CSUNSat-1 Team (Adam Kaplan, James Flynn, Donald Eckels) working on their CubeSat at California State University Northridge. The primary mission of CSUNSat1 is to space test an innovative low temperature capable energy storage system developed by the Jet Propulsion Laboratory, raising its TRL level to 7 from 4 to 5. The success of this energy storage system will enable future missions, especially those in deep space to do more science while requiring less energy, mass and volume. This CubeSat was designed, built, programmed, and tested by a team of over 70 engineering and computer science students at CSUN.  The primary source of funding for CSUNSat1 comes from NASA’s Smallest Technology Partnership program. Launched by NASA’s CubeSat Launch Initiative NET April 18, 2017 ELaNa XVII mission on the seventh Orbital-ATK Cygnus Commercial Resupply Services (OA-7) to the International Space Station and deployed on tbd.

For the fourth consecutive year, Irvine's University High School won the Southern California regional round of the National Science Bowl, hosted by JPL. The team, including coach David Knight (lower right), paused for a group shot after their victory on March 20, 2021. https://photojournal.jpl.nasa.gov/catalog/PIA23730

CXBN-2 Integration Team in the Morehead State University Spacecraft Integration and Assembly Facility. Left to right: Kein Dant, Yevgeniy Byleborodov, and Nate Richard. The Cosmic X-Ray Background NanoSat-2 (CXBN-2) CubeSat Mission developed by Morehead State University and its partners the Keldysh Institute (Moscow, Russia), the Maysville Community and Technical College (Morehead, KY) and KYSpace LLC (Lexington, KY) will increase the precision of measurements of the Cosmic X-Ray Background in the 30-50 keV range to a precision of <5%, thereby constraining models that attempt to explain the relative contribution of proposed sources lending insight into the underlying physics of the early universe. The mission addresses a fundamental science question that is central to our understanding of the structure, origin, and evolution of the universe by potentially lending insight into both the high-energy background radiation and into the evolution of primordial galaxies. Launched by NASA’s CubeSat Launch Initiative NET April 18, 2017 ELaNa XVII mission on the seventh Orbital-ATK Cygnus Commercial Resupply Services (OA-7) to the International Space Station and deployed on tbd.

Astronomers using NASA's Hubble Space Telescope have assembled a comprehensive picture of the evolving universe – among the most colorful deep space images ever captured by the 24-year-old telescope. Researchers say the image, in new study called the Ultraviolet Coverage of the Hubble Ultra Deep Field, provides the missing link in star formation. The Hubble Ultra Deep Field 2014 image is a composite of separate exposures taken in 2003 to 2012 with Hubble's Advanced Camera for Surveys and Wide Field Camera 3. Credit: NASA/ESA Read more: <a href="http://1.usa.gov/1neD0se" rel="nofollow">1.usa.gov/1neD0se</a> <b><a href="http://www.nasa.gov/audience/formedia/features/MP_Photo_Guidelines.html" rel="nofollow">NASA image use policy.</a></b> <b><a href="http://www.nasa.gov/centers/goddard/home/index.html" rel="nofollow">NASA Goddard Space Flight Center</a></b> enables NASA’s mission through four scientific endeavors: Earth Science, Heliophysics, Solar System Exploration, and Astrophysics. Goddard plays a leading role in NASA’s accomplishments by contributing compelling scientific knowledge to advance the Agency’s mission. <b>Follow us on <a href="http://twitter.com/NASAGoddardPix" rel="nofollow">Twitter</a></b> <b>Like us on <a href="http://www.facebook.com/pages/Greenbelt-MD/NASA-Goddard/395013845897?ref=tsd" rel="nofollow">Facebook</a></b> <b>Find us on <a href="http://instagram.com/nasagoddard?vm=grid" rel="nofollow">Instagram</a></b>

The University of Waterloo Robotics Team, from Ontario, Canada, prepares their robot for the 2014 NASA Centennial Challenges Sample Return Robot Challenge, Tuesday, June 10, 2014, at the Worcester Polytechnic Institute (WPI) in Worcester, Mass. The team from the University of Waterloo is one of eighteen teams competing for a $1.5 million NASA prize purse. Teams will be required to demonstrate autonomous robots that can locate and collect samples from a wide and varied terrain, operating without human control. The objective of this NASA-WPI Centennial Challenge is to encourage innovations in autonomous navigation and robotics technologies. Innovations stemming from the challenge may improve NASA's capability to explore a variety of destinations in space, as well as enhance the nation's robotic technology for use in industries and applications on Earth. Photo Credit: (NASA/Joel Kowsky)

The Oregon State University Mars Rover Team, from Corvallis, Oregon, follows their robot on the practice field during the 2014 NASA Centennial Challenges Sample Return Robot Challenge, Tuesday, June 10, 2014, at the Worcester Polytechnic Institute (WPI) in Worcester, Mass. The Oregon State University Mars Rover Team is one of eighteen teams competing for a $1.5 million NASA prize purse. Teams will be required to demonstrate autonomous robots that can locate and collect samples from a wide and varied terrain, operating without human control. The objective of this NASA-WPI Centennial Challenge is to encourage innovations in autonomous navigation and robotics technologies. Innovations stemming from the challenge may improve NASA's capability to explore a variety of destinations in space, as well as enhance the nation's robotic technology for use in industries and applications on Earth. Photo Credit: (NASA/Joel Kowsky)

The Oregon State University Mars Rover Team follows their robot on the practice field during the 2014 NASA Centennial Challenges Sample Return Robot Challenge, Tuesday, June 10, 2014, at the Worcester Polytechnic Institute (WPI) in Worcester, Mass. The Oregon State University Mars Rover Team is one of eighteen teams competing for a $1.5 million NASA prize purse. Teams will be required to demonstrate autonomous robots that can locate and collect samples from a wide and varied terrain, operating without human control. The objective of this NASA-WPI Centennial Challenge is to encourage innovations in autonomous navigation and robotics technologies. Innovations stemming from the challenge may improve NASA's capability to explore a variety of destinations in space, as well as enhance the nation's robotic technology for use in industries and applications on Earth. Photo Credit: (NASA/Joel Kowsky)

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

NASA’s Double Asteroid Redirection Test (DART) command team at Johns Hopkins University, Applied Physics Laboratory monitoring the DART spacecraft’s impact into the asteroid Dimorphos. The operation is the first of its kind test to redirect deadly asteroids from hitting Earth.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.

After eight months of designing, building and testing, the middle school, high school and college and university teams launched their rockets as part of NASA Student Launch on Sunday, April 8. The rockets and their payloads are designed to fly to 1-mile in altitude before deploying recovery systems that brings them safely to the ground.