Morpheus Robot Flies As High As The Great Pyramid Before Deking Sideways And Touching Down

The Morpheus lander comes in for a safe landing during a flight on Feb. 10, 2014. Credit: Project Morpheus/YouTube (screenshot)

If it weren’t for that blue sky and those trees in behind, we’d be convinced that this little robot is landing on Mars. The Morpheus Lander once again proved how hard-core amazing these free flights are, as the automated robot soared 467 feet (142 meters) high Feb. 10 before jaunting sideways and making a bang-on-target landing.

“Today we went as high as the top of Great Pyramid of Giza,” the NASA Morpheus Lander Twitter feed said, adding that the team was enjoying “celebratory brownies” to mark the milestone. You can watch the whole video below (and we dare you not to gape during that sideways maneuver.)

The goal of Morpheus is to figure out landing technologies for other planets at a low cost, and lately the project has hit a series of literal highs as the robot made successful free flight after free flight. An earlier prototype crashed and burned in 2012, but the team implemented redesigns and has not lost a craft since.

On Feb. 14, Morpheus also completed a series of ground “hot fire” tests to gather data on how the engines are performing. On that day, the project’s Twitter feed assured followers that another free flight test would come “very soon.”

At ‘Star City’, This Is How Astronauts Learn About Soyuz Spacecraft

European astronaut Andreas Morgensen resting between parabolas on a "Vomit Comet"-like plane during training in 2010.

While the world is having a good time watching Olympic sports in Sochi, about a day’s drive north in Russia there are a bunch of astronauts using their evenings for a different purpose: reading an 18-inch high stack of Soyuz spacecraft textbooks.

“So let’s study all this real quick, let’s learn everything, we’ll learn everything we have to learn, and then let’s go to sim[ulation],” says European astronaut Thomas Pesquet in a new video from living quarters in training facility Star City, near Moscow.

“Okay, but I think it takes about a year,” answers fellow European astronaut Andreas Mogensen.

“Oh … so we better get started,” Pesquet says, handing gobs of books to his colleague.

Mogensen has his hands full in other ways as well as he shows us around Star City: there’s a new baby in his family, as you see at the beginning. We doubt he’s getting a lot of sleep right now, but this will certainly be a memorable time as he prepares to be the first Dane in space in 2015.

For more information on the Gagarin Cosmonaut Training Center at Star City, check out this link.

Low-Flying Moon Probe Spies Craters And Mountains While Seeking Stars

LADEE post launch news briefing at NASA Wallops, VA with Air Force Col. Urban Gillespie, Minotaur mission director from the Space Development and Test Directorate, John Grunsfeld, Astronaut and NASA Associate Administrator for Science, Pete Worden, Director of NASA’s Ames Research Center. Credit: Ken Kremer/kenkremer.com
A series of images from NASA's Lunar Atmosphere and Dust Environment Explorer (LADEE) in Februrary 2014 showing the moon. Credit: NASA Ames
A series of images from NASA’s Lunar Atmosphere and Dust Environment Explorer (LADEE) in Februrary 2014 showing the moon. Credit: NASA Ames

While NASA’s newest lunar probe was tracking the stars, it also captured the moon! This series of star tracker images shows Earth’s closest large neighbour from a close-up orbit. And as NASA explains, the primary purpose of these star-tracking images from the Lunar Atmosphere and Dust Environment Explorer (LADEE) was not the lunar pictures themselves.

Continue reading “Low-Flying Moon Probe Spies Craters And Mountains While Seeking Stars”

Ghostly Cat’s Eye Nebula Shines In Space Telescope Calibration Image

A view of the Cat's Eye Nebula during the calibration phase of Gaia, a Milky Way-mapping telescope. Credit: ESA/DPAC/Airbus DS

Here’s a glimpse of how a telescope gets ready for its main mission. The European Space Agency’s Gaia telescope is in the middle of a commissioning phase before mapping out the locations of stars and other objects in the Milky Way. While the nominal mission is not to take pictures, it is through these images that controllers can verify that the telescope is tuned properly to do its work.

