Lesson 4: Mitigation and Adaptation Strategies for Climate Change

-What strategies can reduce greenhouse gas emissions and environmental pollution?

-How can individuals, communities, and governments work together to mitigate climate change?

-What adaptation strategies help humans and ecosystems respond to climate impacts?

-How are mitigation and adaptation strategies different, and how do they work together?

-How can science, engineering, and technology be used to improve environmental sustainability?

-Mitigation

-Adaptation

-Renewable energy

-Carbon footprint

-Resilience

-Sustainability

-Climate policy

-Environmental engineering

-Trade-offs

-Climate solutions

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 and adaptation strategies.

NGSS Crosscutting Concepts

-Cause and Effect

-Systems and System Models

-Stability and Change

-Energy and Matter

-Students will evaluate real-world environmental solutions using data, models, and case studies.

-Students will analyze how mitigation and adaptation strategies impact environmental systems over time.

-Students will read and interpret informational texts, scientific reports, and policy proposals related to climate solutions.

-Students will develop evidence-based reasoning skills aligned with standardized science assessments.

Students will explore how humans respond to climate change through mitigation (reducing greenhouse gas emissions and pollution) and adaptation (adjusting systems and behaviors to manage climate impacts). They will evaluate the effectiveness, feasibility, and consequences of different strategies.

Activities may include:

-Designing a personal, school, or community carbon reduction plan

-Proposing engineering or technology-based solutions such as renewable energy systems or green infrastructure

-Modeling adaptation strategies using simulations or scenario-based tools

-Evaluating case studies of real-world climate solutions

-Justifying solutions using scientific evidence and reasoning

Purpose: Develop the ability to apply scientific knowledge to evaluate and design solutions that reduce environmental impact and improve sustainability.

DOK Level: 3–4 – Strategic Thinking to Extended Thinking

-Mitigation and adaptation strategies are used globally in urban planning, agriculture, transportation, and energy systems.

-Students can connect climate solutions to their local community, including energy use, waste management, and transportation choices.

-Understanding these strategies empowers students to make informed decisions and participate in environmental problem-solving.

-Students explore how different communities experience and respond to climate change in different ways.

-Students may think mitigation and adaptation are the same concept.

-Students may believe individual actions have no meaningful impact on global environmental systems.

-Students may underestimate the complexity of designing and implementing climate solutions.

-Students may assume all solutions are equally effective in every context.

-Students may not recognize trade-offs involved in environmental decision-making.

-Tiered project options with varying levels of complexity

-Graphic organizers for planning and evaluating solutions

-Technology integration using climate models, simulations, and carbon calculators

-Structured collaboration and brainstorming activities

-Step-by-step guides for engineering or policy design tasks

-Clear rubrics for evaluating solution feasibility and impact

-Project-based evaluations of mitigation or adaptation solutions

-Quizzes on key vocabulary and concepts

-Unit Test

-Analysis of case studies and climate solution proposals

-Constructed-response explanations using scientific evidence

-Performance tasks evaluating feasibility and sustainability of designed solutions

-Slides and worksheets on mitigation and adaptation strategies

-Carbon footprint calculators

-Case studies of local and global climate solutions

-Materials for engineering design challenges (e.g., renewable energy prototypes, filtration systems)

-Online climate models and simulation tools

-Articles and videos highlighting successful climate action initiatives