English:Climate Solutions and Sustainable Futures
Climate Solutions and Sustainable Futures
Introduction
Climate Solutions and Sustainable Futures is a course for learners in Grades 9–10. You will investigate how societies can reduce the causes of climate change, prepare for impacts that can no longer be avoided, and build futures that are healthier, fairer, and more resilient.
Climate change is not one problem with one solution. It is a systems challenge involving energy, transport, buildings, food, land, industry, ecosystems, economics, politics, technology, and everyday choices. Strong climate action combines mitigation—reducing greenhouse gas emissions or increasing removals—with adaptation—reducing harm from climate impacts. A sustainable future also asks who benefits, who pays, whose knowledge is included, and whether a solution improves human well-being without shifting environmental damage elsewhere.
The warming-stripes graphic shows the long-term rise in global average surface temperature. Read it as evidence of a trend, not as a weather forecast for a particular day. Climate is measured over long periods, while weather describes short-term atmospheric conditions.
In this aiMOOC, you will learn to:
- Explain mitigation and compare major ways to cut emissions.
- Explain adaptation and evaluate ways communities can reduce climate risks.
- Assess renewable energy, efficiency, electrification, storage, and grid solutions.
- Analyze transport, buildings, food, land use, and urban design as connected systems.
- Evaluate nature-based solutions while recognizing their benefits and limits.
- Apply climate-justice principles to decisions about costs, risks, and participation.
- Use life-cycle thinking to avoid shifting impacts from one stage or place to another.
- Design evidence-based actions with measurable goals and realistic trade-offs.
Climate Change as a Systems Problem
Why the climate is changing
Earth's atmosphere naturally contains gases that trap some outgoing heat and keep the planet warm enough for life. Human activities have strengthened this greenhouse effect, especially by releasing carbon dioxide from fossil-fuel combustion and land-use change, methane from sources such as fossil-energy systems, livestock, and waste, and nitrous oxide from activities including fertilizer use. The result is long-term warming and wider changes in the climate system.
The strongest climate solutions address causes, impacts, and underlying systems together. For example, replacing a diesel bus with an electric bus can reduce tailpipe pollution and climate emissions, but the total outcome also depends on how electricity is generated, how the vehicle and battery are produced, how long they last, and whether the transport system makes it easy for many people to travel without private cars.
A useful way to think is to follow four questions:
- Where do emissions come from? Identify the activity, fuel, material, or land-use process.
- Where can the system change? Look for efficiency, substitution, redesign, behavior, policy, and infrastructure.
- What other benefits or harms may occur? Consider health, affordability, biodiversity, jobs, safety, and access.
- What feedbacks could strengthen or weaken the result? For example, efficiency can cut energy demand, but very low operating costs can sometimes encourage more use.
Mitigation and adaptation work together
Mitigation limits future climate change by reducing net greenhouse gas emissions. Examples include improving efficiency, replacing fossil fuels with low-carbon energy, electrifying suitable end uses, reducing methane leaks, preventing deforestation, restoring ecosystems, and developing methods for removing carbon dioxide from the atmosphere.
Adaptation reduces exposure or vulnerability to climate hazards. Examples include heat-warning systems, cool roofs, drought-resilient water planning, flood protection, stronger building codes, early-warning systems, emergency planning, and ecosystem restoration that reduces coastal risk.
Adaptation becomes harder as warming increases, and some impacts cannot be fully adapted to. That is why adaptation cannot replace mitigation. At the same time, even rapid mitigation does not remove all current risks, so mitigation cannot replace adaptation. A resilient future needs both.
The World Bank video above introduces climate adaptation as part of development and resilience. While watching, identify one example that reduces exposure to a hazard and one that reduces vulnerability.
From single actions to solution portfolios
A solution portfolio combines measures that reinforce one another. A school, for example, could cut electricity demand with insulation and efficient lighting, install solar panels where suitable, shift procurement toward lower-impact products, reduce food waste, improve bicycle access, plant shade trees, and prepare a heat-action plan. Each measure solves a different part of the system.
