This interactive addresses the question if we can reduce CO2 emissions by 20% of 1990 levels and help avoid dangerous climate change? Users of this interactive can manipulate changes to various sources and uses (supply and demand) of energy with the goal of reducing C02 emissions in Great Britain by 80% in the year 2050.

In this activity, students conduct an energy audit to determine how much carbon dioxide their family is releasing into the atmosphere and then make recommendations for minimizing their family's carbon footprint.

This detailed chemistry lesson from the U.S. Department of Energy focuses on transforming vegetable oil into biodiesel through a process of transesterification. The process described offers a good model for many chemical reaction processes that are used to produce a viable product.

In this lab activity students generate their own biomass gases by heating wood pellets or wood splints in a test tube. They collect the resulting gases and use the gas to roast a marshmallow. Students also evaluate which biomass fuel is the best by their own criteria or by examining the volume of gas produced by each type of fuel.

In this virtual professional development opportunity designed for teachers, EarthGen explores two global crises taking place concurrently - the climate crisis and COVID-19. What are the connections between the two? Why are BIPOC (Black, Indigenous, People of Color) communities disproportionately affected by both? Educators receive foundational information around climate justice, analyze the variables associated with vulnerability, exposure, and risk, and explore educational resources to bring this content into their classrooms.Contact EarthGen at info@earthgenwa.org for more information.

This online calculator converts from one energy unit to another - from gallons to British thermal units (Btu), kilowatt/hours to megajoules, short tons to metric tons.

This is a semester-long jigsaw project in which students work in teams to explore the effects of energy resource development on local water resources, economics, and society. Students are presented with a contemporary energy resource development issue being debated in their community. They research the water, geological, economic, and social impact of the project, and then either defend or support the development proposal.

In this activity, students learn about the pros and cons of co-firing woody biomass fuels with coal to produce electricity.

In this activity, students consider the impact and sustainability of use of different classes of biofuels on the economy, the environment, and society. Students also learn about bioelectricity and how converting biomass to electricity may be the more efficient way to fuel cars in the 21st century.

In this interactive simulation, students can explore global CO2 emissions displayed by different continents/countries and plotted based on the GDP. A map view is also accessible.

A board game which engages students as they grapple with the complexities of society's challenges. It encourages students to cultivate a deep and layered understanding of these challenges and current societal options for producing energy.

In this activity, students learn about the energy sources used by their local utility provider to generate electricity, and work in small groups to evaluate the sustainability of either a renewable or non-renewable energy source used to generate electricity.

This is a debate-style learning activity in which student teams learn about energy sources and are then assigned to represent the different energy sources. Working cooperatively, students develop arguments on the pros and cons of their source over the others.

This Flash animation describes how hybrid-electric vehicles (HEVs) combine the benefits of gasoline engines and electric motors and can be configured to obtain different objectives, such as improved fuel economy, increased power, or additional auxiliary power for electronic devices and power tools.

This animation illustrates how heat energy from deep in Earth can be utilized to generate electricity at a large scale.

In this lesson students will learn about the human demands of freshwater and how clean drinking water is being impacted. Students will analyze the issues of cause and effect between human activities and water sustainability. Students will demonstrate this knowledge by create a presentation illustrating the effects of human activities on water resources.

Sample high school MISA test item set which uses a physics and earth space science performance expectations.  The Item set focuses on wind turbines and their environmental impacts. It contains 5 questions and one constructed response for a total of 9 points. (Image source: “Wind Turbine” by Painter06 at Pixabay.com.)  

This unit delves into the fundamental science and historical contexts to help students explore the question "How can knowledge gained from the Manhattan Project and the Hanford Site contribute using nuclear technologies to positively impact humanity in the future?."Nuclear Chemistry is a great capstone unit for a standard high school chemistry course in that it is fantastic opportunity for students to explore the crossroads between scientific knowledge and the societal implications of new discoveries. Students will have the opportunity to Delve deep into the science standards while also connecting their learning to what it means for us as a global society.

A UTILIZAÇÃO da autopoiese para identificação e resolução dos principais problemas ambientais na comunidade quilombola do Itacoã Mirim, Baixo Acará (PA): entre as ciências ambientais, decolonidades, territorialidades e temporalidades. Direção: Aldo Luiz Viana Gatinho. Belém: Produção independente, 2022. 25’34”. O vídeo documentário é o produto educacional da dissertação de mestrado de Aldo Luiz Viana Gatinho, defendida e aprovada em 14/12/2022.

THE PATTERNS APPROACH
The Patterns Approach to science instruction emphasizes the use of mathematical and phenomenological patterns to predict the future and understand the past. Students construct science knowledge by making an initial “wild-guess”, asking questions, planning and conducting experiments, collecting data, finding a mathematical model that fits their data, explaining the phenomenon based on that model, then finally making a data-informed prediction. Harnessing their own experiences, students compare and contrast low-evidence predictions (wild guesses) to their data-informed prediction to live the experience and learn the value of evidence-based reasoning. Additionally, students engage in several engineering projects in each course, where they must use the Patterns they discover in their designs to optimize their solutions. The Patterns Approach utilizes technology, student-constructed knowledge, frequent opportunities for student talk, and language supports to ensure the engagement and success of every student. By emphasizing, rather than removing, the mathematical connections to science, the Patterns Approach supports student conceptual understanding by connecting real-world inquiry experiences, graphical representations, and mathematical representations of science phenomena.