What you’re seeing is data from the Gaia camera’s “sky-mapper strips” that are actually intensity maps rendered in black and white, ESA explained. You can see in the picture above that the shot on the left is a bit blurry, while the one on the right looks a bit sharper. That’s because controllers better calibrated the charged coupled devices to the spacecraft’s spin rate, ESA said.

Lucky for us, ESA is sharing those images so we can see the process in action. This set of pictures below follows on from a calibration image of the Large Magellanic Cloud that was released last week. More details are available at ESA and also in this Dec. 19 Universe Today story.

A calibration image of M94 taken by Gaia, a Milky Way-mapping telescope, in early 2014. The gap is due to the image appearing on two separate CCDs. Credit: ESA/DPAC/Airbus DS
A calibration image of M94 taken by Gaia, a Milky Way-mapping telescope, in early 2014. The gap is due to the image appearing on two separate CCDs. Credit: ESA/DPAC/Airbus DS
Writes the European Space Agency in February 2014: "This is a rotated Gaia image section (left; extracted from the cluster image of NGC 2516 above), compared to a Digital Sky Survey image taken from the ground (right)." Credit: ESA/DPAC/Airbus DS/DSS
Writes the European Space Agency in February 2014: “This is a rotated Gaia image section (left; extracted from the cluster image of NGC 2516 above), compared to a Digital Sky Survey image taken from the ground (right).” Credit: ESA/DPAC/Airbus DS/DSS

For Valentine’s Day, Enjoy These Hearts On Earth, Mars And Other Places

A heart-shaped feature in the Arabia Terra region of Mars taken by NASA's Mars Reconnaissance Orbiter. Image Credit: NASA/JPL-Caltech/MSSS.

While we’re unsure about the status of chocolates and flowers in locations far beyond Earth, there certainly is no lack of hearts for us to look at to enjoy Valentine’s Day. If you look at enough geologic features or gas clouds, statistically some of them will take on shapes that we recognize (such as faces).

Below, we’ve collected some hearts on Mars and other places in the universe. Have we missed any? Share other astronomy hearts in the comments!

This heart-shaped feature on Mars "is actually a pit formed by collapse within a straight-walled trough known in geological terms as a graben," wrote Malin Space Systems in 1999. Picture taken by Mars Global Surveyor. Credit: Malin Space Science Systems, MGS, JPL, NASA
This heart-shaped feature on Mars “is actually a pit formed by collapse within a straight-walled trough known in geological terms as a graben,” wrote Malin Space Systems in 1999. Picture taken by Mars Global Surveyor. Credit: Malin Space Science Systems, MGS, JPL, NASA
A heart-shaped mesa captured by Mars Global Surveyor in 1999, in the Promethei Rupes region. Credit: Malin Space Science Systems, MGS, JPL, NASA
A heart-shaped mesa captured by Mars Global Surveyor in 1999, in the Promethei Rupes region. Credit: Malin Space Science Systems, MGS, JPL, NASA
The Heart and Soul nebulae in an infrared mosaic from NASA's Wide-field Infrared Survey Explorer (WISE). It is located about about 6,000 light-years from Earth. Credit: NASA/JPL-Caltech/UCLA
The Heart and Soul nebulae in an infrared mosaic from NASA’s Wide-field Infrared Survey Explorer (WISE). It is located about about 6,000 light-years from Earth. Credit: NASA/JPL-Caltech/UCLA

 

 

 

How Would Earth Send Messages To A Starship — Or A Distant Civilization?