The quality of a climate solution should be judged using several criteria:
- Effectiveness: Does it produce a meaningful reduction in emissions or risk?
- Feasibility: Can it be built, financed, operated, and maintained?
- Equity: Are benefits and burdens shared fairly?
- Resilience: Will it still work under future climate conditions?
- Biodiversity: Does it protect or damage ecosystems?
- Scalability: Can it grow without creating new bottlenecks?
- Durability: Will the benefit last?
- Additionality: Does it create improvement beyond what would have happened anyway?
Clean Energy, Efficiency, and Electrification
Energy efficiency: doing more with less
Energy efficiency reduces the energy needed to provide a service. Better insulation can keep a building comfortable with less heating or cooling. Efficient motors can provide the same mechanical work with less electricity. Well-designed public transport can move many people with less energy per passenger than a system dominated by single-occupancy cars.
Efficiency matters because every unit of energy not required reduces pressure on power generation, fuels, grids, and household or organizational budgets. Yet efficiency is not automatically sufficient: total demand can still grow, and a more efficient device can sometimes be used more often. This is why efficiency works best with good design, clear goals, and supporting policies.
Renewable electricity
Renewable energy sources such as solar and wind can produce electricity without burning fossil fuels during operation. They are central to many climate-mitigation strategies. Their output varies with sunlight and wind conditions, so reliable electricity systems may also require transmission, storage, flexible demand, forecasting, geographic diversity, and other forms of low-carbon generation.
Photovoltaic panels convert sunlight directly into electricity. When evaluating solar power, consider the full system: panel production, site selection, grid connection, expected output, maintenance, lifespan, and end-of-life recovery or recycling.
Wind turbines transform the kinetic energy of moving air into electricity. Good projects require suitable wind resources, grid access, careful siting, community engagement, and attention to wildlife and landscape impacts.
The National Geographic video summarizes major renewable-energy sources. As you watch, list one strength and one limitation for each source mentioned. Avoid the false choice that a technology must be either "perfect" or "useless"; real engineering compares alternatives and manages trade-offs.
Electrification and flexible grids
Electrification replaces direct fossil-fuel use with electricity where doing so can lower emissions and improve efficiency. Examples include heat pumps for buildings, electric vehicles, electric rail, and some industrial processes. Electrification becomes more climate-friendly as the electricity supply becomes lower-carbon.
A modern grid also needs flexibility. Energy storage can shift electricity from times of high production to times of high demand. Demand response can move some electricity use to better times. Stronger transmission can connect regions with different weather patterns and resources. Digital controls can improve balancing, but they also introduce cybersecurity and data-governance questions.
A sustainable energy transition therefore combines technology with planning. It asks not only, "Can we generate clean electricity?" but also, "Can people afford it? Can the grid deliver it reliably? Are workers and communities supported through the transition? Are materials sourced responsibly?"
Sustainable Cities, Buildings, and Mobility
Why city design matters
Cities concentrate people, buildings, infrastructure, services, and economic activity. This creates both climate risks and major opportunities. Compact, mixed-use neighborhoods can shorten trips. Safe walking and cycling routes can reduce car dependence. Reliable public transport can make low-carbon mobility practical. Trees, parks, and water-sensitive design can reduce heat and manage stormwater.
The diagram above links land-use planning with transport. Notice that mobility is shaped by where homes, schools, shops, jobs, and services are located. A climate-friendly transport system is not only about the vehicle; it is also about the distance and safety of the trip.
Protected bicycle infrastructure can make cycling safer and more attractive. To judge whether a project is equitable, ask who can use it, whether routes connect to real destinations, whether intersections are safe, and whether people with disabilities have suitable alternatives.
The United Nations discussion on sustainable cities connects climate action with urban development. While watching, note how transport, housing, infrastructure, and social inclusion influence one another.
Buildings: reduce demand before adding supply
Buildings use energy for heating, cooling, lighting, appliances, water heating, and equipment. A strong strategy often starts by reducing unnecessary demand through insulation, shading, airtightness, efficient equipment, passive design, and smart controls. Low-carbon electricity can then meet the remaining demand more effectively.
