AI-powered Lesson Plans

 Interdisciplinary Lesson Plans for Grades 5–9

Age group: 11–15 years
Subjects integrated: Biology, Geography, Digital Competence, STEM, Citizenship Education and Sustainability
Suggested lesson duration: 45–60 minutes each


Grade 5 – Biodiversity Detectives

Theme Discovering biodiversity around our school

Age 11 years

Learning objectives

Students will:

  • recognise common plants, animals and other organisms in the school surroundings;
  • understand the meaning of biodiversity;
  • observe and record species using digital tools;
  • identify how human activities influence local ecosystems;
  • suggest simple actions to protect biodiversity.

Subjects integrated

Biology: species, habitats, living organisms
Geography: local environment and landscape
Digital competence: digital photography and species-identification tools
STEM: observation, classification and data collection
Citizenship: responsibility for shared environments
Sustainability: biodiversity conservation

Activities

1. Introduction – What is biodiversity? – 5 min

The teacher shows several photographs of a forest, park, schoolyard and meadow.

Students discuss:

  • Which place contains more different living organisms?
  • Why are different species important?

Introduce the term biodiversity.

2. Biodiversity hunt – 15–20 min

In small groups, students explore the schoolyard.

Their challenge is to find:

  • 3 different plants;
  • 2 insects or other small animals;
  • evidence of birds;
  • one human-created element affecting nature.

Students photograph their observations using tablets or smartphones.

They may use an identification application such as Seek, iNaturalist or PlantNet.

3. Digital biodiversity record – 10 min

Students create a simple digital record containing:

Organism

Location

Photograph

Possible species

Habitat

4. Sustainability challenge – 10 min

Groups answer:

What could our school do to increase biodiversity?

Possible ideas:

  • plant native flowers;
  • create an insect hotel;
  • reduce mowing;
  • install birdhouses;
  • avoid pesticides.

Final product

A digital biodiversity diary containing photographs and species observations.

Assessment

Students can:

  • identify several organisms;
  • explain biodiversity in simple terms;
  • collect observations responsibly;
  • propose one realistic biodiversity action.

Grade 6 – Water Detectives

Theme Is our local water environment healthy?

Age 12 years

Learning objectives

Students will:

  • understand the importance of freshwater ecosystems;
  • investigate simple indicators of water quality;
  • analyse environmental data;
  • understand how human activity affects rivers, lakes and groundwater;
  • suggest ways of protecting water resources.

Subjects integrated

Biology: freshwater organisms and ecosystems
Geography: rivers, watersheds and water resources
Digital competence: digital data recording
STEM: measurement and investigation
Citizenship: community responsibility for water resources
Sustainability: clean water and responsible consumption

Activities

1. Water question – 5 min

Ask: Where does the water we use every day come from, and where does it go afterwards?

Students brainstorm household and school water use.

2. Water investigation – 20 min

Students investigate water samples from, for example:

  • tap water;
  • pond water;
  • river water;
  • rainwater.

Possible measurements:

  • temperature;
  • pH;
  • transparency;
  • smell;
  • visible particles.

Students record the results digitally.

Example: Sample

Temperature

pH

Transparency

Observations

3. Analyse the results – 10 min

Groups compare their samples.

Questions:

  • Which sample appears cleanest?
  • Does clear water always mean clean water?
  • What organisms could live there?
  • What could cause pollution?

4. Citizenship challenge – 10 min

Students identify possible local sources of water pollution:

  • agriculture;
  • household wastewater;
  • plastic litter;
  • road runoff;
  • industry.

Groups propose three actions citizens can take to protect water.

STEM extension

Students can design a simple water filter using:

  • gravel;
  • sand;
  • cotton;
  • activated carbon.

Discuss why filtered water is not automatically safe drinking water.

Final product - A digital water-quality report or infographic.

Assessment

Students explain:

  • at least two indicators of water quality;
  • one connection between human activity and water quality;
  • two ways communities can protect freshwater ecosystems.

Grade 7 – Food Kilometres and Sustainable Choices

Theme How far does our food travel?

Age 13 years

Learning objectives

Students will:

  • identify where common foods originate;
  • calculate approximate transportation distances;
  • investigate the environmental impact of food transport;
  • compare local and imported products;
  • understand how consumer choices influence sustainability.

Subjects integrated

Biology: food production and ecosystems
Geography: countries, climate zones and transport routes
Digital competence: digital maps and distance calculators
STEM: distance and data calculations
Citizenship: responsible consumer choices
Sustainability: sustainable food systems

Activities

1. Food investigation – 10 min

Students examine packaging or photographs of common foods such as:

  • bananas;
  • apples;
  • tomatoes;
  • rice;
  • chocolate;
  • potatoes.

They identify the country of origin.

2. Digital mapping – 15 min

Using Google Maps or another mapping tool, students estimate the distance between the production country and their school.

Example:

Product

Country

Approximate distance

Transport type

Banana

Ecuador

10,000 km

ship + truck

Apple

Latvia

80 km

truck

3. STEM calculation – 10 min

Students calculate the total approximate distance travelled by their shopping basket.

They compare:

  • a mostly local basket;
  • a mostly imported basket.

Discussion

Is food transported from far away always environmentally worse?

Introduce other factors:

  • production methods;
  • seasonality;
  • heated greenhouses;
  • transport method;
  • food waste.

4. Sustainable citizen challenge – 10 min

Students create five recommendations for a more sustainable school lunch.

Examples:

  • use seasonal products;
  • reduce food waste;
  • increase plant-based foods;
  • choose local products when practical;
  • recycle packaging.

Final product - A Food Kilometres digital map or infographic.

