The four lessons in this unit build toward a student understanding of each component of the energy budget formula - and how the contribution of each component changes due to location and time of year. In order, the four lessons consist of: deriving... (View More) the formula for Earth’s energy budget, analyzing data from NASA’s CERES instrument, learning to code using the RStudio program, and using RStudio to explore and evaluate the energy budgets of specific locations and seasons. The unit includes a pre/post test; each lesson follows the 5E model and contains worksheets with answer keys. (View Less)

Unit two of the "Carbon Connections: The Carbon Cycle and the Science of Climate" curriculum examines the role of carbon and the carbon cycle in current climate. Students discover how carbon in Earth's system is monitored and also investigate the... (View More) roles of photosynthesis, cellular respiration, and humans in the carbon cycle and climate. The unit contains five lessons entitled: Moving Carbon, Exploring Limits, The Breathing Biosphere, Carbon Cycling, and Earth Takes a Breath. Each of the five lessons includes focus questions, hands-on activities, virtual field trips, and interactive models. (View Less)

This 16-page booklet illustrates multiple NASA sources that allow educators to incorporate real Earth science data and images in their teaching and programs. Sample resources as well as firsthand accounts of how these are being used in the classroom... (View More) or informal education setting are included. (View Less)

This investigation is based on the GISP2 H-core data collected in 1992 adjacent to the GISP2 Greenland summit drill site. Students examine the seasonal/annual nitrate record and use information from known volcanic eruptions to date the unique... (View More) signature of the Icelandic volcanoes. Data is also provided for known volcanic eruptions from other latitudes which can be used throughout the activity to date major conductivity spikes to further refine the time locations. Educators can use the investigation as an application of absolute and relative dating activity (a skill taught within many science disciplines). It can also be used as an application of the cryosphere and ice cores, atmospheric chemistry, meteorology and world-wide climate patterns, geophysics involving the polar regions and the Van Allen Radiation Belts, or astronomy and the impact of extraterrestrial materials on planet Earth. (View Less)

Unit one of the "Carbon Connections: The Carbon Cycle and the Science of Climate" curriculum introduces the role of carbon (as carbon dioxide) as an atmospheric indicator. Students examine the impact of geologic and climatic history on current... (View More) climate by using computer models, measurements and the geologic record of past climate indicators. The unit contains five lessons entitled: Carbon Fizz, Carbon from the Past, Carbon Forcing, Global Connections, and Core Connections. Each of the five lessons includes focus questions, hands-on activities, virtual field trips, and interactive models. (View Less)

Unit three of the "Carbon Connections: The Carbon Cycle and the Science of Climate" curriculum examines the role of carbon and the carbon cycle in future climate. Students discover how scientists determine Earth's average temperature and the role of... (View More) climate models in understanding the size of some forcings on temperature. Students are challenged to reduce their electrical energy usage and to critically evaluate claims about carbon and climate. The unit contains five lessons entitled: Your Temperature Connections, Testing Forcings, Future Forcings, It Starts at Home, and Climate Claims. Each of the five lessons includes focus questions, hands-on activities, virtual field trips, and interactive models. (View Less)

This activity is a short engineering design challenge to be completed by individual students or small teams. A real-world problem is presented, designing buildings for hurricane-prone areas, but in a simulated way that works in a classroom, after... (View More) school club, or informal education setting. Students are given simple materials and design requirements, and must plan and build a tower as tall as possible that will hold up a tennis ball while resisting the force of wind from a fan. After the towers are built, the group comes together to test them. If there is time after testing, which can be observational or framed as a contest between teams, students can redesign their towers to improve their performance, or simply discuss what worked well and what didn’t in their designs. (View Less)