Archive for the ‘Astronomy & Space’ Category
Houston, TX-May 12, 2014 — NanoRacks is excited to have continued broad participation aboard the International Space Station (ISS) through partnerships with citizen and student scientists on the SpaceX-3.
The launch occurred on April 18th from Cape Canaveral, FL. NanoRacks is hosting four payloads on the International Space Station that incorporate work from over eight institutions, both domestic and international. NanoRacks is pleased to have launched two of the seven winners of the Space Florida International Space Station Research Competition on the SpaceX CRS-3 launch.
“The breadth and range of these latest experiments vividly shows how utilization of the International Space Station has accelerated,” said NanoRacks CEO Jeff Manber. “We want to thank all our partners with a special shout-out to Space Florida for their ISS Research Competition program”
The on-station payloads included work of students and researchers from UCDavis, Stanford University, Ohio State University, the Sanford-Burnham Medical Research Institute, NASA Ames, NASA JSC, Texas Southern University, Savannah State, Jarvis Christian College, Tougaloo College, and Prairie View A & M (NASA’s ISS Tier2/Tier3 University Research Project), the Science Cheerleaders, and the German space agency, DLR.
NanoRacks ISS facilities and services are made possible via a space act agreement with NASA. Each of the four payloads launched had a unique mission:
MERCCURI: Microbiologists from UCDavis and the Science Cheerleaders, along with thousands of other citizen scientists from SciStarter, are working to compare the growth of microbes from built environments on Earth with their growth on ISS. They will compare types of microbes found on Earth with those found by astronauts aboard the ISS.
UR-1: Researchers and students from Texas Southern University, Savannah State, Jarvis Christian College, Tougaloo College, and Prairie View A & M (NASA’s first ISS Tier2/Tier3 University Research Project (thus, UR-1)) are focusing on Pharmacology, Immunology, and Cancer research through the NanoRacks platform, with the goal to investigate countermeasures that could “modulate and augment the immune system” focusing on Pharmacology, Immunology, and Cancer research through the NanoRacks platform, with the goal to investigate countermeasures that could “modulate and augment the immune system.”
HeartFlies: Stanford University, Ohio State University, the Sanford-Burnham Medical Research Institute, and NASA Ames launched HeartFlies. HeartFlies is a medical experiment set to understand the effects of space travel on astronaut cardiovascular systems.
Cancer CellBox: Germany’s DLR is carrying out experiments on “scavenger cells” of the human immune system and on human thyroid cancer cells. CellBox will study changes in cellular and molecular function as a result of microgravity. NanoRacks was the first commercial provider that commissioned for transporting and carrying out experiments for the German Space Agency, DLR. Through the CellBox mission, DLR is trying new ways to offer German scientists cost-effective options for carrying out experiments in space.
NanoRacks, LLC – was founded in 2009 in Houston, Texas. They are the market leader in commercialized and scheduled space operations on the ISS via a Space Act Agreement with NASA and their own hardware inside and outside the ISS. To date, over 150 payloads have been delivered to space under the direction of NanoRacks.
Release Date: May 28, 2014
For more information: Email email@example.com or download the press release.
Image: Robert Neff
This originally appeared on the NanoRacks’ Press Release page.
How to use the American Meteor Society’s smartphone app (iOS and Android) to create observer reports of fireballs and meteors during the Camelopardalids this weekend.
Coming soon to a sky near you: a brand new meteor shower!
Barring all cloudy conditions and light-polluted landscapes, you should be able to bear witness to the Camelopardalids this Friday, May 23, 2014 (going into the morning of Saturday, May 24, 2014).
As Earth orbits the sun, sometimes it passes through the stream of debris left by a comet. If the timing is just right, the debris enters the atmosphere and create trails of light in the sky, more colloquially referred to as “shooting stars.” Alas, they aren’t stars at all but tiny pieces of pebble, rock, and grains as fine as sand.
