Unit 3, Lesson 4: Technology & Innovation
Sustainable Technology Design Challenge with Mātauranga Integration
Students apply their integrated knowledge of traditional wisdom and modern STEM to design innovative solutions for contemporary environmental challenges, drawing on both mātauranga Māori and cutting-edge technology.
Lesson Overview
Duration
90 minutes (double period)
Year Level
Years 0–3
Curriculum Areas
Technology, Science, Design, Te Reo Māori
Karakia & Cultural Opening (5 minutes)
Opening Karakia
"Tiaho mai rā te whakaaro hou
Mai i ngā taonga o neherā
Ki ngā hangarau o nāianei
Hei oranga mō te taiao"
Shine forth new thinking
From the treasures of the past
To the technologies of today
For the wellbeing of the environment
Innovation with Intention
Today we become innovators who honor both tradition and transformation. We combine the sustainable practices of our tīpuna with modern technology to create solutions that serve our communities and protect our environment. Our innovations will reflect our values and our responsibilities as kaitiaki.
Ngā Whāinga Ako - Learning Objectives
Knowledge & Understanding
- Apply traditional innovation principles to modern challenges
- Understand sustainable design as both cultural and environmental necessity
- Recognize how mātauranga Māori enhances technological innovation
- Connect local environmental issues to design opportunities
- Evaluate technology solutions using cultural and environmental criteria
Skills & Application
- Use design thinking process for innovation
- Build and test functional prototypes
- Integrate traditional and modern knowledge systems
- Collaborate effectively in innovation teams
- Communicate design solutions to community audiences
Hook Activity: The Strongest Fiber (10 minutes)
Prediction Challenge
Challenge: Which natural material is stronger: A strand of Harakeke (Flax) or a strand of Spider Silk (of the same thickness)?
Traditional Innovations
- Waka Design: Hydrodynamic hull shapes for efficient water travel
- Rāhui System: Temporary resource restrictions for sustainability
- Hangi Cooking: Geothermal energy for food preparation
- Kete Weaving: Flexible, strong materials from natural fibers
- Star Navigation: Celestial positioning and direction finding
Modern Applications
- GPS Technology: Satellite-based positioning systems
- Biomimetic Materials: Nature-inspired synthetic fibers
- Renewable Energy: Sustainable power generation
- Naval Architecture: Computer-designed efficient ship hulls
- Resource Management: Sustainable quota and rotation systems
Innovation Connections
Discuss: How do traditional innovations show us that our tīpuna were sophisticated engineers and scientists? What principles from traditional innovation could enhance modern technology? What does this tell us about the future of sustainable innovation?
Material Science: Harakeke Engineering
Nature's Carbon Fiber
Harakeke (NZ Flax) is not just a plant - it's a high-performance engineering material. The fiber (muka) extracted from the leaf is one of the strongest natural fibers in the world, historically used for everything from ropes to sails, and now being investigated for modern biocomposites in cars and surfboards.
The Science of Muka
Traditional Extraction (Hāro)
- Technique: Using a mussel shell to scrape away the green epidermis.
- Engineering: Removes the weak fleshy material, leaving only the strong internal fibers.
- Treatment: Boiled and beaten (Patupatu) to soften and strengthen bonds.
Modern Material Properties
- Tensile Strength: Exceptional resistance to being pulled apart.
- Sustainability: Biodegradable alternative to fiberglass and carbon fiber.
- Biocomposites: Mixed with eco-resins to create light, strong manufacturing materials.
Innovation Principles: Traditional Wisdom Meets Modern Design (15 minutes)
Integrated Innovation Framework
Successful innovation happens when we combine the best of traditional wisdom with modern capabilities. Our framework integrates mātauranga Māori principles with contemporary design thinking:
Traditional Principles
- Whakatōhea: Holistic thinking about impacts
- Whakapapa: Understanding relationships and connections
- Mauri: Preserving life force and vitality
- Taonga Tuku Iho: Creating lasting value for future generations
Modern Methods
- Empathize: Deep understanding of user needs
- Define: Clear problem definition
- Ideate: Creative solution generation
- Prototype: Rapid testing and learning
Integration Outcomes
- Sustainable: Environmentally responsible
- Culturally Appropriate: Respects values and protocols
- Community-Centered: Serves real human needs
- Technologically Sound: Uses best available methods
Innovation Mindset
Today you'll work as innovation teams, combining traditional wisdom with modern methods to create solutions that honor our values while addressing contemporary challenges. Remember: the best innovations serve both people and planet.