USS Enterprise-D, a starship of the Star Trek: The Next Generation era. Credit: MemoryAlpha.Org/Paramount Pictures/CBS Studios

I have a new exercise routine where I watch Star Trek: The Next Generation most mornings of the week while doing my thing. Besides serving as awesome distraction, the episodes do get me thinking about how humans would talk to extraterrestrials. It likely wouldn’t be as easy as the show portrays to zoom across space to conduct diplomatic negotiations at the planet “Parliament”, for example, so interstellar communication would be a problem.

Luckily for non-engineers such as me, there are folks out there (on Earth, at least) that are examining the problem of talking between stars. David Messerschmitt, of the University of California at Berkeley, is one of those people. A new paper by him on Arxiv examines the issue. Note this is a preprint site and not a peer-reviewed journal, but all the same it provides an intriguing addition to how to communicate outside of Earth.

Messerschmitt explains that humans already communicate with probes that are a fair distance from Earth (say, Voyager 1 in interstellar space) at radio frequencies, and there is some usage now of laser/optical communications (namely between the Earth and the moon).

Across greater distances, however, you lose information, the interstellar medium gets in the way, and stars shift due to relative motion. Besides all that, at first you wouldn’t know how the other civilization designs its systems and you could therefore send a message that wouldn’t be picked up.

This sequence of images, showing a region where fewer stars are forming near the constellation of Perseus, illustrates how the structure and distribution of the interstellar medium can be distilled from the images obtained with Planck. Credit: ESA / HFI and LFI Consortia
This sequence of images, showing a region where fewer stars are forming near the constellation of Perseus, illustrates how the structure and distribution of the interstellar medium can be distilled from the images obtained with Planck. Credit: ESA / HFI and LFI Consortia

He further explains that starships and civilizations would have different communications requirements. Starship communication would be two-way and based on a similar design, so success comes by having high “uplink and downlink transmit times”. The more information, the better it would be for scientific observations and keeping down errors.

Civilization-to-civilization chats, however, would present headaches. As with all diplomatic negotiations, crafting suitable messages would take time. Then we’d have to send the message out repeatedly to make sure it is heard (which actually means that reliability is not as big of a problem.) Then the ISM would have to be contended with (something that pulsar astronomers and astrophysicists are already working on, he said).

In either case — talking to starships or other civilizations — one can assume there’d be a lot of energy involved, he added. “Starships are likely to be much closer than the nearest civilizations, but the cost of either a large transmit antenna or transmit energy is likely to be considerably greater for the starship than for a terrestrial-based transmitter,” he said, suggesting that a solution would be to minimize the energy delivered to the receiver. Other civilizations may have found more efficient ways to overcome this problem, he added.

You can read more details of the research on Arxiv, where Messerschmitt talks about Gaussian noise, channel coding and other parameters to keep in mind during communication.

Martian Spacecraft Busts A Move To Glimpse Possible Water Flows

Artist's conception of the Mars Odyssey spacecraft. Credit: NASA/JPL

Just a few days ago, we posted about possibly salty water flows on Mars. Of note, the NASA press release noted, moisture is likely more prevalent in the morning and the Mars Reconnaissance Orbiter does most observations in the afternoon, local time. That’s too bad, we thought. But wait! It turns out that NASA Mars Odyssey spacecraft is going to change its orbit to get a better look.

It’s going to take nearly two years for NASA to maneuver the long-running Odyssey to the right spot, but at that point mission managers expect the spacecraft still has another decade of observations ahead of it based on current fuel consumption. That’s great considering that the spacecraft has been beaming back images since 2001!

Odyssey will be the first spacecraft to do dedicated morning observations of the planet since any NASA orbiter of the 1970s, which dates observations back to the Viking era (except for a few glimpses by European Space Agency spacecraft and previous NASA orbiters). Advances in imaging mean we will get a far clearer view of the ground than ever before.

“The change will enable observation of changing ground temperatures after sunrise and after sunset in thousands of places on Mars,” NASA stated. “Those observations could yield insight about the composition of the ground and about temperature-driven processes, such as warm-season flows observed on some slopes, and geysers fed by spring thawing of carbon-dioxide ice near Mars’ poles.”