The comet responsible for this shower is 209P/LINEAR, which was discovered in 2004 by Lincoln Near-Earth Asteroid Research, for which it’s nicknamed. It came to closest to our sun (perihelion) on May 6, 2014, but it’ll miss Earth by about 8.3 million kilometers (about 5 million miles) at its closest on May 29, 2014. Don’t worry — we’re not in any danger from it…this time around.
What you can do while you watch the Camelopardalids
The American Meteor Society invites you to report fireball and meteor sightings with their smartphone app and browser-based field logger. The smartphone app allows witnesses to log details about their observations using a mobile device, meaning you can take it with you to your preferred viewing locations — your backyard, a hiking trail, the beach, etc. Sensors in the phone provide a means of triangulating your GPS location, the azimuth and elevation levels, and start/end points of the meteor. Using this data, the AMS can not only accurately determine where meteors occur, but they can also use the data to trace their orbits to their origins.
Simply start your observing session and then each time you see a meteor point to that place in the sky and swipe your finger on the screen in the direction the meteor traveled. Observation data is uploaded to the AMS website, available under your profile there and shared with the scientific community. You can also use the AMS app to look up a meteor shower calendar with star charts and moon conditions for all major and minor showers throughout the year.
[You can also read about contributor Angus Chen's conversation with Mike Hankey from the American Meteor Society on SciStarter's Citizen Science Salon at DiscoverMagazine.com.]
No matter where you’re watching it from, this cosmic event should be exciting and accessible to astronomers and amateur citizen scientists alike.
Oh, and in case you’re curious about how to pronounce “Camelopardalids,” don’t worry — Phil Plait, the Bad Astronomer, has got you covered:
Plait, Phil. “We May Get a Major Meteor Shower on Friday May 23-24.” Bad Astronomy. MAY 20 2014 7:00 AM.
209P/LINEAR. (2014, May 21). In Wikipedia, The Free Encyclopedia. Retrieved 14:54, May 22, 2014.
“Fireballs.” American Meteor Society (2014, May 21).
Lily Bui is the Executive Editor of SciStarter and holds dual degrees in International Studies and Spanish from the University of California Irvine. She is also the STEM Story Project Associate for Public Radio Exchange (PRX) in Cambridge, MA. This fall, she’ll be a masters candidate in MIT’s Comparative Media Studies program. Previously, she helped produce the radio show Re:sound for the Third Coast International Audio Festival, out of WBEZ Chicago. In past lives, she has worked on Capitol Hill in Washington, D.C.; served in AmeriCorps in Montgomery County, Maryland; worked for a New York Times bestselling ghostwriter; and performed across the U.S. as a touring musician. In her spare time, she thinks of cheesy science puns. Follow @dangerbui.
Help researchers determine accuracy of satellite data by capturing and uploading ground observations from your phone.
Want more citizen science? There’s an app for that.
We may not realize it, but artificial satellites are responsible for so many aspects of our daily lives. They dictate our ability to communicate with one another, assist in the navigation of aircraft and ships, monitor and deliver top-secret military information for our security and protection, and track atmospheric and weather changes.
The ability to track weather patterns is an important tool in our daily lives—on one hand, we can figure out whether to bring an umbrella, or wear an extra layer of clothing. On the other hand, the government, organizations and individuals can plan (and if necessary, evacuate) for extreme weather conditions, such as storms and tornadoes. Tracking these changes over the long term is also necessary to determine the impact of climate change. For these reasons, data that is used to track weather patterns needs to be accurate.
However, even technologically advanced satellite monitoring systems have issues with resolution. For example, sometimes the satellite cannot discern between cloud covering and snow. To resolve this issue, a team led by Liam Gumley at the Space Science and Engineering Center (SSEC), in the University of Wisconsin-Madison, developed SatCam (official site), a free iOS app designed to verify images taken by three Earth-observing satellites:
Terra – a NASA satellite that collects data about earth’s changing climate;
Aqua - a NASA satellite that collects data about the earth’s water cycle;
Suomi-NPP - a NASA, the National Oceanic and Atmospheric Administration (NOAA) and the Department of Defense (DoD) satellite that collects long term climate change and short-term weather data.
