Did you know that YOU (yes you!), can send science experiments to the International Space Station?
To celebrate 20 years of continuous human presence on the International Space Station, NASA STEM on Station is sending five student experiments to the space station through Student Payload Opportunity with Citizen Science (SPOCS). Selected teams will also engage K-12 students as a part of their experiment through citizen-science.
Get to know the 5 college teams sending their experiments to space!
Team: A-State Science Support System
Experiment Title: Microgravity Environment Impact on Plastic Biodegradation by Galleria mellonella
Experiment Description: Discover the ability of wax worms to degrade plastics in space.
Why did you propose this experiment?
Our team’s passion for sustainability developed into novel ideas for space travel through biodegradation of plastics.
How will the experiment benefit humankind or future space exploration?
If our experiment is successful, it will “launch” us closer to understanding how to reduce humankind’s plastic footprint on Earth and allow us to safely push farther into unknown planetary habitats.
How have you worked together as a team during the pandemic?
Unknown to each other before the project, our interdisciplinary team formed through virtual communication.
What science fiction character best represents your team and why?
The sandworms of Dune represent our team perfectly considering their importance in space travel, the natural ecological service they provide, and their sheer awesomeness
Team: Columbia Space Initiative
Experiment Title: Characterizing Antibiotic Resistance in Microgravity Environments (CARMEn)
Experiment Description: Discover the impact of mutations on bacteria in microgravity when grown into a biofilm with fungus.
Why did you propose this experiment?
As a highly interdisciplinary team united by our love of outer space, SPOCS was the perfect opportunity to fuse biology, engineering, and education into a meaningful team project.
How will the experiment benefit humankind or future space exploration?
Studying how different microorganisms interact with each other to develop bacterial resistance in space will help improve antibiotic treatments for future Artemis astronauts.
How have you worked together as a team during the pandemic?
Most of our team actually hasn’t ever met in person—we’ve been videoconferencing weekly since May!
What science fiction character best represents your team and why?
Our team is definitely Buzz Lightyear from Toy Story, because we strive to reach infinity (or at least the International Space Station) and beyond!
Team: Stanford Student Space Initiative
Experiment Title: Biopolymer Research for In-Situ Capabilities (BRIC)
Experiment Description: Determine how microgravity impacts the solidification of biobricks.
Why did you propose this experiment?
We have an ongoing project to design and build a machine that turns lunar or Martian soil into bricks, and we want to learn how reduced gravity will impact the process.
How will the experiment benefit humankind or future space exploration?
We are studying an environmentally-friendly concrete alternative that can be used to make structures on Earth and other planets out of on-site, readily available resources.
How have you worked together as a team during the pandemic?
We transitioned our weekly meetings to an online format so that we could continue at our planned pace while maintaining our community.
What science fiction character best represents your team and why?
Like our beloved childhood friend WALL-E, we craftily make inhospitable environments suitable for life with local resources.
Team: Vandal Voyagers I
Experiment Title: Bacteria Resistant Polymers in Microgravity
Experiment Description: Determine how microgravity impacts the efficacy of bacteria resistant polymers.
Why did you propose this experiment?
The recent emphasis on surface sterility got us thinking about ways to reduce the risk of disease transmission by surfaces on the International Space Station.
How will the experiment benefit humankind or future space exploration?
If successful, the application of proposed polymers can benefit humankind by reducing transmission through high contact surfaces on and off Earth such as hand rails and door handles.
How have you worked together as a team during the pandemic?
We are allowed to work collaboratively in person given we follow the current university COVID guidelines.
What science fiction character best represents your team and why?
Mark Watney from The Martian because he is willing to troubleshoot and problem solve on his own while collaborating with NASA from afar.
Team: Team Cooke
Experiment Title: Novel Methods of Antibiotic Discovery in Space (NoMADS)
Experiment Description: Determine how microgravity impacts the amount of bacterium isolates that produce antibiotic metabolites.
Why did you propose this experiment?
To contribute to the limited body of knowledge regarding bacterial resistance and mutations in off-Earth conditions.
How will the experiment benefit humankind or future space exploration?
Understanding how bacteria in the human microbiome and on spacecraft surfaces change can ensure the safe and accurate treatment of bacterial infections in astronauts.
How have you worked together as a team during the pandemic?
Our team continued to evolve our communication methods throughout the pandemic, utilizing frequent remote video conferencing, telecommunications, email, and in-person conferences.