Materials also matter. Cement, steel, glass, timber, insulation, and other construction products have impacts before a building opens. Embodied carbon describes greenhouse gas emissions associated with materials and construction. Renovating an existing building can sometimes avoid more material use than demolition and replacement, although the best option depends on condition, performance, safety, and local context.
Heat, water, and resilient neighborhoods
Cities can be warmer than surrounding areas because dark surfaces and buildings absorb heat, vegetation may be limited, and human activities release heat. This is called the urban heat-island effect. Solutions include shade trees, parks, reflective surfaces, cool roofs, ventilation corridors, and access to cooling centers.
This Copernicus visualization compares land-surface temperatures and shows how vegetated areas can remain much cooler than dense urban surfaces. Land-surface temperature is not the same as air temperature, so the image should be interpreted carefully.
For heavy rainfall, cities can combine drains and barriers with green infrastructure such as wetlands, rain gardens, permeable surfaces, green roofs, and restored floodplains. Good planning avoids building new critical infrastructure in high-risk locations when safer alternatives exist.
Climate Adaptation and Resilience
Risk is more than the hazard
A climate hazard such as a heatwave, flood, drought, or storm does not create the same level of risk everywhere. Risk is shaped by:
- Hazard: the physical event or trend.
- Exposure: people, buildings, ecosystems, or services located where the hazard occurs.
- Vulnerability: how strongly exposed people or systems can be harmed.
- Adaptive capacity: the ability to prepare, respond, recover, and adjust.
This means adaptation can act in different places. A flood barrier may reduce the hazard reaching a neighborhood. Better zoning can reduce exposure. Strong housing, insurance, emergency planning, and social support can reduce vulnerability. Early-warning systems can improve adaptive capacity.
Flood-control infrastructure can protect people and services, but it requires maintenance and may create a false sense of security if future conditions exceed its design. Engineers and planners therefore use safety margins, updated risk information, evacuation plans, and complementary measures.
Maladaptation: when a solution creates new risk
Maladaptation occurs when an adaptation measure unintentionally increases vulnerability, emissions, inequality, or future risk. For example, widespread air-conditioning can reduce heat exposure indoors but may increase electricity demand and waste heat if buildings are poorly designed and power is carbon-intensive. A seawall may protect one location while changing erosion patterns elsewhere.
To avoid maladaptation, evaluate:
- Who gains and who loses?
- What happens under more severe future conditions?
- Does the measure increase greenhouse gas emissions?
- Does it lock a community into expensive maintenance?
- Does it harm ecosystems that provide natural protection?
- Can the solution be adjusted as conditions change?
Adaptation pathways
An adaptation pathway is a sequence of actions that can change over time as risks grow or new information becomes available. Instead of assuming one permanent solution will work forever, planners identify decision points and alternatives. For example, a coastal community might begin with wetland restoration and revised building codes, later raise critical infrastructure, and keep options open for larger protective works or planned relocation if risk becomes unacceptable.
This approach is useful because climate decisions are made under uncertainty. Good planning does not require perfect prediction; it requires monitoring, flexibility, and clear thresholds for action.
Nature-Based Solutions and Biodiversity
Working with ecosystems
Nature-based solutions protect, restore, or manage ecosystems to address social challenges while supporting human well-being and biodiversity. Examples include restoring mangroves that reduce wave energy, reconnecting rivers with floodplains, increasing urban tree cover, improving soil health, and conserving forests that store carbon.
Mangrove restoration can support coastal protection, biodiversity, fisheries, and carbon storage. However, restoration quality matters. Planting trees in the wrong location or using unsuitable species is not the same as restoring a functioning ecosystem.
The United Nations Office for Disaster Risk Reduction explains how nature-based solutions can reduce disaster risk. While watching, identify the difference between protecting an existing ecosystem and rebuilding a degraded ecosystem.
Nature is essential, but not a substitute for emissions cuts
Healthy ecosystems are powerful allies in climate action, but they have limits. Forests, soils, wetlands, and oceans can store carbon, yet that carbon can be released again through fire, drought, land clearing, or ecosystem degradation. Land is also needed for food, biodiversity, housing, and livelihoods.
