You are here
Home ›Narrow Search
Now showing results 1-10 of 28
Students analyze and interpret the accompanying large-format images of Mars taken by NASA’s Mars Thermal Emission Imaging System (THEMIS) camera. The analysis involves identifying geologic features, calibrating the size of those features, and... (View More) determining surface history. The lesson culminates in students conducting in-depth research on questions generated during their analyses. The lesson is part of the Mars Education Program series; it models scientific inquiry using the 5E instructional model and includes teacher notes and vocabulary. Next Generation Science Standards are listed. (View Less)
This lesson plan teaches how to select the landing site for a planetary surface investigation, using the 5E learning cycle. Students will be able to determine a landing site for their Mars rover; work with their team to summarize information and... (View More) identify important details in non-fiction writing; research Gale Crater through an online interactive module; use Google Earth Mars to learn about Mars surface features; gather and analyze data to conduct a scientific experiment; collect and record data in a science notebook to draw logical and scientific conclusions; define and identify the role of controls and variables in teams' scientific or technical questions; and differentiate between weather and climate. The lesson plan has a number of appendices, including standards alignment. This is Lesson 8 of the elementary school version of the 6 week Mars Rover Celebration curriculum. (View Less)
Students work in groups to investigate one of the following factors driving climate change: greenhouse gases, sea level rise and melting sea ice. The investigation involves conducting an experiment, connecting to real-world data and presenting a... (View More) poster summary of their findings. The lesson includes experiment procedures (with pictures), a rubric for poster evaluation, a Powerpoint presentation (incorporating NASA videos), extensions, and additional resources. (View Less)
Air traffic (and therefore airplane contrails) was halted nationwide for nearly three days following September 11, 2001. Students will investigate whether that stoppage resulted in any changes to cloud cover, temperature and/or radiation. Using the... (View More) MY NASA DATA Live Access Server (LAS), students gather satellite data on each of the three atmospheric parameters around that time frame. Working in teams, they read, compare and discuss two accompanying articles, then use the data from the LAS to create a PowerPoint presentation contending whether it was the lack of contrails or simply natural weather patterns at the time that was responsible for the increase in the range of temperatures. This lesson uses student- and citizen science-friendly microsets of authentic NASA Earth system science data from the MY NASA DATA project. It includes detailed procedures, analysis questions, teacher notes, related links, background information, lesson extensions, and a list of related AP Environmental Science topics. (View Less)
In this lesson students use climatograms from different U.S. locations to observe patterns in temperature and precipitation. After describing geographical features near these locations, they will use graphs to compare and find patterns in the... (View More) effects that mountains, oceans, elevation, and latitude have on temperature and precipitation. A research activity will then ask students to gather information on temperature and precipitation patterns around the world using the MY NASA DATA Live Access Server and other sources, with the goal of creating their own climatogram. This lesson uses the 5E instructional model. (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)
This lesson provides an opportunity for students to express their ideas through literature. Teachers will read a story on clouds to students, then take students outside to observe actual clouds. Students will create drawings of what they see,... (View More) identify different cloud types, and then pair their findings with other students to create a cloud presentation for the class. S'COOL engages students in making and reporting ground truth observations of clouds then comparing those observations with data from the CERES satellite instrument. (View Less)
Through a series of interactive multimedia activities, animations, videos, and online lessons, students develop an understanding of permafrost and its connections to climate change. NASA data from space, suborbital, and ground platforms are... (View More) included, along with tutorials on using related data analysis tools such as Google Earth, ImageJ, and NASA’s GIOVANNI. An indigenous knowledge database is also included as a resource. (View Less)
In conjunction with discussions on atmospheric CO2, timescales, and proxy data, students will make, dissect, and analyze an ice core. The activity allows students to study changes in Earth’s atmospheric composition and temperature on millennial to... (View More) orbital timescales. The lesson includes instructions for making the ice cores (requires up to a week), worksheets, resources and a short assessment. (View Less)
This chapter describes the technique of preparing GIS-ready data and shows how to map that data and conduct basic analyses using a geographic information system (GIS). First, the user will download and format near real-time and historical earthquake... (View More) data from the USGS. Using latitude and longitude fields, they will then plot these data in a GIS. Next, they will analyze patterns by querying records and overlaying datasets. Finally, they will examine earthquake distributions, monitor current earthquake activity, and try to predict where the next big earthquake will occur on Earth. Includes teaching notes, step-by-step instructions, case study, tools and data, and going further. This chapter is part of the Earth Exploration Toolbook, which provides teachers and/or students with direct practice for using scientific tools to analyze Earth science data. Students should begin on the Case Study page. (View Less)