What science fiction character best represents your team and why?
Professor Xavier, the founder of the X-Men, because he also works with mutants and feels that while they are often misunderstood, under the right circumstances they can greatly benefit the world.
Make sure to follow us on Tumblr for your regular dose of space: http://nasa.tumblr.com.
Who turned off the lights?
Are we alone? How did we get here? Where are we headed?
At NASA, our mission is to explore. We visit destinations in our solar system and study worlds beyond to better understand these big questions.
We also dream. We dream of traveling to distant worlds, and what that might be like. In the video above you can see fanciful, imagined adventures to real places we’ve studied at NASA.
Check out how we created these otherworldly scenes in the video below. A NASA videographer used green screens to add motion and real people to bring life to our series of solar system and exoplanet travel posters.
Let’s dive into one example from the video. The shot of kayaking on Titan showcases the real rivers and lakes of liquid methane and ethane that slosh and flow on Saturn's largest moon. Titan's mysterious surface was revealed by our Cassini spacecraft, which also deployed the European Space Agency’s Huygens probe to the surface. The atmosphere on Titan is so thick, and the gravity so light, that with each strike of a paddle, you might be lofted above the swift current as you ride the tides through a narrow strait called the Throat of Kraken. NASA scientist Mike Malaska studies Titan and collaborated on the poster featured in the video. His research informed the artwork, and so did a hobby: kayaking. Those ultra-cold chemical seas might be even more of a challenge than shown here. Your boat might crack, or even dissolve, Malaska said.
We’ll learn more about Titan when our Dragonfly mission of dual quadcoptors — rotorcraft with eight blades each — visits the icy moon in 2034.
Our understanding of other worlds is always evolving, and sometimes we learn new details after we illustrate our science. In one of our travel posters, we show a traveler standing on the surface of exoplanet Kepler-16b with two shadows formed by the planet’s two suns. The planet does indeed orbit two stars, but with later size and mass refinements, we now think it would be hard to stand there and enjoy a binary sunset. There isn't a solid surface to stand on a gas planet, and that's what Kepler-16b now appears to be!
In addition to sharing how sublime science can be, these scenes are a reminder that there are lots of careers in the space program, not just scientist, engineer, or astronaut. A creative team at NASA’s Jet Propulsion Laboratory in Southern California produced the travel posters, originally to help share the work of NASA's Exoplanet Exploration Program. They are the result of lots of brainstorming and discussion with real NASA scientists, engineers, and expert communicators. The video versions of these spacey travel scenes were produced by visualization experts at NASA’s Goddard Space Flight Center in Greenbelt, Maryland.
All of this work is meant to inspire, and to explore the edge of possibility. It’s also an invitation. With science, we’re stepping into the future. Join us?
Salar de Uyuni, Bolivia
Crédito: Jheison Huerta
Instagram: http://instagram.com/jheison_huerta
Web: http://jheisonhuerta.com
Auroras desde Kiruna, Suecia.
Crédito: Mia Stålnacke
@AngryTheInch
Lanzamiento exitoso #PSLVC50
Foto: ISRO - Indian Space Research Organisation
¿Se imaginan poder ver ese cielo siempre? Esta fotografía fue tomada desde Kiruna, Suecia.
Crédito: Mia Stålnacke
@AngryTheInch
https://www.facebook.com/angryinch https://www.buymeacoffee.com/angrytheinch
Noche azúl
🗓️ 2012
📸 Mikko Lagerstedt
@mikkolagerstedt
https://www.facebook.com/mikkolagerstedt/
En septiembre de 2006 como parte de la Misión STS-115, el astronauta de la CSA, Steve MacLean se convirtió en el primer canadiense en operar Canadarm2 en el espacio y el segundo canadiense en realizar una caminata espacial.
Crédito: @NASA
Vía Láctea capturada a través de un lente ojo de pescado o fisheye.
Un objetivo ojo de pez es una lente de ángulo ultra ancho que produce una distorcion visual fuerte con la intención de crear una imagen panorámica o hemisférica ancha.
Crédito: Dr. Sebastian Voltmer
https://instagram.com/sebastianvoltmer
~Antares
Glaretum fundado en el 2015 con el objetivo de divulgar la ciencia a través de la Astronomía hasta convertirnos en una fuente de conocimiento científico veraz siendo garantía de información seria y actualizada.
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