends helps us design solutions that will work both now and in the future as conditions continue to change.

💡 Differentiation Strategies

  • Support: Provide pre-calculated data, focus on graph reading rather than calculations, use color-coded data tables
  • Extension: Research global climate data comparisons, investigate climate modeling and predictions, explore carbon footprint calculations
  • Cultural connection: Research local iwi climate adaptation strategies, investigate traditional seasonal calendars and how they're changing

🔄 Assessment & Next Steps

Formative Assessment:

  • Completed NIWA Climate Data Analysis with accurate calculations
  • Local Climate Impacts Worksheet connecting data to observed environmental problems
  • Integration of traditional climate knowledge with scientific data

Preparation for Week 5:

  • Teams use climate insights to refine their environmental action plans
  • Design and test potential solutions that address climate change impacts
  • Prepare to implement and monitor environmental improvement projects

Curriculum alignment

  • Ecosystems — Knowledge: Indigenous knowledge systems, such as mātauranga Māori, are often founded on long-term observations of environmental patterns. For example, ngā tohu o te taiao can be used to …
  • Ecosystems — Practices: Representing ecological data using tables and graphs to interpret patterns and draw conclusions about ecosystem dynamics
  • Ecosystems — Practices: Observing local ngā tohu o te taiao, such as flowering of certain plants or bird migrations, and explaining why these indicators can be used to understand and predict other en…
  • Earth and Space — Practices: Using scientific data (e.g. light years, astronomical units) to interpret and compare the size of, and distances between, celestial bodies, as well as the time scales of event…
  • Earth Systems — Practices: Researching how changes in natural processes and human activities affect the movement and storage of carbon across Earth’s spheres

📋 Teacher Planning Snapshot

Ngā Whāinga Ako — Learning Intentions

Students will explore environmental mātauranga — traditional Māori ecological knowledge — alongside contemporary science to understand Aotearoa's environmental challenges. This unit develops students' capacity to apply both knowledge systems to real environmental issues, building towards informed, culturally grounded kaitiaki action.

Ngā Paearu Angitū — Success Criteria

  • ✅ I can explain key environmental concepts using both scientific and mātauranga Māori frameworks.
  • ✅ I can investigate a local environmental issue and present evidence-based findings.
  • ✅ I can describe what kaitiakitanga means in practice and apply it to a real environmental context in my community.

Differentiation & Inclusion

Scaffold support: Provide structured investigation templates and sentence starters for entry-level access. Offer extension tasks requiring students to independently design an environmental inquiry and present recommendations to a community audience.

ELL / ESOL: Pre-teach key environmental and te reo Māori vocabulary. Provide bilingual glossaries. Allow students to respond in home language first and provide visual supports for all key concepts.

Inclusion: Offer multimodal entry points — field observation, visual analysis, oral discussion. Neurodiverse learners benefit from structured inquiry processes with clear milestones. Ensure outdoor or field-based components are fully accessible with alternatives available.

Mātauranga Māori lens: This unit centres mātauranga Māori as a valid and valuable knowledge system. Explore concepts such as mauri (life force of ecosystems), tohu (environmental indicators), mahinga kai (food gathering practices as ecological knowledge), and the role of the maramataka in environmental monitoring. Frame the unit through the lens of whakapapa — understanding ecological relationships as a genealogy of interconnection.

Prior knowledge: Best used as a capstone or integrative unit. Benefits from prior exposure to both science and social studies ecological content.