This is why nature-based mitigation should complement, not replace, rapid reductions in fossil-fuel emissions. A high-quality plan protects existing carbon-rich ecosystems, restores degraded areas where appropriate, reduces direct emissions, and respects the rights and knowledge of local communities and Indigenous peoples.
Biodiversity and resilience
Biodiversity can make ecosystems more capable of maintaining functions under stress. Diverse forests, wetlands, grasslands, and marine ecosystems support food webs, water cycles, soil formation, pollination, and other ecosystem services. Climate solutions that damage biodiversity can weaken long-term resilience.
When comparing projects, ask whether they:
- Protect intact ecosystems before attempting replacement.
- Use native or ecologically appropriate species.
- Maintain habitat connections.
- Avoid shifting pressure to another ecosystem.
- Include long-term monitoring and stewardship.
Food, Materials, and the Circular Economy
Food systems
Food connects land, water, energy, biodiversity, health, culture, livelihoods, and climate. Emissions can occur through fertilizer production and use, methane from livestock and rice cultivation, land-use change, energy for processing and refrigeration, transport, packaging, and waste.
A sustainable food strategy is therefore broader than one diet rule. It can include reducing food loss and waste, protecting soils, improving fertilizer efficiency, using water carefully, preventing deforestation, supporting lower-emission farming, improving cold chains where food spoils, and increasing access to nutritious food.
Composting can return nutrients and organic matter to soil when food scraps cannot be prevented or eaten. But prevention is usually better than managing waste after it is created. A useful hierarchy is: prevent surplus, redistribute edible food, use unavoidable scraps productively, and dispose of the remainder safely.
The circular economy
A Circular economy aims to keep products and materials useful for longer and reduce waste and resource extraction. Strategies include durability, repair, reuse, sharing, remanufacturing, and recycling. The strongest option depends on the product and context.
For a smartphone, extending useful life can avoid impacts from manufacturing a replacement. For a building, adaptive reuse can preserve valuable materials. For packaging, reuse may work well when return systems are efficient. Recycling is valuable, but it usually requires energy and cannot recover every material perfectly.
Circular design begins before waste exists. Designers ask: Can this product use fewer materials? Can parts be replaced? Can it be disassembled? Are materials safe and recoverable? Is there a system to collect it at end of life?
Life-cycle thinking
Life-cycle thinking follows impacts from raw-material extraction through production, transport, use, and end of life. It prevents misleading comparisons. An electric vehicle has no tailpipe emissions, but its battery and electricity still have environmental footprints. A reusable bottle may need many uses before its production impacts are balanced against single-use alternatives.
Life-cycle thinking does not mean every learner must calculate a full professional assessment. At Grades 9–10, you can begin by drawing a life-cycle map, identifying major energy and material inputs, asking where emissions occur, and checking whether a proposed solution shifts impacts across locations or stages.
Climate Justice, Policy, and Economics
What climate justice asks
Climate justice connects climate change with fairness. Climate risks are not distributed equally. People with fewer resources may have less access to safe housing, insurance, cooling, health care, political influence, or money for recovery. Some communities have contributed little to cumulative greenhouse gas emissions but face severe impacts.
Three useful dimensions are:
- Distributive justice: How are costs, risks, and benefits shared?
- Procedural justice: Who participates in decisions and has real influence?
- Recognition justice: Whose rights, cultures, experiences, and knowledge are respected?
A project can reduce emissions and still be unjust. For example, a transit improvement may be climate-friendly overall but displace low-income residents if land values rise and housing protections are ignored. Good climate policy looks at both carbon and people.
Policy tools
Governments use different tools to accelerate climate solutions. These include efficiency standards, building codes, clean-energy requirements, public investment, research funding, carbon pricing, pollution limits, land-use rules, public procurement, information programs, and support for workers and communities during economic transitions.
No policy tool works equally well in every setting. Evaluate a policy by asking:
- What behavior or investment is it trying to change?
- Who pays directly and indirectly?
- Who receives the benefits?
