Astronomy Without A Telescope – Say No To Mass Extinction

Artist's impression of a gravity tug - a species and ecosystem saving device we haven't built yet. Credit: Durda/BBC News

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You may have heard that there is an 86 per cent chance that in a mere million years or so Gliese 710 will drift close enough to the solar system to perturb the Oort cloud and perhaps send a rain of comets down into the inner solar system. 

Also, you have probably heard that there are hints of a certain periodicity in mass extinction events, perhaps linked to the solar system moving through the denser parts of the galactic disk, increasing the probability of similar close encounters. 

So, the big bad is coming… sometime. It might just be a stray asteroid that’s in the wrong place at the wrong time and have little to do with what’s happening outside the solar system. In any case, we need to stay calm and carry on – and maybe print the following handy survival tips on a fridge magnet.  

Idealised fridge magnet - for us or whoever comes next.

Immediate action: Fund sky surveys.

The Spaceguard Survey is underway aiming to identify near Earth objects down to the size of 140 meters. At present the survey might be finished in ten or fifteen years and it completely missed two small objects which are thought to have hit Earth in 2002 with impact energies approaching half a kiloton. 

Uh, anyone think we could be doing more in this space? 

Medium term action (0 – 10 years): Evacuate the area 

The 2010 National Academy of Science (NAS) report uses the strange term civil defence, but really it just means run for your life (i.e. evacuate the anticipated impact site). City destroyers in the 140 meter plus range may only hit Earth every 30,000 years or so, but it doesn’t hurt to be ready. 

Mass extinction objects in the ten kilometer range may only come every 65 million years or so. If it’s one of these… bummer. 

Long-term action (10 years plus): Call Roger Ramjet   

If we do have around 10 years notice, there’s maybe enough time to launch some of the nifty technology solutions we have at least developed on paper. Gravity tugs and mirror bees and various other deflection devices are recommended to deflect objects threatening to pass through a gravitational keyhole and shift onto a collision course next time around. 

If the object is already on collision course, no-one’s ruling out ‘instantaneous force’ (IF) options, which are either crashing something into it (‘kinetic impact’) or just nuking it – although the NAS report notes a 500% uncertainty about the possible trajectory change resulting from an IF. Ideally, a ‘full deflection campaign’ involves an IF primary deflection followed by subsequent shepherding of one or more fragments onto a safer trajectory via your preferred deflection device.

And look, if it does all goes bad at least the next order of intelligent Earthlings might dig up all these fridge magnets with mysterious symbols printed on them and be able to figure out where we went wrong. My money is on the birds. 

Recommended reading: 

The Association of Space Explorers’ International Panel (chaired by Russell ‘Rusty’ Schweickart) report. Asteroid Threats: A Call For Global Response. 

 National Research Council report. Defending Planet Earth: Near-Earth Object Surveys and Hazard Mitigation Strategies. Final Report.

Weekend SkyWatcher’s Forecast: March 26 – 28, 2010

Greetings, fellow SkyWatchers! Are you ready to commit a little lunacy? Then don’t forget to turn off your lights to celebrate Earth Hour and let’s take a much closer look at what’s really lighting up the skies – the Moon. Before you think that lunar observing is boring, or carries a little less weight than deep sky studies, then try your hand at truly identifying some of this weekend’s studies! Some features can be identified with just your eyes.. and if you can do the larger ones with binoculars? You’re good. But why not test out your optics and your skills with some real lunar challenges? Then hit the switch and I’ll see you after dark…

March 26, 2010 – Today, think about a French amateur astronomer who was watching around black spot transit the Sun today in 1859. His name was Lescarbault, and he was sure he’d witnessed a new planet, which he christened ‘‘Vulcan.’’ Nathaniel Bowditch was also born this date in 1773. He also devised the ‘‘Bowditch Curve,’’ which applies in both physics and astronomy. Bowditch’s mathematical and astronomical work during his lifetime earned him many accolades – including election to the American Academy of Arts and Sciences. While his life took him down many career paths, including celestial navigation, one of his fortes was an article on his observations of the Moon which was published in 1804. Now, 206 years later, let’s step outside and look up…

