1. School systems map
Choose one familiar area and map the systems that pass through it: water, electricity, food, waste, people, plants and animals. Add arrows where one affects another.
Ask: If one part changed, what else might change with it?
Teacher Field Guide · Sustainability · Ages 6–11
Practical investigations that help students notice systems, compare choices, collect evidence and design achievable improvements—without turning sustainability into a guilt lecture.
Good sustainability activities help primary students understand a real system before asking them to act. For ages 6–11, that can mean tracing where rainwater goes, comparing habitat features, following the path of a classroom resource, testing shade, or using evidence to redesign one everyday routine. The strongest activities connect observation, consequences and a realistic next step.
| Activity | Core idea | Time | Materials | Student outcome |
|---|---|---|---|---|
| School systems map | Interdependence | 25 min | Paper, pencil | Identify how water, energy, materials, people and living things connect |
| Shade and heat comparison | Environment + design | 20 min | Optional thermometer | Use evidence to explain how shade changes a place |
| Rainwater route investigation | Water systems | 20 min | Paper, pencil | Trace where water moves through built and natural surfaces |
| Habitat feature audit | Biodiversity | 25 min | Paper, pencil | Compare which features support living things |
| Resource journey | Consumption systems | 30 min | One everyday item | Identify stages before and after an item is used |
| Use-it-longer challenge | Resource use | 20 min | Classroom object | Design ways to maintain, repair, reuse or share an item |
| One-routine redesign | Problem solving | 30 min | Paper, pencil | Compare options and justify a practical improvement |
| Biodiversity before-and-after plan | Action planning | 30 min | Paper, pencil | Decide what evidence would show whether an action helped |
| Preferred-future school space | Futures thinking | 35–45 min | Paper, pencil | Design a future space balancing people and environmental needs |
Choose one familiar area and map the systems that pass through it: water, electricity, food, waste, people, plants and animals. Add arrows where one affects another.
Ask: If one part changed, what else might change with it?
Compare a shaded area with a nearby exposed surface. Students record temperature if equipment is available, or use safe observational evidence such as surface warmth and comfort.
Ask: Where would extra shade make the biggest difference, and to whom?
After rain, safely trace where water pools, flows, enters soil or reaches drains. Do not approach stormwater openings or moving water.
Ask: Which surfaces slow water down, and which move it away quickly?
Compare two school-ground areas for plant variety, shelter, shade, leaf litter, flowers and visible animal activity without disturbing habitat.
Ask: Which features seem most useful to living things, based on what you observed?
Choose one ordinary classroom item and brainstorm the stages in its journey: materials, making, transport, use and what happens afterwards. Mark any stage where information is unknown.
Ask: Which part of the journey would you want to investigate before making a claim about the “best” choice?
Choose a non-consumable classroom object. Students design three ways to extend its useful life through maintenance, repair, sharing, repurposing or better storage.
Ask: Which idea saves resources without making the object less useful?
Pick a small routine such as paper use, lights, lunch waste or classroom materials. Observe the current routine first, then compare two realistic alternatives.
Ask: What trade-offs would each option create for people, cost, convenience and the environment?
Imagine adding one habitat-supporting feature such as native flowering plants or extra shelter. Before acting, students decide what they would measure now and later to judge whether it helped.
Ask: What evidence would count as improvement?
Students redesign one small outdoor area for a future school, balancing shade, habitat, water, movement, accessibility and human use.
Ask: Which needs compete with each other, and how did your design balance them?
Avoid beginning with “save the planet.” Start with a system students can observe. Then compare options, choose one proportionate action and decide how they would know whether it worked. This keeps sustainability practical, evidence-based and age-appropriate while still giving children meaningful agency.
No. Sustainability also includes biodiversity, water, energy, design, consumption, systems, wellbeing, resource use and considering how decisions affect the future. Waste is one useful context, but it is not the whole subject.
Use a local, observable problem and a manageable scale. Ask students to investigate what is happening, compare choices and propose one realistic improvement. Avoid making children responsible for solving global problems they cannot control.
Yes. The Australian Curriculum treats Sustainability as a cross-curriculum priority. A single investigation can involve Science observation, HASS systems thinking, Maths measurement, English explanation or Technologies design depending on the learning intention.
No. Understanding a system and evaluating evidence are valuable learning outcomes. Action is more meaningful when students first understand the problem and can explain why a particular response makes sense.
Yes. Most can be simplified for a backyard, apartment complex, local park or homeschool setting by choosing one small place or household routine to investigate.
Free first mission
The free nine-page Nature Signal mission gives children aged 6–11 an Agent identity, a 15-minute outdoor investigation and an Earth Protector promise. A parent, guardian or teacher enters the email address.