Morning water-ice clouds on Mars spotted by Viking 1 in 1976. Mars Odyssey's new orbit will reveal more of these types of morning observations. Credit: NASA/JPL
Morning water-ice clouds on Mars spotted by Viking 1 in 1976. Mars Odyssey’s new orbit will reveal more of these types of morning observations. Credit: NASA/JPL

The first maneuver took place Tuesday (Feb. 11) when a brief firing of Odyssey’s engines got the spacecraft pushing faster for an orbital shift. It will drift in that direction until November 2015, when controllers will do another maneuver to keep it in a stable location.

Right now, Odyssey is in a near-polar orbit that keeps local daylight at the same time below it. There have been a few changes to the timing over its dozen years of operation:

  • First six years (approx. 2001-2007): The orbit was mostly at 5 p.m. local solar time (as it flew north to south) and 5 a.m. local solar time on the south-to-north orbit. “That orbit provided an advantage for the orbiter’s Gamma Ray Spectrometer to have its cooling equipment pointed away from the sun,” NASA stated. At that time, the spectrometer found evidence of water ice, through the spectrum of hydrogen.
  • Next five years (approx. 2007-2012): The orbit shifted to 4 p.m. local solar time on north-to-south, and 4 a.m. south to north. While this allowed the Thermal Emission Imaging System to examine warm ground that made the mineral signatures in infrared pop out more easily, on the flip side of the planet Odyssey’s power system was under more strain because the solar panels couldn’t work as well in predawn light. Odyssey remained in that orbit until about the 2012 landing of the Curiosity rover, then was sent on a maneuver to move its orbit to later in the day to keep the battery functioning.
  • What’s next: Once Odyssey is in the right spot, the spacecraft will flip its daylight observations to scan the ground at 6:45 a.m. on the south-to-north part of the orbit. The spacecraft was in fact going in that direction already, but the new maneuver gets it there a bit sooner.

“We don’t know exactly what we’re going to find when we get to an orbit where we see the morning just after sunrise,” stated Philip Christensen of Arizona State University, who is THEMIS principal investigator and the person who suggested the move. “We can look for seasonal differences. Are fogs more common in winter or spring? We will look systematically. We will observe clouds in visible light and check the temperature of the ground in infrared.”

“We know that in places, carbon dioxide frost forms overnight,” he added. “And then it sublimates immediately after sunrise. What would this process look like in action? How would it behave? We’ve never observed this kind of phenomenon directly.”

Sources: NASA Jet Propulsion Laboratory and Arizona State University

When Doves Fly: Swarm Of Tiny Satellites Shot From Space Station

NanoRacks CubeSats deployed from the International Space Station in February 2014, during Expedition 38. Credit: NASA

Astronauts fired up the International Space Station’s Yard-a-Pult (actually, we mean the Japanese Kibo arm’s satellite launcher) this week to send out a flock of Doves or tiny satellites that take pictures of the Earth below. An incredible 28 satellites from Planet Labs of San Francisco are expected to swarm into orbit — the largest fleet yet, NASA says — but there have been delays in launching some of them.

The aim? To provide Earth observation information for any purpose that is needed, whether it’s disaster relief or looking to learn more about the Earth’s environment. Planet Labs and NASA say that commercial applications could include real estate, mapping, construction and oil and gas monitoring.

Deployments of two satellites each began on Tuesday and Wednesday, but NASA noted there are “glitches” (which the agency didn’t specify) that are holding up the launch of other ones. There’s no estimated date yet for sending out the rest of the satellites.

“We believe that the democratization of information about a changing planet is the mission that we are focused on, and that, in and of itself, is going to be quite valuable for the planet,” stated Robbie Schingler, co-founder of Planet Labs.