- Can households and businesses realistically respond?
- How will progress be measured?
- What prevents loopholes, greenwashing, or unfair outcomes?
A just transition
A Just transition aims to move toward a low-emission economy while supporting workers and communities affected by economic change. This can include retraining, regional investment, income support, new industries, worker participation, and long-term planning for places that depend on fossil-fuel extraction or carbon-intensive industries.
A just transition is not only a social add-on. It can make climate policy more durable by addressing real concerns about jobs, prices, identity, and local economies.
Sustainable Futures and Solution Design
Futures are choices, not predictions
A Sustainable future is not a single fixed destination. Different societies will make different choices about technology, land, consumption, mobility, housing, food, and public services. Futures thinking helps you compare possible pathways and ask what must happen for a desirable outcome to become realistic.
Use three questions:
- What future do we want to avoid?
- What future do we want to create?
- What decisions made today increase or reduce our options later?
Infrastructure is especially important because it can last for decades. A highway, power plant, building, or water system can create lock-in if it commits society to high emissions or inflexible patterns. Designing for flexibility can preserve future choices.
Avoid, reduce, replace, remove, adapt
A practical solution hierarchy is:
- Avoid unnecessary demand or damage.
- Reduce energy, material, and land requirements.
- Replace high-emission technologies and practices with lower-emission alternatives.
- Remove residual carbon dioxide where necessary and credible.
- Adapt to climate impacts that still occur.
These steps are not a rigid sequence. They help you avoid jumping to a complex technology before considering simpler system changes. For example, a school transport plan might first reduce unnecessary car trips, then improve walking and cycling, strengthen public transport, electrify remaining vehicles, and prepare travel plans for extreme heat or flooding.
The TED talk presents a broad portfolio of climate solutions. Treat it as a starting point for comparison rather than a final ranking. Ask what assumptions, data, social conditions, and time scales are behind any claimed solution.
How to test a proposed solution
Use a solution canvas before recommending an intervention:
- Problem: What specific climate problem are you addressing?
- Baseline: What is happening now, and how do you know?
- Intervention: What exactly will change?
- Mechanism: Why should the intervention reduce emissions or risk?
- Stakeholders: Who is affected or has decision power?
- Evidence: What reliable sources support the idea?
- Trade-offs: What costs, risks, or unintended effects might occur?
- Equity: Who might be excluded or burdened?
- Indicators: What will you measure?
- Review point: When will you decide whether to continue, adapt, or stop?
This turns climate action from a slogan into a testable project.
Key Vocabulary
- Mitigation: Action that reduces greenhouse gas emissions or increases greenhouse gas removals.
- Adaptation: Adjustment that reduces harm or uses opportunities associated with actual or expected climate impacts.
- Resilience: The capacity to prepare for, cope with, recover from, and adapt to disturbances.
- Decarbonization: The process of reducing carbon emissions from an activity or economy.
- Electrification: Replacing direct fuel use with electricity where this can reduce emissions and improve performance.
- Renewable energy: Energy from sources that are naturally replenished, such as sunlight and wind.
- Energy efficiency: Providing the same or better service with less energy.
- Embodied carbon: Greenhouse gas emissions associated with materials and construction before and beyond use.
- Circular economy: An economic approach that keeps products and materials in use and reduces waste and extraction.
- Nature-based solutions: Actions that protect, restore, or manage ecosystems to address societal challenges while supporting people and biodiversity.
- Maladaptation: An adaptation action that unintentionally increases vulnerability, emissions, inequality, or future risk.
- Climate justice: An approach that examines fairness, rights, responsibility, participation, and unequal climate impacts.
- Just transition: A transition to a low-emission economy that supports affected workers and communities.
- Life-cycle assessment: A method for evaluating environmental impacts across the stages of a product or system.
- Greenwashing: Misleading communication that makes an activity or product appear more environmentally beneficial than it is.