With SatCam, anyone with an iPhone, iPad or iPod Touch can become a citizen scientist and verify satellite images. The app alerts the user when a satellite is approaching. Once the user is outdoors and once the satellite is in range, point the device at the sky and the app will automatically take a picture. SatCam will prompt the user to take a picture of corresponding horizon, classify the cloud conditions (cloudy, overcast or clear) and classify the ground conditions (urban or vegetation). Once the data is submitted and processed, the app’s “history tab” displays the user’s data and the satellite’s image of the same location on one screen. If you have ever wondered what your neighborhood looks like from over 700km (435 miles) away, you can find out with SatCam.
The first SatCam images were recorded in May 2012. Within two years, over 10,000 images have been recorded from locations all over the world. Margaret Mooney, the Education and Public Outreach Director of the Cooperative Institute for Meteorological Studies (part of the SSEC), said that the app “has taken a life of its own” due to promotion at conferences and Facebook, and it “raises awareness of satellites and of the local environment, and provides ground-truth” to the data obtained by satellites. Educators can employ SatCam as an educational tool, in conjunction with other science educational programs such as GLOBE.
SatCam’s team hopes to expand the app’s capabilities in the near future. According to Mooney, SSEC has submitted a proposal for NASA’s Air Quality group, which would incorporate the ability to record air quality data within the app.
Rae Moore has a BS in Chemistry from McMaster University and studied Bioinorganic Chemistry as a PhD student at McGill University. She has also been a cheerleading coach, yoga teacher, and preschool science educator. Now she focuses on science education and advocacy, and blogs about scientific job searching on her blog, ThereOnceWasaChemist.com.
What happens when you combine professional cheerleaders, microbiologists, and astronauts? The answer is Project MERCCURI and the Microbial Playoffs… in SPAAACE!
SPACE FLORIDA, FL — Today, something amazing is headed toward the ISS—microbial life from earth!This moment is the culmination of a citizen science experiment called Project MERCCURI (Microbial Ecology Research Combining Citizen and University Researchers on the ISS), a collaboration between NASA, UC Davis, SciStarter, and Science Cheerleaders.
Watch the launch LIVE today at 4:58pm ET / 1:58 PT on NASA TV!!
There were two main goals for the project. The first involves a huge competition that will take place on the ISS between 47 different microbes that have been collected by thousands of public participants from the surfaces of various public spaces (mostly sporting venues). The microbial competitors will face off against each other to see who will grow the fastest, and the race will be monitored by astronauts on the ISS, using standard laboratory equipment. Researchers at UC Davis will host an identical race using the same kind of equipment on Earth.
The second goal involves sending 4,000 cell samples to Argonne National Lab to be sequenced by Jack Gilbert. The lab will identify which microbes are present on the surfaces of cell phones and shoes and compare them to other cell phone and shoe samples from around the country. While astronauts do not carry cell phones or wear shoes, they will be swabbing similar surfaces onboard the ISS, like foot holds that they strap their feet into while they are operating the external robotic arms and their wall-mounted communication devices.
You can get to know all of the microbial competitors, who they are, where they’re from, and why they are so cool on the official website. If you want, you can even print your own Microbial Trading Cards. Cell phone and shoe collections will continue through April!
The microbes are sailing into space today aboard Space X’s Dragon spacecraft. SciStarter’s founder, Darlene Cavalier, is on site today at the launch. She notes, “We’re here, in part, as representatives of the thousands of citizen scientists who participated in this important research project to study microbes on Earth and in space!”
— Liz Heinecke (@KitchPantrySci) April 14, 2014
— Phil Plait (@BadAstronomer) April 14, 2014
Thank you to all who made this project possible. It’s pure proof that the sky is the limit for what we can do in science, together.
