Review by Christie Thomas, Common Sense Education | Updated April 2015
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NASA's Radio JOVE Project

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Listen to Jupiter by building a radio telescope and tuning in

Subjects & skills
Subjects
  • Science
Skills
  • Critical Thinking
Grades This grade range is based on learning appropriateness and doesn't take into account privacy. It's determined by Common Sense Education, not the product's publisher.
9–12
Common Sense says (See details)
Teachers say (0)
Not yet reviewed
Price:  Free While site access is free, the materials needed to build a radio telescope may cost upwards of $200.
Platforms:  Website

Take a look inside

5 images
From the homepage, find menu tabs in rows just above and below the horizontal title.
Detailed lesson plans (worksheets and keys included) coordinate with Radio Jove experiences.
Building the radio telescope components is a technically-involved process.
It may be easy for some students to forget that this telescope’s data is heard (not seen).
This detailed (and helpful) tutorial walks participants through exploring and uploading data.

Pros: Kids practice radio astronomy, learning about space and science while contributing observations to the NASA community.

Cons: The undertakings –- from building a radio telescope to interacting with the data -- are technical and time-intensive.

Bottom Line: Due to start-up costs (time, learning, money), this one’s a project for advanced, interested classrooms or eager extracurricular groups.

How Can I Teach with This Tool?

Radio JOVE is definitely a project for partnering. Link up with local radio operators (see info in the Education tab), grab a few tech-inclined parents, or locate an Intro to Engineering class at the community college. Your goal is to find people with the technical know-how and interest to get equipment up and running while you focus on content and scientific practices for students. If your class is small, everyone can participate in start-up. With larger classes, you may want to have enthusiastic kids volunteer or even charter a short-term extracurricular group for the purpose. Funding is also something to keep in mind; try a PTSO mini-grant or enlist kids in a school-based fundraiser. Use Radio JOVE lesson plans as-is or as a framework as you explore content kids will need in order to engage in the project successfully.

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Standards:

NASA’s Radio JOVE project invites classrooms and amateur astronomers to build a radio telescope, gather signals from the sun, Jupiter, and (yes) the galaxy, and then share and analyze data. Visitors to the project’s homepage should look for the two grey, horizontal menu bars, one above and one below the colorful Radio JOVE title. Of the 12 tabs, Joining In is an informative place to begin, while Education is a definite stop for teachers. Find standards info (though not NGSS) as well as detailed lesson plans here.

Visitors will find the website abounds in technical details, many related to the building and operating of a radio receiver and antenna array. Kits for these are available for order (about $200) via the Education tab (and through other links on the site). Other materials, tools, and software are required; these are helpfully listed, along with plentiful tips.

Engineering design, meet citizen science: Build your own radio telescope (problem-solving along the way) and share collected data with NASA. Students practice following highly technical directions and communicating their experiences. Gathered data provides a chance for students to develop a model of space and use this to guide next investigations. For classrooms not connected to a telescope, archived data and streamed data can be used.

However, the time investment needed for successful experiences may not be feasible in many classrooms. This is not just the 8+ hours of telescope-building and subsequent positioning and tweaking. It’s also the content background kids will need to make sense of radio data and long-term patterns. Expect some kids to grapple with the idea that this telescope isn’t one you look through; it's one you use to listen and examine evidence of things not seen.

Overall Rating
Engagement Is the product stimulating, entertaining, and engrossing? Will kids want to return?

Some high school kids will be all-in for soldering electronics and configuring antennas, but these interests may not be mainstream. The site's detailed text can intimidate, and users need to remember that data here is heard (not seen).

Pedagogy Is learning content seamlessly baked-in, and do kids build conceptual understanding? Is the product adaptable and empowering? Will skills transfer?

There will be something awesome about hearing a Jovian radio storm on equipment that you've installed and problem-solved. Still, the costs to classroom time will be significant and unlikely to balance with required curriculum.

Support Does the product take into account learners of varying abilities, skill levels, and learning styles? Does it address both struggling and advanced students?

Detailed info on every project aspect (technical diagrams, how-to’s, sample data, lesson plans) is helpfully available online. Users may find organization a bit opaque; clearer menus and tidier options could expedite info-gathering.

Common Sense Reviewer
Christie Thomas Classroom teacher
About our ratings and privacy evaluation.

Key Standards Supported

Earth’s Place in the Universe

  • HS-ESS1-4

    Use mathematical or computational representations to predict the motion of orbiting objects in the solar system.

Engineering Design

  • HS-ETS1-2

    Design a solution to a complex real-world problem by breaking it down into smaller, more manageable problems that can be solved through engineering.

  • HS-ETS1-3

    Evaluate a solution to a complex real-world problem based on prioritized criteria and trade-offs that account for a range of constraints, including cost, safety, reliability, and aesthetics, as well as possible social, cultural, and environmental impacts.

  • MS-ETS1-1

    Define the criteria and constraints of a design problem with sufficient precision to ensure a successful solution, taking into account relevant scientific principles and potential impacts on people and the natural environment that may limit possible solutions.

  • MS-ETS1-2

    Evaluate competing design solutions using a systematic process to determine how well they meet the criteria and constraints of the problem.

  • MS-ETS1-3

    Analyze data from tests to determine similarities and differences among several design solutions to identify the best characteristics of each that can be combined into a new solution to better meet the criteria for success.

Waves and Their Applications in Technologies for Information Transfer

  • HS-PS4-5

    Communicate technical information about how some technological devices use the principles of wave behavior and wave interactions with matter to transmit and capture information and energy.

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