Lesson 4: Mitigation and Adaptation Strategies for Climate Change

What strategies can humans use to reduce pollution and greenhouse gas emissions?

How can individuals, communities, and governments mitigate climate change?

What adaptation strategies help humans and ecosystems cope with climate change?

How do mitigation and adaptation strategies differ, and how are they connected?

How can engineering, technology, and behavior change help protect Earth systems?

Mitigation

Adaptation

Renewable energy

Carbon footprint

Resilience

Sustainability

Climate policy

Environmental engineering

• HS-ESS3-3 – Design, evaluate, and refine solutions to reduce human impact on natural systems.
• HS-ESS3-5 – Use climate models to make predictions about future conditions and inform mitigation/adaptation strategies.

Students will develop skills in evaluating real-world solutions to environmental problems.

Students will analyze data and models to predict outcomes of mitigation and adaptation strategies.

Students will improve literacy and reasoning skills by reading case studies, scientific articles, and policy proposals related to sustainability.

NGSS Crosscutting Concepts

Cause and Effect

Systems and System Models

Stability and Change

Energy and Matter

Students will explore ways humans can respond to climate change through mitigation (reducing greenhouse gas emissions and pollution) and adaptation (adjusting behaviors, infrastructure, and policies to cope with changes).

Activities may include:

Designing personal, community, or school-based carbon reduction plans.

Proposing engineering or policy solutions (e.g., renewable energy projects, green roofs, coastal defenses).

Simulating adaptation strategies using models or interactive tools.

Students will analyze the effectiveness, feasibility, and consequences of each approach. This lesson emphasizes applying scientific understanding to real-world problems and encourages critical thinking about cause and effect, systems, and sustainability.

Mitigation and adaptation strategies are applied worldwide—from urban planning and renewable energy in cities to agricultural changes in rural areas. Students can relate these strategies to their own communities, lifestyles, and local environmental challenges. Understanding these strategies empowers students to make informed decisions and participate in climate action.

Students may think mitigation and adaptation are the same thing.

Students may believe that individual actions have little effect on global climate.

Students may underestimate the complexity of implementing engineering or policy solutions.

Students may not realize that some strategies require trade-offs or long-term planning.

Tiered assignments and scaffolded instruction

Graphic organizers to plan mitigation or adaptation solutions

Technology integration (carbon footprint calculators, climate modeling tools, online simulations)

Peer collaboration for brainstorming and presenting solutions

Clear rubrics and step-by-step guides for projects

• Checkpoints during project design and data analysis activities

• Quizzes on mitigation/adaptation terminology and strategies

• Unit Test

• Evaluation of designed solutions for feasibility, sustainability, and environmental impact

• Constructed-response assignments linking strategies to scientific evidence

• Slides and worksheets on mitigation and adaptation strategies

• Carbon footprint calculators

• Case studies of local and global climate solutions

• Materials for small engineering projects (solar cookers, wind turbines, water filtration, etc.)

• Online climate models and simulations

• Articles or videos highlighting successful mitigation/adaptation efforts