Art and Design · Year 6 · Architecture and Built Environments · Autumn Term

Designing Sustainable Shelters

Designing and building small-scale models of eco-friendly structures using recycled materials.

• National Curriculum Attainment Targets
• KS2: Art and Design - Sculpture and 3D Form
• KS2: Art and Design - Design and Sustainability

About This Topic

Designing Sustainable Shelters engages Year 6 students in creating small-scale models of eco-friendly structures from recycled materials like cardboard, bottles, and fabric scraps. They transform waste into aesthetic features, predict functionality for climates such as wet UK winters or hot summers, and evaluate how form supports sustainable purposes like insulation or water resistance. This meets KS2 Art and Design standards for sculpture, 3D form, and design sustainability, fostering creativity alongside practical environmental awareness.

Students develop skills in problem-solving and critical evaluation by sketching ideas, prototyping, and testing models against real-world criteria. Connections to geography reinforce how built environments adapt to local conditions, while discussions on material lifecycles build responsibility. Peer feedback sessions encourage iteration, turning initial designs into refined, functional sculptures.

Active learning excels in this topic because hands-on building with recycled materials allows students to experiment directly with structural challenges, collaborate on solutions, and observe cause-effect relationships like material strength under simulated weather. This tangible process makes abstract sustainability concepts concrete, boosts confidence through visible success, and promotes retention through repeated testing and refinement.

Key Questions

1. Explain how waste materials can be transformed into aesthetic architectural features.
2. Predict what makes a design functional for a specific climate and environment.
3. Evaluate how the form of your sculpture follows its intended sustainable function.

Learning Objectives

• Design a small-scale model of a sustainable shelter that incorporates at least two recycled materials for structural or aesthetic purposes.
• Analyze how specific design choices, such as roof pitch or material placement, contribute to a shelter's functionality in a given climate (e.g., rain, sun).
• Evaluate the effectiveness of their own and a peer's shelter design based on criteria for sustainability and aesthetic transformation of waste materials.
• Explain how at least one waste material was transformed from its original state into an architectural feature within their shelter model.

Before You Start

Basic 3D Construction Techniques

Why: Students need foundational skills in cutting, joining, and stabilizing materials to build their shelter models.

Properties of Materials

Why: Understanding how different materials behave (e.g., strength, flexibility, water resistance) is crucial for selecting and using recycled items effectively.

Key Vocabulary

Recycled Materials	Items that would otherwise be thrown away, such as plastic bottles, cardboard, or fabric scraps, that are repurposed to create new objects.
Sustainable Design	Creating structures that minimize negative environmental impact through efficient use of resources, energy, and materials, often incorporating recycled elements.
Structural Integrity	The ability of a model or building to withstand forces and loads without collapsing or deforming excessively.
Aesthetic Transformation	Changing the appearance or visual appeal of waste materials to create something beautiful or interesting within an architectural context.
Climate Adaptation	Designing a shelter to function effectively in specific weather conditions, such as providing shade in hot weather or protection from rain.

Watch Out for These Misconceptions

Common Misconception

Recycled materials cannot create strong structures.

What to Teach Instead

Items like layered cardboard or bottle weaves provide excellent strength when joined properly. Building and stress-testing activities let students discover this through hands-on trials, shifting views from assumption to evidence-based understanding.

Common Misconception

Sustainable designs must look plain and unattractive.

What to Teach Instead

Aesthetic appeal comes from creative forms, such as patterned bottle walls or curved scrap roofs. Peer gallery walks highlight successful examples, where students discuss and replicate beauty in eco-friendly ways during critiques.

Common Misconception

All shelters need identical features regardless of environment.

What to Teach Instead

Features vary: open designs for hot climates, sealed for cold or wet ones. Simulated environment tests in groups reveal mismatches, prompting redesigns that match specific conditions through collaborative prediction and observation.

Active Learning Ideas

Scavenger Hunt: Material Gathering

Students search the school grounds for safe recycled items like boxes and bottles. Sort materials by properties such as rigidity or waterproofing in class lists. Discuss group findings on potential architectural uses.

25 min·Whole Class

Pairs Sketching: Environment Challenges

In pairs, assign a climate like rainy UK or desert heat. Sketch shelter designs labeling sustainable features such as ventilation or recycled insulation. Present sketches to the class for initial feedback.

30 min·Pairs

Small Groups Build: Prototype Testing

Groups construct models from sketches using glue and tape. Test stability by shaking or simulating rain with spray bottles. Adjust designs based on failures and record improvements.

45 min·Small Groups

Gallery Walk: Peer Evaluation

Display finished models around the room. Groups rotate to evaluate others using criteria like functionality and aesthetics. Provide written feedback and suggest sustainable tweaks.

20 min·Small Groups

Real-World Connections

• Architects like Shigeru Ban design emergency shelters and permanent structures using cardboard tubes and other recycled materials, demonstrating how waste can be a primary building component.
• Eco-villages and sustainable housing projects around the world, such as the Earthship communities in New Mexico, utilize tires, bottles, and cans to construct homes that are energy efficient and environmentally responsible.
• Urban planners consider how to incorporate green roofs and recycled materials into public buildings and infrastructure to manage stormwater runoff and reduce the urban heat island effect.

Assessment Ideas

Peer Assessment

Students display their finished shelter models. Provide each student with a checklist including: 'Does the shelter use at least two recycled materials?', 'Are the recycled materials transformed into an aesthetic feature?', 'Does the design appear functional for a specific climate?'. Students use the checklist to assess a peer's model and provide one written comment on a strength or area for improvement.

Exit Ticket

On a small card, ask students to write: 'One way I transformed waste material into an architectural feature in my shelter.' and 'One challenge I faced in making my shelter sustainable and how I addressed it.'

Quick Check

During the building process, circulate with a clipboard. Ask students: 'What recycled material are you using here and why?', 'How does this part of your design help the shelter be sustainable?', 'What climate are you designing for and how does your design respond to it?' Record brief notes on their responses.

Frequently Asked Questions

What recycled materials work best for Year 6 sustainable shelter models?

Safe options include clean cardboard tubes for frames, plastic bottles for walls, fabric scraps for roofs, and corks for joints. Check for sharp edges and cleanliness first. These materials teach properties like flexibility and water resistance through sorting activities, while encouraging resourcefulness and linking to real architecture like bottle schools in Guatemala.

How do I assess student designs in sustainable shelters?

Use rubrics covering transformation of waste into aesthetics (creativity), functionality for given climates (prediction accuracy), and form-function evaluation (self-reflection). Include peer feedback scores. Portfolios with sketches, photos, and test notes provide evidence of process, aligning with KS2 progression in design and sustainability.

How does this topic connect to other UK curriculum areas?

Link to geography through climate adaptation and human environments, science via material properties and forces, and design technology for structures. Maths integrates measurement and scale. Cross-curricular projects, like calculating model energy efficiency, deepen understanding and show real-world applications across subjects.

How can active learning help with designing sustainable shelters?

Active approaches like material hunts, prototyping, and testing make sustainability experiential, as students handle recycled items and witness structural successes or failures firsthand. Collaboration in groups builds evaluation skills through shared critiques, while iteration fosters resilience. This hands-on method outperforms lectures by connecting abstract eco-principles to tangible outcomes, improving engagement and long-term recall in Year 6 artists.