For more, follow #SpaceMicrobes on Twitter.
Image: Darlene Cavalier
Monitor the rates and sizes of meteoroids striking the moon with the Lunar Impact Monitoring project.
Citizen science after hours…here are some citizen science projects you can do at night.
By now you’ve probably seen Gravity, and maybe you figured real astronauts don’t have to worry about projectiles, flying debris, or explosions. After all, the stars seem so calm from Earth, and the only turbulence we see on the surface of the moon are the waves breaking its reflection over the river. But sometimes, if you look long enough (even with the naked eye), you can spot a meteorite hurtling into Earth’s atmosphere with a flash. Approximately 73,000 lbs, about two large truckloads, of rock streaks through the Earth’s atmosphere each day. Earth’s atmosphere causes the meteorites to burn out before they do any damage, but the Moon has no protection against meteorites and neither do spacecraft or astronauts who might be working on or near the Moon. Potential for catastrophe? Worthy of little globes of Sandra Bullock tears? I’d say so.
To understand what risk these meteorites pose to spacecraft and their crews working in the lunar environment, astronauts have to know how often meteorites impact the moon, what size, and with how much force. Astronomers have been able to see the meteorites hitting the Moon for years – it doesn’t take much. When a meteorite strikes the Moon, it explodes in a flash that can be caught with only an 8 to 14 inch telescope and a clear sky. Since 2006, NASA astronomers like Rob Suggs say they “point telescopes at the night portion of the moon and record video from sensitive cameras,” which they analyze later. Simple as that, the Lunar Impact Monitoring Project at NASA was born.
Suggs says NASA began seeking out the help of citizen scientists immediately: “Many amateur astronomers have equipment similar to what we use.” By having more eyes on the moon, NASA can greatly increase the likelihood of seeing a lunar impact flash. The scientists want to be able to see as much as possible but sometimes, Suggs says, “we are clouded out or the Moon has set at our observatories while the Moon may still be visible from an amateur astronomer’s backyard.”
And sometimes amateur astronomers are the ones who end up seeing the impact. George Varros, a citizen scientist volunteer who has been involved with the Lunar Impact Monitoring Project since 2006, has already caught several impacts on camera. Varros first got involved with the project in part because of a lifelong love of astronomy, but he also says he recognized NASA was asking the amateur astronomy community to do “solid science, and it was not very difficult to do.” Even so, Varros says that the work “does take an effort and several hours, several nights, of imaging might elapse before you record [an impact],” but the wait is well worth it. Capturing an image, he says, is the best part. Already, the project has been able to catch the birth of a new crater and 300 flashes.
Once an image is caught on tape, NASA scientists can try to correlate the impact with a meteor shower they know about and use that information to learn the speed and size of the meteorite. Often, these meteorite can fly through space eighty times faster than the fastest jet on Earth. So far, meteorites haven’t been known to destroy any spacecraft, but some people say that some in-space anomalies – bumps and bruises – have been from meteorites.
Whatever violence the rocks are causing up in space, lunar monitoring is still a peaceful experience from Earth. Suggs says it’s been thrilling to see impacts from the project and “seeing the new crater that Lunar Reconnaissance Orbiter detected from our March 17, 2013, impact was extremely exciting and satisfying.” But his favorite part of the project is still sitting out and watching the sky. Suggs says, “I enjoy the observing: just me and the telescopes and the Moon in the middle of the night.”
Images: Wikimedia (top), courtesy of George Varros (GIF)
Angus R. Chen is a research assistant at Princeton University, where he does geochronology research using uranium and lead isotopes from zircon crystals. Previously, he was a research intern at the Harvard Forest, studying the impacts of climate change on soil. He recently graduated from Oberlin College with a double major in environmental science and creative writing. When he’s not in the lab admiring rocks and then pulverizing them, he writes poetry, fiction, science articles, and makes cool videos.