The Japanese Kibo robotic arm on the International Space Station deploys CubeSats during February 2014. The arm was holding a Small Satellite Orbital Deployer to send out the small satellites during Expedition 38. Credit: NASA
The Japanese Kibo robotic arm on the International Space Station deploys CubeSats during February 2014. The arm was holding a Small Satellite Orbital Deployer to send out the small satellites during Expedition 38. Credit: NASA

Flock 1 is a customer of the NanoRacks CubeSats program. CubeSats are small satellites that heavily rely on computer miniaturization to do the job of Earth observation and telecommunication that previously was the province of much larger and more expensive satellites. NanoRacks provides space both inside and outside the station for research experiments.

Expedition 38’s Rick Mastracchio and Koichi Wakata both commented on the unusual launches. “Two small satellites are deployed from our launcher here on the space station. Each a little bigger than loaf of bread,” Mastracchio tweeted, while Wakata wrote, “Congratulations on the successful deploy of the satellites by the NanoRacks CubeSat Deployer and Kibo robotics!”

For more information on Flock 1, check out the Planet Labs website. You can also check out an animation of how NanoRacks CubeSats deploy in the animation below (which includes a clip from the song “We Are Young” by Fun.)

Who Wants A One-Way Trip To Mars? Meet Three People Applying For Mars One

Three Mars One applicants that made it to the second round. From left, Max Fagin, Brian Hinson and Andrew Rader. (All pictures provided by the respective subjects of the photos).

If you were to find yourself on the Red Planet, what would you do when you get there? Those who made the second round of the Mars One mission (which aims to establish a colony on Mars in the next decade) are a step closer to answering that question. In interviews with Universe Today, applicants Andrew Rader, Max Fagin and Brian Hinson explained what they’ll do if they embark on a planned one-way trip to the Red Planet.

It’s impossible in three interviews to capture the diversity of more than 1,000 second-round applicants, so we encourage you to head over to Mars One’s website to browse the full list of people. As for these three would-be Marstronauts, we have their application videos and their plans for Mars exploration below the jump.

Max Fagin, 26, United States

With a resume including the NASA Academy and the Mars Desert Research Station, you’d expect that Fagin would be interested in the conventional astronaut program. He wants to try for Mars One first, however, because the Red Planet is the destination he prefers.

“Applying to become an astronaut at NASA is still an option, but at the moment they don’t have Mars as a destination,” he said. “Right now it’s the asteroids, which is cool, I’d love to see that, but it’s not something I’m willing to risk my life over.” Going to Mars would provide a greater payoff, he added, in that a new home base could be established for humanity.

One question intriguing Fagin is how to make a vehicle that travels to Mars better optimized to be used on the surface. He believes that the design will need to be changed somehow post-landing to make it possible to perform agriculture and do other duties on station. (He is in fact doing graduate engineering work at Indiana’s Purdue University right now to study more about this problem.)

Fagin is looking forward to diversifying his training if he does get selected. He’s strong in engineering, he said, but feels that learning medical skills, for example, will position all crew members well to work on the surface.

Brian Hinson, 44, United States

As you can see by the application video, Hinson is not afraid of standing out. He’s been to 39 countries and describes himself as experienced in learning about different cultures. He’s a private pilot and has also tested himself physically, for example by mountain-climbing to altitudes above 19,685 feet (6,000 meters).

“The whole Mars thing came up, and it sounds like the greatest adventure of all time,” said Hinson, who co-founded the company Skin Beautiful Dermaceuticals with his wife, Kathleen Eickholt (who is supportive of the Mars mission, but doesn’t necessarily want him to leave, he adds).

Hinson is a lifelong space enthusiast, but says his math capabilities weren’t enough to consider the NASA astronaut program. He would contribute to the mission as an engineer: “I think I could help out with hydroponics, recycle the water and everything else … [and also] picking up samples for scientists back home.”

From spending as long as 2.5 weeks on trips with strangers, Hinson added that he thinks psychological aspects will be key to success of the crew. He added that he expects the Mars One training process will include extended periods of time in isolation, perhaps something similar to the six months a science crew typically spends in Antarctica.