Design Challenge Introduction (15 minutes)
The Challenge: Local Solutions for Global Problems
Working in teams, choose ONE local environmental challenge and design a technology solution that integrates traditional wisdom with modern innovation. Use the Sustainable Technology Design Challenge handout as your guide.
Challenge Options
- Water Quality: Monitoring and protecting local waterways
- Waste Reduction: Innovative recycling or upcycling systems
- Food Security: Sustainable growing or distribution methods
- Energy Access: Renewable energy for community needs
- Biodiversity Protection: Technology to support native species
Design Requirements
- Traditional Element: Incorporates mātauranga Māori principles
- Modern Technology: Uses contemporary STEM knowledge
- Community Focused: Addresses real local needs
- Sustainable: Environmentally responsible
- Prototype-able: Can be built and tested with available materials
Team Formation & Planning
Form teams of 3-4 students with diverse skills. Spend 10 minutes:
- Choose your environmental challenge
- Research the traditional knowledge relevant to your challenge
- Identify the modern technology you could integrate
- Define your target users and their specific needs
- Map out who is affected (people, animals, environment)
- Define the core problem clearly
- Brainstorm 10 rapid ideas (no judgment!)
- Select your best idea to prototype
- Cardboard & construction materials
- Arduino & basic electronics
- Natural materials (wood, stone, etc.)
- 3D printing access (simple parts)
- Basic tools and fasteners
- Demonstrate core functionality
- Show integration of traditional & modern elements
- Enable user testing and feedback
- Identify areas for improvement
- Communicate your concept effectively
- Addresses chosen environmental challenge
- Shows clear traditional knowledge integration
- Functions as intended (even if simplified)
- Can be tested and evaluated
- Demonstrates team collaboration
- Safety First: Use tools properly, ask for help when needed
- Resource Respect: Use materials thoughtfully, minimize waste
- Collaborative Building: Ensure all team members contribute meaningfully
- Document Process: Take photos and notes of your development process
- Function Test: Does your prototype work as intended?
- User Test: Have another team try using your solution
- Integration Test: How well are traditional and modern elements combined?
- Impact Test: Would this solution actually help with the environmental challenge?
- Sustainability Test: Is this solution environmentally responsible?
- Gather Feedback: What works? What doesn't? What's missing?
- Identify Improvements: What would you change if you had more time?
- Cultural Check: Does your solution honor traditional values?
- Scale Considerations: How could this work for the wider community?
- Next Steps: What would be needed to develop this further?
- Integration: How did you use both traditional knowledge and modern technology? (e.g., "We used the shape of a hīnaki trap but used solar sensors to trigger it")
- Sustainability: Why is your solution good for Papatūānuku?
- Values: Which Maori value (kaitiakitanga, manaakitanga, etc.) drove your design choices?
- Design Thinking: Evidence of empathy, ideation, and prototyping
- Dual Knowledge: meaningful connection of Matauranga Maori and Tech
- Functionality: Prototype demonstrates a clear logic/mechanism
- Collaboration: Effective teamwork and communication
- ✅ Students can identify connections between mātauranga Māori and STEM concepts in this resource.
- ✅ Students can explain how dual knowledge systems strengthen understanding of natural phenomena.
- Nature of Science — Knowledge: Science is a way of investigating, understanding, and explaining our natural, physical world; mātauranga Māori offers complementary systems of knowledge that enrich scientific understanding.
- Identity, Culture, and Organisation: Understand how different knowledge systems — including mātauranga Māori — shape how communities relate to the natural world.
Design Challenge: Eco-Innovation (20 minutes)
The Brief: Solve a Realm Challenge
Work in groups to design a solution for one of the Atua domains using both modern technology and traditional values.
Tangaroa (Water)
Challenge: Plastic pollution in local waterways.