We start our observing evening with the beautiful Moon as we return first to the ancient and graceful landmark crater Gassendi standing at the north edge of Mare Humorum. The mare itself is around the size of the state of Arkansas and is one of the oldest of the circular maria on the visible surface. As you view the bright ring of Gassendi, look for evidence of the massive impact which may have formed Humorum. It is believed the original crater may have been in excess of 462 kilometers in diameter, indenting the lunar surface almost twice over. Over time, similar smaller strikes formed the many craters around its edges and lava flow gradually gave the area the ridge- and rille-covered floor we see tonight. Its name is the “Sea of Moisture,” but look for its frozen waves in the long dry landscape.

Caught on the northwestern rim of Mare Humorum, look for crater Mersenius. It is a typical Nectarian geological formation, spanning approximately 51 miles in diameter in all directions. Power up in a telescope to look for fine features such as steep slopes supporting newer impact crater Mersenius P and tiny interior craterlet chains. Can you spot white formations and crevices along its terraced walls? How about Rimae Mersenius? Further south you’ll spy tiny Liebig helping to support Mersenius D’s older structure, along with its own small set of mountains known as the Rupes Liebig. Continue to follow the edge of Mare Humorum around the wall known as Rimae Doppelmayer until you reach the shallow old crater Doppelmayer. As you can see, the whole floor fractured crater has been filled with lava flow from Mare Humorum’s formation, pointing to an age older than Humorum itself. Look for a shallow mountain peak in its center – there’s a very good chance this peak is actually higher than the crater walls. Did this crater begin to upwell as it filled? Or did it experience some volcanic activity of its own? Take a closer look at the floor if the lighting is right to spy a small lava dome and evidence of dark pyroclastic deposits – it’s a testament to what once was!

March 27, 2010 – Enjoy your day and think about the importance of the birth of John Pierce in 1910. Pierce undertook the visionary work of communications satellites. Although people scoffed at his ideas, in 1960 he convinced a U.S. agency called NASA to convert a balloon-borne experiment called ‘‘Echo’’ into a radio wave reflector. Thanks to his brilliant work, the next step was the development of Telstar, a satellite that ushered in the modern age of television! Of course, you could always just skip TV tonight and do the Moon instead!

Tonight the great Grimaldi, found in the central region of the Moon near the terminator is the best lunar feature for binoculars. This huge, old basin on the western limb comes from the pre-Nectarian geological period and is definitely at least 4 billion years old. Spanning about 134 miles in diameter and filled with low albedo lava, Grimaldi – like Plato – is a landmark feature that’s easily noticed even without optical aid, but holds wonderful details for study. Using a telescope, take a look at the inner walls of Grimaldi, where you’ll see they have been heavily eroded and worn away by impacts and time. All that’s left now is a series of low hills and ridges – there’s no sharp crater walls to distinguish it. Beyond the basin, an outer wall still remains. If the lighting is right at your time of observation, you’ll notice it appears more strong to the north and west, as opposed to the southeast Rimae Grimaldi. Take a close look at the floor region, too. It’s home to a mascon, too… As well as lunar transient phenomena. Can you spot Lohrmann crater to its north or Riccioli crater to the southeast?

If you would like to see how well you have mastered your telescopic skills, then let’s crater hop. About one Grimaldi length south, you’ll see a narrow black ellipse with a bright rim. This is Rocca. Go the same distance again (and a bit east) to spot a small, shallow crater with a dark floor. This is Cruger, and its lava-filled interior is very similar to another study – Billy. Now look between them. Can you see a couple of tiny dark markings? Believe it or not, this is called Mare Aestatis. It’s not even large enough to be considered a medium-sized crater, but is a mare! Now, hop east and you will see two craters nearly identical in size and depth. The southern crater is Billy – one of the darkest floored areas on the Moon. Inside Billy’s bright rim, you will notice an interior as featureless as a mare. North of Billy is Hansteen, whose interior is much brighter and shows complex details. Comparing the two will show Billy was once filled with smooth lava, while Hansteen avoided that fate and shows its native scarred interior.