Andrew Rader, 34, Canada

Rader’s skills span both the technical and the human, as he earned a Ph.D. in aerospace engineering from the Massachusetts Institute of Technology and also was crowned “Canada’s Greatest Know-It-All” in a reality show competition hosted by the Discovery Channel. Mars One will only succeed as a venture if it can be “sold” to the public as a worthy endeavor, he said, adding that space enthusiasts will be among the hardest to convince because of their knowledge.

“Mars One could possibly happen if it gains enough support, if everyone donated a dollar, or space enthusiasts donated a hundred dollars [each], or billionaires donated a chunk, it could happen,” he added.

He characterizes the first few years of the colony as a time when people need to focus on the basic parts of Maslow’s hierarchy of needs. Keeping people safe and fed will come before scientific return for the first bit. His first goal on the surface will be to make the base as self-sustaining as possible. If that works out, he’d be happy to do things such as maintain rovers to pick up samples for people to analyze back at a Mars “lab”. (Having robots do surface exploration would reduce the risk of radiation, he said.)

Space is the long-term solution to the survival of our species, Rader adds, with the ultimate destination being outside the solar system. To get there first, however, you need stepping stones, and he believes Mars is the most likely destination for humans. “Mars is a very challenging place to go for us, but it is within our technological capabilities, and going there would create the technological incentives to go further.”

Teamwork! Two Telescopes Combine Forces To Spot Distant Galaxy Clusters

Artist's impression of the Herschel Space Telescope. Credit: ESA/AOES Medialab/NASA/ESA/STScI
Artist's impression of the Herschel Space Telescope. Credit: ESA/AOES Medialab/NASA/ESA/STScI

Doing something extraordinary often requires teamwork for humans, and the same can be said for telescopes. Witness the success of the Herschel and Planck observatories, whose data was combined in such a way to spot four galaxy clusters 10 billion years away — an era when the universe was just getting started.

Now that they have the technique down, astronomers believe they’ll be able to find about 2,000 other distant clusters that could show us more about how these collections of galaxies first came together.

Although very far away, the huge clumps of gas and dust coming together into stars is still visible, allowing telescopes to see the process in action.

“What we believe we are seeing in these distant clusters are giant elliptical galaxies in the process of being formed,” stated David Clements, a physicist at Imperial College London who led the research, referring to one of the two kinds of galaxies the universe has today. Elliptical galaxies are dominated by stars that are already formed, while spiral galaxies (like the Milky Way) include much more gas and dust.

Three false-color images of Herschel images identified by Planck. Infrared light is represented in three colors -- blue, green, and red -- that respectively show longer wavelengths. The green circle shows where Planck aimed. The co-ordinates show the location in right ascension and declination. Credit: D. Clements/ESA/NASA
Three false-color images of Herschel images identified by Planck. Infrared light is represented in three colors — blue, green, and red — that respectively show longer wavelengths. The green circle shows where Planck aimed. The co-ordinates show the location in right ascension and declination. Credit: D. Clements/ESA/NASA

This finding is yet another example of how the data from telescopes lives on, and can be used, long after the telescope missions have finished. Both Planck and Herschel finished their operations last year.

“The researchers used Planck data to find sources of far-infrared emission in areas covered by the Herschel satellite, then cross-referenced with Herschel data to look at these sources more closely,” the Royal Astronomical Society stated.

The two telescopes had complementary views, with Planck looking at the entire sky while Herschel surveyed smaller sections in higher resolution. By combining the data, researchers found 16 sources in total. A dozen of them were already discovered single galaxies, but four were the newly discovered galaxy clusters. Fresh observations were then used to figure out the distance.

You can read more details in the Monthly Notices of the Royal Astronomical Society or in preprint version on Arxiv.

Source: Royal Astronomical Society