Goal: Design a device or system to collect waste without harming marine life.
Thinking: How would a hīnaki (eel trap) design inform a modern waste collector?
Tāne Mahuta (Forest)
Challenge: Predator pests destroying native birds.
Goal: Create a smart-trap that identifies pests vs native species.
Thinking: How can bird calls or sensor tech distinguish between friend and foe?
Step 1: Empathize & Define
Use the Design Thinking Handout to:
Prototype Building & Development (30 minutes)
Step 2: Build Your Solution
Bring your chosen idea to life! Remember, a prototype is a working model, not a finished product. Focus on demonstrating your core concept.
Available Materials
Prototype Goals
Success Criteria
Building Protocol
Testing & Iteration (20 minutes)
Step 3: Test & Refine
Real innovation happens through testing and iteration. Now test your prototype, gather feedback, and identify improvements.
Testing Protocol
Feedback & Iteration
Step 4: Prepare Your Pitch
Prepare to present your solution to the class. Focus on: your chosen Atua challenge, how you integrated traditional and modern knowledge, what your prototype demonstrates, and what you learned through testing. You have 3 minutes per team!
Whakaata - Reflection & Assessment (5 minutes)
Innovation Assessment
Reflect on your design process:
Success Criteria
Extension Activities
3D Modeling
Use Tincercad or similar software to create a digital 3D model of your solution, refining the engineering details.
Biomimicry Hunt
Research three modern technologies inspired by nature (e.g., Velcro from burrs) and present them to the class.
Community Pitch
Prepare a Shark Tank-style pitch to present your innovation to local iwi or council representatives.
Material Science
Test the tensile strength of different natural fibers (flax, cabbage tree, grass) vs synthetic strings. Record data and graph results.
Whakakapi - Closing Reflection
"Kia māhaki, kia mataara, kia atahua" - Innovation is not just about function; it is about creativity, awareness, and beauty. Today you have walked in the footsteps of ancestral innovators, using your hands and minds to solve problems.
As you go forward, remember that true technology serves life. It does not dominate nature but works with it. You are the next generation of kaitiaki innovators.
Haere tū, haere ora - Go with purpose, go with health!
📋 Teacher Planning Snapshot
Ngā Whāinga Ako — Learning Intentions
Students will engage with this resource to explore the intersection of STEM disciplines and mātauranga Māori — understanding how Indigenous knowledge systems and Western science share complementary ways of knowing the world.
Ngā Paearu Angitū — Success Criteria
Differentiation & Inclusion
Scaffold support: Provide concept maps or sentence frames to scaffold access for students at the entry level. Offer extension tasks exploring specific mātauranga Māori knowledge domains (e.g., tohu āhua rangi, rongoā, whakapapa o te taiao) in greater depth.
ELL / ESOL: Pre-teach key vocabulary in both te reo Māori and English — including domain-specific STEM terms. Bilingual glossaries and visual anchors support comprehension. Allow students to demonstrate understanding in their preferred language.
Inclusion: Tasks are designed for a range of readiness levels. Neurodiverse learners benefit from structured, chunked activities with clear success criteria. Use hands-on, inquiry-based formats where possible. Affirm the value of different ways of knowing.
Mātauranga Māori lens: Mātauranga Māori encompasses astronomy, ecology, navigation, agriculture, and medicine — systems of knowledge developed over centuries. This unit treats mātauranga Māori as epistemically equal to Western science, not supplementary. Bring kaitiakitanga as a guiding ethic: knowledge is held in relationship, not extracted.
Prior knowledge: Students benefit from baseline understanding of the relevant STEM domain. No specialist te reo Māori knowledge required — glossaries provided. Best used after introductory lessons or as a standalone exploration.
Curriculum alignment
Nga Rauemi Tauwehe - External Resources
High-quality resources from official New Zealand education sites to extend and enrich this learning content.
Science Learning Hub
Over 11,550 NZ science education resources for teachers, students and community
Tāhūrangi - Te Reo Māori Education Hub
Official NZ government hub for te reo Māori resources, guidance, and teaching support
🤖 These resources were automatically curated by Te Kete Ako's AI system to complement this content. All external links lead to official New Zealand educational and government websites.