This video and accompanying essay examine ways to reduce the environmental impact of burning coal. Two technologies are discussed: turning solid coal into a clean-burning fuel gas (syngas), and capture and storage of CO2.

Hydropower generation is introduced to students as a common purpose and benefit of constructing dams. Through an introduction to kinetic and potential energy, students come to understand how a dam creates electricity. They also learn the difference between renewable and non-renewable energy.

This article continues an examination of each of the seven essential principles of climate literacy on which the online magazine Beyond Weather and the Water Cycle is structured. Principle 2 covers the complex interactions among the components of the Earth system. The author discusses the scientific concepts underlying the interactions and expands the discussion with diagrams, photos, and online resources.

This course explores how citizen science can support community actions to combat climate change. Participants will learn about framing problems, design ways to gather data, gather some of their own field data, and consider how the results can enable action. Leaks in the natural gas system—a major source of methane emissions, and a powerful contributor to climate change—will be a particular focus.
The course was organized by ClimateX and Fossil Free MIT, with support from the National Science Foundation for the methane monitoring equipment. It was offered during the Independent Activities Period (IAP), which is a special 4-week January term at MIT.

This course explores how citizen science can support community actions to combat climate change. Participants will learn about framing problems, design ways to gather data, gather some of their own field data, and consider how the results can enable action. Leaks in the natural gas system—a major source of methane emissions, and a powerful contributor to climate change—will be a particular focus.
The course was organized by ClimateX and Fossil Free MIT, with support from the National Science Foundation for the methane monitoring equipment. It was offered during the Independent Activities Period (IAP), which is a special 4-week January term at MIT.

This lesson introduces solar energy and tasks students with solving an algebraic equation to determine the amount of daily sunlight needed to make a solar panel effective.

Step 1 - Inquire: Students work through a practice problem and discuss what they already know about solar energy.

Step 2 - Investigate: Students briefly learn some background information about solar energy and then use algebra to calculate the amount of peak sun hours needed to make a solar panel effective. Students compare their calculated values to real-world data to determine if this amount of sunlight is possible in their area.

Step 3 - Inspire: Students make predictions and discuss if they think their home could be powered by solar panels using the calculations from class as evidence.

Students are asked to make a general hypothesis about whether Atlantic hurricane have been changing over time in response to recent climate change. It is expected that at an introductory level with only the most basic background instruction, students will focus on numbers, locations, or intensities of hurricanes. Example hypotheses might be

The numbers of hurricanes are increasing (or decreasing)
Hurricanes are becoming more intense
Hurricanes are forming in new locations
Hurricane season is lengthening

They are then asked to develop more pointed questions that they can test. Some example questions for each hypothesis are given below:

Hypothesis 1 might lead to questions like "More hurricanes (or tropical storms) are forming each year" or "More hurricanes are striking land each year."
Hypothesis 2 might lead to questions such as "The maximum wind speed for hurricanes is increasing" or "The minimum barometric pressure is decreasing."
Hypothesis 3 might lead to questions like "Hurricanes are forming further north."
Hypothesis 4 might lead to questions such as "Hurricanes are forming earlier and later."

To answer these questions would require students to understand some background about hurricanes, like how many typically occur in the past (which leads to questions about data collection and observing hurricanes), how hurricane intensity is measured, or at what latitudes hurricanes typically form.

Then they are given a table or map data (derived from NOAA GIS data of hurricane tracks and intensity) to test their hypotheses.

The results of their inquiries and data collection will be shared with the class as parts of small groups initially, and will culminate as a small group presentation.

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The primary goal of these resources and programming, created as part of a larger initiative to expand climate justice education at MIT, is to provide support to faculty members and instructors across disciplines in integrating climate justice content and related instructional approaches into their courses.
Funded by the Alumni Class Funds Grant, the Toolkit houses a wide range of climate-justice-adaptable teaching modules, a starter guide for teaching climate justice, resources for students, and climate justice data sets that can serve as supportive tools to enhance teaching content and approaches.

Radical Visions of 100% Clean Power for 100% of the People

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(Note: This resource's metadata has been created automatically by reformatting and/or combining the information that the author initially provided as part of a bulk import process.)

The Climate Momentum Simulation allows users to quickly compare the resulting sea level rise, temperature change, atmospheric CO2, and global CO2 emissions from six different policy options projected out to 2100.

This course introduces students to climate studies, including beginnings of the solar system, time scales, and climate in human history. It is offered to both undergraduate and graduate students with different requirements.

The goal of the Climate Primer website is to summarize the most important lines of evidence for human-caused climate change. It confronts the stickier questions about uncertainty in our projections, engages in a discussion of risk and risk managment, and concludes by presenting different options for taking action. We hope that the facts prepare you for more effective conversations with your community about values, trade-offs, politics, and actions.
In March 2024, the MIT Environmental Solutions Initiative launched the first major update to the Climate Primer. The updated Primer includes more precise estimates of future global warming and its effects on global temperatures and extreme weather events, important advances in climate modeling, new actions taken around the world to adapt to the impacts of climate change, and the latest data about the pace at which clean energy and other critical climate solutions are being deployed. Read more about the update on the MIT Environmental Solutions website.

This short video discusses where carbon dioxide, the gas that is mainly responsible for warming up our planet and changing the climate, comes from. It discusses how the rise in atmospheric carbon dioxide comes directly from the burning of fossil fuels and indirectly from the human need for energy.

This short video makes the case that rapid climate change affects the whole planet, but individuals can make a difference and make their carbon footprint smaller. Common suggestions are identified for young children to consciously consider what they can do.

Students analyze international oil consumption and production data. They make several graphs to organize the data and draw conclusions about the overall use of oil in the world.

Coal is the most carbon-intensive fossil fuel and a huge contributor to climate change, air pollution, and land disruption. It is a chemically complex, rock-like hydrocarbon that contains heavy metals (e.g., mercury and lead), sulfur, and radioactive material. Coal is mined from the Earth and burned to convert chemical energy to heat. Coal is primarily used to generate electricity and for heating.

This video from NASA describes the detailed computer modeling used to predict that colliding neutron stars can produce gamma-ray bursts similar to those associated with black holes.

Investigate collisions on an air hockey table. Set up your own experiments: vary the number of discs, masses and initial conditions. Is momentum conserved? Is kinetic energy conserved? Vary the elasticity and see what happens.

As a continuation of the theme of potential and kinetic energy, this lesson introduces the concepts of momentum, elastic and inelastic collisions. Many sports and games, such as baseball and ping-pong, illustrate the ideas of momentum and collisions. Students explore these concepts by bouncing assorted balls on different surfaces and calculating the momentum for each ball.

This activity addresses climate change impacts that affect all states that are part of the Colorado River Basin and are dependent on its water. Students examine available data, the possible consequences of changes to various user groups, and suggest solutions to adapt to these changes.