Interactive Tasks
Quiz: Test Your Knowledge
Which statement best describes climate mitigation? (Reducing greenhouse gas emissions or increasing removals) (!Preparing emergency shelters for heatwaves) (!Mapping neighborhoods exposed to flooding) (!Improving evacuation routes before storms)
Which statement best describes climate adaptation? (Reducing harm from actual or expected climate impacts) (!Eliminating all uncertainty from climate forecasts) (!Replacing every material with plastic) (!Measuring only national carbon dioxide emissions)
Why is energy efficiency important in a climate strategy? (It can provide the same service with less energy) (!It guarantees that total energy use will always fall) (!It makes electricity storage unnecessary) (!It removes all environmental impacts from buildings)
What is one purpose of energy storage in a power system? (Shifting electricity across different times) (!Creating unlimited energy from nothing) (!Preventing every possible grid failure) (!Making transmission lines unnecessary)
Which example is a nature-based solution? (Restoring mangroves to reduce coastal risk) (!Building a larger diesel generator) (!Expanding an asphalt parking area) (!Removing vegetation from a riverbank)
What does maladaptation mean? (An adaptation action that creates new or greater risk) (!A measurement error in a weather station) (!A renewable energy source with variable output) (!A climate model that uses historical data)
Which question is central to climate justice? (How are climate costs risks and benefits shared) (!Which country has the longest coastline) (!Which battery has the brightest color) (!Which month has the shortest name)
What is the main purpose of life-cycle thinking? (Checking impacts across all stages of a product or system) (!Measuring only emissions during product use) (!Ignoring material extraction and disposal) (!Choosing the cheapest option without other criteria)
Which action best supports a circular economy? (Designing products for repair reuse and material recovery) (!Replacing products as quickly as possible) (!Mixing recyclable materials with hazardous waste) (!Making products impossible to disassemble)
Why should climate solutions be monitored after implementation? (To test results and adjust actions when needed) (!To prove the first plan was perfect) (!To avoid collecting any new evidence) (!To remove all stakeholder participation)
Memory Game
| Mitigation | Reducing net greenhouse gas emissions |
| Adaptation | Reducing harm from climate impacts |
| Resilience | Capacity to cope recover and adjust |
| Electrification | Replacing direct fuel use with electricity |
| Circularity | Keeping products and materials useful longer |
| Maladaptation | A response that unintentionally increases risk |
| Additionality | Improvement beyond what would otherwise occur |
Drag and Drop
| Match the correct terms. | Topic |
|---|---|
| Heat warning system | Adaptation |
| Wind electricity | Mitigation |
| Protected bicycle network | Sustainable mobility |
| Mangrove restoration | Nature based solution |
| Repairable product design | Circular economy |
...
Crossword Puzzle
| Mitigation | What term means reducing greenhouse gas emissions or increasing removals? |
| Adaptation | What term means reducing harm from climate impacts? |
| Resilience | What word describes the capacity to cope recover and adjust? |
| Electrification | What process replaces direct fuel use with electricity? |
| Circularity | What idea keeps materials and products in use for longer? |
| Biodiversity | What word means the variety of life in an area or on Earth? |
LearningApps
Cloze Text
Open-Ended Tasks
Easy
- Home energy detective: Identify five ways energy is used at home or school, classify each as essential or avoidable, and propose one realistic efficiency improvement for each.
- Climate solution postcard: Create an illustrated postcard from the year 2040 showing one climate solution working well in your community and explain the system change that made it possible.
- Food waste diary: Track avoidable food waste for three days, identify the main causes, and design two prevention strategies that would work for your household or school.
- Street shade audit: Photograph or sketch a short walking route and mark shaded and unshaded areas, then suggest where trees, awnings, or reflective surfaces could reduce heat exposure.
Standard
- School transport survey: Survey classmates about how they travel to school, summarize the results anonymously, and design a realistic plan that could reduce emissions while improving safety and access.
- Renewable energy comparison: Compare solar and wind power for a chosen local setting using resource availability, land or roof needs, reliability, grid connection, cost considerations, and environmental trade-offs.
- Climate adaptation interview: Interview a local planner, farmer, engineer, emergency worker, building manager, or community leader about one climate risk and evaluate the adaptation measures they describe.