For larger telescopes, let’s try a challenging study worthy of your observing skills. Due west of Hansteen you will find a small crater known as Sirsalis near the terminator. It will appear as a small, dark ellipse with a bright west wall along with its twin, Sirsalis B. The feature you will be looking for is the Sirsalis Rille – the longest lunar “wrinkle” presently known. Stretching northeast of Sirsalis and extending 459 kilometers south to the bright rays of Byrgius, this major “crack” in the lunar surface shows several branchings – like a long dry river bed. Geologically forming in the Imbrian period, chances are the Sirsalis Rille is lunar graben. Thanks to Lunar Orbiter images, the evidence points to shifting tectonic plates as the source of this incredible feature.

March 28, 2010 – Tonight the Moon will look nearly full and it is a good time to spot yet another lunar asterism, “The Rabbit in the Moon.” Since the dawn of mankind, we have been gazing at the Moon and seeing fanciful shapes in large lunar features. Tonight, as the Moon rises, is your chance to catch a lunar challenge – “The Rabbit in the Moon.” The “Rabbit” is a compilation of all the dark maria. The Oceanus Procellarum forms the “ear” while Mare Humorum makes the “nose.” The “body” is Mare Imbrium and the “front legs” appear to be Mare Nubium. Mare Serenitatis is the “backside” and the picture is complete where Mare Tranquillitatis and Mare Fecunditatis shape the “hind legs” with Crisium as the “tail.” See the Moon with an imaginative mind and new eyes — and find the “Rabbit.” It’s already out of the hat and in the heavens..

Return to landmark crater Grimaldi and we’ll continue our journey of lunar evolution as we have a look at another walled plain just to the south – Darwin. Named for English naturalist Charles Darwin, this equally old feature bears the scars of the impact the created the Orientale Basin. Look carefully at the slopes in the northeast, for this may very well be material that was thrown there and left to slide back down to the crater floor. Spanning around 130 kilometers in diameter, Darwin’s actual size is only diminished by the fact that we view it on a curve. Its northern and southern shores have almost completely eroded, yet evidence remains of its eastern margin broken by the Rima Darwin which stretches for 280 kilometers. Was there lava here as well? Yes. Evidence still exists in the form of a dome along Darwin’s battered western edge. If the lighting is right, look at the western edge of Darwin for the Montes Cordillera. This is the external mountainous ring of Mare Orientale, and they could range as long as 545 miles in length, 182 miles in width and 18,200 feet in height. Many of the summits reach as much as 5000 feet! Talk about joining the mile high club…

Let’s continue our studies by using an unmistakable landmark feature to help guide us to interesting points on the lunar surface. Even small binoculars will reveal the outstanding presence of crater Tycho with its bright ejecta pattern splashing across the surface. Look closely at one of the brightest of the rays, for it passes over Mare Nubium—the Sea of Clouds. This exceptionally dark, irregular plain stretches out over 563 by 464 kilometers and has many areas worth exploring – but power up on Tycho.

Named for Danish astronomer, Tycho Brahe, this fantastic impact crater is very impressive in even the most modest of optical aids. Spanning 85 km, this lunar feature will be very prominent and unmistakable in the southern hemisphere of the Moon. Tycho’s highly conspicuous ray system supports its origin as an impact crater. The rays span hundreds of kilometers across the lunar surface. Tycho is also one of the youngest of the major features at an astounding age of only 50,000,000 years old! On January 9, 1968 Surveyor 7 – the last lunar robot of its kind – landed quietly at lunar sunrise on Tycho’s slopes. Because previous Surveyor missions provided the Apollo program with all data necessary for manned missions, Surveyor 7’s presence was scientific only. Two weeks later, when the Sun set on the landing site, Surveyor 7 had provided over 21,000 photographs, determined physical and chemical properties associated with the Southern Highland area, and detected laser beams aimed at it from two separate Earth observatories.

