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This multi-phased learning package progresses from guided engineering to an open mission-design challenge. Each step is scaffolded and includes easy-to-implement teaching tools, lessons and art activities. Learners, working in collaborative teams,... (View More) build an O-Rex spacecraft model. The building process incorporates inventing, designing and engineering- leading to a deeper understanding of NASA mission work. A leader guide, instructions, templates and a YouTube video are included and accessed through the Related & Supplemental Resources. (View Less)
Explore the size relationship between the sun and Earth by using tape and stickers. Learners estimate, then place and count the number of one-inch diameter stickers (representing Earths) that would fit across the diameter of a nine-foot circle of... (View More) tape (representing the sun). The relative size of each becomes visually apparent. Related Next Generation Science Standards (NGSS) are listed. (View Less)
Materials Cost: 1 cent - $1 per group of students
Explore lunar phases as viewed from Earth using paper plates. While standing in the appropriate spot in the moon's orbit, students hold paper plates that depict the Moon's phase. This activity can be used to assess understanding of lunar phases or... (View More) to continue to build a conceptual model of the phases through kinesthetic activity. Related Next Generation Science Standards (NGSS) are listed. (View Less)
Materials Cost: 1 cent - $1 per group of students
Explore lunar phases as viewed from Earth using a golf ball and an ultraviolet light. With the student's head representing Earth, students hold and move the golf ball to demonstrate the cause of the Moon's phases in their correct order. Related Next... (View More) Generation Science Standards (NGSS) are listed. (View Less)
Materials Cost: $1 - $5 per group of students
Explore simulated remote sensing techniques to observe a clay model of a planet. Observations are done from the perspective of a telescope at Earth’s surface, a telescope above Earth’s atmosphere, and from closer proximity to the planet in a... (View More) fly-by, an orbit and a landing. This activity illustrates the integration between science, engineering, technology and teamwork. 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)
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)
Students use the research topic questions generated in the earlier lesson entitled, “Mars Image Analysis,” to refine testable questions and develop hypotheses. The lesson is part of the Mars Education Program series; it models scientific inquiry... (View More) using the 5E instructional model and includes teacher notes and vocabulary. Next Generation Science Standards are listed. (View Less)
In this lesson, students participate in a skit presenting a mock-up of a planetary surface rover they designed. Students will be able to: demonstrate their knowledge of Mars and rovers by presenting their team skit; present their rover, its... (View More) requirements and features to the class; answer questions asked by the class based on research conducted during the unit; incorporate feedback from others and ideas from other presentations into student work. The lesson plan has a number of appendices, including: standards alignment, essential question, and exit ticket. This is Lesson 15 of the elementary school version of the 6-week Mars Rover Celebration curriculum. (View Less)
In this lesson, students will design a planetary surface rover to conduct a planetary surface investigation. It uses the 5E learning cycle and is designed around an essential question: How will creating a prototype of your rover help you prepare for... (View More) the Mars Rover Celebration? The lesson objectives are to: learn about scientific careers to gain a better understanding of a sampling of careers that have contributed to designing and developing Curiosity; draw a detailed, final-design sketch/diagram of the rover that will be built; identify missions, requirements and features of the rover using labels and captions when necessary. A number of appendices are provided, including standards alignment. This is Lesson 12 of the elementary school version of the 6-week Mars Rover Celebration curriculum. (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)