Assessment

Students demonstrate that they can:

  • locate food-producing countries;
  • calculate approximate transport distances;
  • explain that sustainability depends on several factors;
  • suggest realistic consumer choices.

Grade 8 – Circular Economy Design Challenge

Theme - From waste to resource

Age 14 years

Learning objectives

Students will:

  • distinguish between linear and circular economic models;
  • analyse waste produced in everyday life;
  • apply STEM design thinking;
  • redesign a product to reduce waste;
  • understand the responsibilities of consumers, businesses and governments.

Subjects integrated

Biology: environmental impact of waste
Geography: global resource use
Digital competence: digital design and presentation
STEM: engineering design process
Citizenship: consumer and producer responsibility
Sustainability: circular economy and the 3R/5R principles

Key concepts - Reduce – Reuse – Repair – Recycle – Rethink

Activities

1. Waste challenge – 5 min

Show a common object such as:

  • plastic bottle;
  • smartphone;
  • trainers;
  • takeaway cup.

Ask: What happens to this product after we stop using it?

Introduce two models:

Linear economy:
Take → Make → Use → Throw away

Circular economy:
Design → Use → Repair → Reuse → Recycle

2. Product investigation – 10 min

Groups analyse one product.

They identify:

  • raw materials;
  • manufacturing;
  • packaging;
  • transport;
  • use;
  • disposal.

3. STEM design challenge – 20 min

Students redesign the product to make it more sustainable.

Requirements:

  • use fewer materials;
  • make it reusable or repairable;
  • reduce packaging;
  • increase recycled materials;
  • increase product lifespan.

Students create a sketch or digital prototype.

Design questions

  • Can parts be replaced?
  • Can materials be recycled?
  • Can packaging disappear?
  • Could another material be used?
  • Could customers reuse the product?

4. Citizenship discussion – 10 min

Who is responsible for reducing waste?

Students consider:

  • consumers;
  • businesses;
  • schools;
  • municipalities;
  • governments.

Final product - A prototype or digital poster: “The Circular Product of the Future.”

Assessment

Students explain:

  • the difference between linear and circular economy;
  • why their redesigned product is more sustainable;
  • who should share responsibility for waste reduction.

Grade 9 – Climate-Smart School Challenge

Theme - How sustainable is our school?

Age - 15 years

Learning objectives

Students will:

  • investigate the environmental impact of their school;
  • collect and analyse sustainability data;
  • understand links between energy, transport, consumption and climate change;
  • propose evidence-based improvements;
  • practise democratic decision-making.

Subjects integrated

Biology: ecosystems and climate impacts
Geography: climate change and resource distribution
Digital competence: spreadsheets, digital surveys and presentations
STEM: data analysis and energy calculations
Citizenship: participation and democratic decision-making
Sustainability: climate action and sustainable communities

Activities

1. Sustainability audit – 10 min

Students investigate four areas:

Energy

  • Are lights left on?
  • Are computers switched off?
  • Is heating efficient?

Transport

  • How do students travel to school?
  • Could walking or cycling increase?

Waste

  • Is waste sorted?
  • How much food is wasted?

Biodiversity

  • Are there trees, flowers or habitats around the school?

2. Data collection – 15 min

Students create a digital survey using, for example, Google Forms.

Possible question: How do you usually travel to school?

  • walking;
  • bicycle;
  • school bus;
  • public transport;
  • car.

Results can be analysed using spreadsheets and graphs.

3. STEM investigation – 15 min

Example energy calculation:

If a classroom has 10 LED lamps of 10 W each, running for 6 hours per day:

10 × 10 W = 100 W

100 W × 6 h = 600 Wh = 0.6 kWh per day

Students calculate possible energy savings if lights are switched off for one hour each day.

4. Citizens’ council – 15 min

Each group proposes one sustainability improvement.

Examples:

  • more recycling stations;
  • bicycle parking;
  • energy-saving campaign;
  • pollinator garden;
  • reusable water bottles;
  • food-waste reduction programme.

Students present evidence and then hold a class vote on which ideas should be proposed to the school administration.

Final product

A School Sustainability Action Plan.

Suggested structure:

  1. Problem
  2. Evidence/data
  3. Proposed solution
  4. Expected environmental benefit
  5. People responsible
  6. Timeline

Assessment

Students demonstrate:

  • accurate data collection;
  • interpretation of graphs and calculations;
  • understanding of environmental consequences;
  • realistic problem-solving;
  • participation in democratic discussion.

Competences Developed

Students develop:

Scientific competence

  • observation;
  • investigation;
  • evidence-based conclusions.

Geographical competence

  • spatial thinking;
  • map skills;
  • understanding human–environment interactions.

Digital competence

  • digital photography;
  • online research;
  • digital maps;
  • spreadsheets;
  • surveys;
  • presentations.

STEM competence

  • measurement;
  • calculations;
  • data analysis;
  • engineering design;
  • problem solving.

Citizenship competence

  • collaboration;
  • responsible decision-making;
  • participation in community issues;
  • democratic discussion.

Sustainability competence

  • systems thinking;
  • responsible consumption;
  • biodiversity protection;
  • climate awareness;
  • circular economy thinking.

Possible Connection with the UN Sustainable Development Goals

The activities particularly support:

SDG 4 – Quality Education
SDG 6 – Clean Water and Sanitation
SDG 11 – Sustainable Cities and Communities
SDG 12 – Responsible Consumption and Production
SDG 13 – Climate Action
SDG 14 – Life Below Water
SDG 15 – Life on Land
SDG 17 – Partnerships for the Goals

The lessons encourage students not only to learn about environmental challenges but also to collect real data, use digital technologies, work collaboratively and propose practical improvements for their school and local community.