- Circular product redesign: Choose a common school product, draw its life cycle, and redesign it for durability, repair, reuse, and material recovery.
Advanced
- Neighborhood resilience map: Create a map showing climate hazards, exposed people or services, vulnerable locations, and existing protective features, then propose a layered adaptation pathway.
- Climate justice case study: Investigate one real climate project and assess it using distributive, procedural, and recognition justice, including which voices are present or missing.
- Low carbon school proposal: Develop a costed proposal for one school climate intervention with a baseline, expected mechanism, stakeholder plan, risks, equity check, indicators, and review date.
- Sustainable futures video: Produce a three-to-five-minute video comparing two possible futures for your community in 2040, showing how choices about energy, transport, land, food, and public policy create different outcomes.
Learning Assessment
- Systems relationship analysis: Explain how one climate solution in the energy system could create benefits or trade-offs in transport, health, land use, employment, or biodiversity.
- Mitigation adaptation comparison: For a chosen climate hazard, propose one mitigation action and two adaptation actions, then explain why all three address different parts of the problem.
- Evidence based decision: Compare two competing school climate proposals using effectiveness, feasibility, equity, resilience, biodiversity, durability, and measurable outcomes, then justify your recommendation.
- Maladaptation diagnosis: Analyze a hypothetical adaptation project that solves one problem but creates another, identify the mechanism of maladaptation, and redesign the project.
- Life cycle transfer task: Choose a product or technology and trace likely impacts across extraction, production, transport, use, and end of life, then identify where impact shifting could occur.
- Climate justice transfer task: Apply distributive, procedural, and recognition justice to a decision outside school, such as a new transit line, flood barrier, wind farm, or heat-action plan.
Evidence of Learning
Evidence of learning should show what you know, what you can do, what you can create, and how well you can transfer ideas to unfamiliar situations.
Knowledge evidence includes accurate explanations of mitigation, adaptation, resilience, renewable energy, efficiency, electrification, circular economy, life-cycle thinking, nature-based solutions, maladaptation, climate justice, and just transition.
Skill evidence includes interpreting graphs and diagrams, identifying system boundaries, comparing alternatives, evaluating sources, mapping stakeholders, analyzing trade-offs, distinguishing evidence from claims, designing indicators, and revising a proposal after feedback.
Product evidence can include an energy audit, annotated map, interview report, life-cycle diagram, policy brief, climate-justice case study, prototype, data visualization, poster, podcast, or short video.
Transfer evidence is strongest when you can apply course ideas to a new situation. For example, you might use the same criteria to evaluate a school heat plan, a municipal bus project, a food-waste program, and a wetland restoration proposal while explaining why the best solution differs by context.
Reflection evidence includes identifying uncertainty, acknowledging limits in your data, explaining how your view changed, and naming what additional evidence you would need before making a high-stakes decision.
OERs on the Topic
You can also explore Climate change adaptation, Renewable energy, Sustainable development, Circular economy, Climate justice, and Nature-based solutions as connected learning areas.
Linked Learning Areas
This topic connects natural science with human systems. In Earth science, you study the climate system and environmental change. In Physics, you examine energy transfer, electricity, efficiency, and technologies. In Chemistry, you investigate fuels, materials, batteries, and atmospheric gases. In Biology, you analyze ecosystems, biodiversity, soils, and carbon storage. In Geography, you explore spatial patterns of risk, cities, land use, resources, and inequality. In Economics and Civics, you evaluate incentives, policies, public investment, participation, and fairness. In Design and technology, you create and test solutions. In English, you communicate evidence, evaluate claims, interview stakeholders, and build clear arguments for different audiences.
aiMOOC Projects
.webp){kind=link}
MOOCwiki · Deutsch
Nach dem Lernen ist vor dem Lernen
Entdecke direkt den nächsten Lernkurs. Weitere Inhalte erscheinen, wenn Du weiter nach unten scrollst.
Zur MOOCwiki-HauptseiteMediathek
Mediathek
Mediathek wird aus dem Wiki geladen ...
Keine passenden Inhalte gefunden. Bitte ändere Suche oder Filter.