Look closely at the bright ray of material thrown across its dark floor from the impact that caused Tycho. It is easy to see that it is laid “over” the surface of the lava flow and this is an important clue to the age of lunar features. One of these rays crosses the Apollo 17 landing site 2000 kilometers from Tycho itself and may have caused a landslide from the mountains where the astronauts sampled. This suggests that Tycho is about 100 million years old. While this might seem like a great age, the Sea Of Clouds could be between 3 to 4 billion years old. Once upon a time, an impact formed its basin as well. Thanks to the Moon’s lack of atmosphere, the lava flow quietly filled the basin and left it as we see it tonight.

Until next week? “Lunatic fringe… We know you’re out there.”

This week’s awesome images are (in order of appearance): Nathaniel Bowditch (historical image), 11 Day Moon courtesy of Peter Lloyd, Mersenius courtesy of Damien Peach, John Pierce (historical image), Grimaldi from the Lunar Orbiter courtesy of NASA, Hansteen and Sirsalis Rille courtesy of Damien Peach, Thirteen Day Moon courtesy of Peter Lloyd, Darwin and Tycho courtesy of Damien Peach and Tycho Rays courtesy of Roger Warner. We thank you so much for sharing!

Hubble Confirms Cosmic Acceleration with Weak Lensing

This image shows a smoothed reconstruction of the total (mostly dark) matter distribution in the COSMOS field, created from data taken by the NASA/ESA Hubble Space Telescope and ground-based telescopes.Credit: NASA, ESA, P. Simon (University of Bonn) and T. Schrabback (Leiden Observatory)

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Need more evidence that the expansion of the Universe is accelerating? Just look to the Hubble Space Telescope. An international team of astronomers has indeed confirmed that the expansion of the universe is accelerating. The team, led by Tim Schrabback of the Leiden Observatory, conducted an intensive study of over 446,000 galaxies within the COSMOS (Cosmological Evolution Survey) field, the result of the largest survey ever conducted with Hubble. In making the COSMOS survey, Hubble photographed 575 slightly overlapping views of the same part of the Universe using the Advanced Camera for Surveys (ACS) onboard the orbiting telescope. It took nearly 1,000 hours of observations.

In addition to the Hubble data, researchers used redshift data from ground-based telescopes to assign distances to 194,000 of the galaxies surveyed (out to a redshift of 5). “The sheer number of galaxies included in this type of analysis is unprecedented, but more important is the wealth of information we could obtain about the invisible structures in the Universe from this exceptional dataset,” said co-author Patrick Simon from Edinburgh University.

In particular, the astronomers could “weigh” the large-scale matter distribution in space over large distances. To do this, they made use of the fact that this information is encoded in the distorted shapes of distant galaxies, a phenomenon referred to as weak gravitational lensing. Using complex algorithms, the team led by Schrabback has improved the standard method and obtained galaxy shape measurements to an unprecedented precision. The results of the study will be published in an upcoming issue of Astronomy and Astrophysics.

The meticulousness and scale of this study enables an independent confirmation that the expansion of the Universe is accelerated by an additional, mysterious component named dark energy. A handful of other such independent confirmations exist. Scientists need to know how the formation of clumps of matter evolved in the history of the Universe to determine how the gravitational force, which holds matter together, and dark energy, which pulls it apart by accelerating the expansion of the Universe, have affected them. “Dark energy affects our measurements for two reasons. First, when it is present, galaxy clusters grow more slowly, and secondly, it changes the way the Universe expands, leading to more distant — and more efficiently lensed — galaxies. Our analysis is sensitive to both effects,” says co-author Benjamin Joachimi from the University of Bonn. “Our study also provides an additional confirmation for Einstein’s theory of general relativity, which predicts how the lensing signal depends on redshift,” adds co-investigator Martin Kilbinger from the Institut d’Astrophysique de Paris and the Excellence Cluster Universe.

The large number of galaxies included in this study, along with information on their redshifts is leading to a clearer map of how, exactly, part of the Universe is laid out; it helps us see its galactic inhabitants and how they are distributed. “With more accurate information about the distances to the galaxies, we can measure the distribution of the matter between them and us more accurately,” notes co-investigator Jan Hartlap from the University of Bonn. “Before, most of the studies were done in 2D, like taking a chest X-ray. Our study is more like a 3D reconstruction of the skeleton from a CT scan. On top of that, we are able to watch the skeleton of dark matter mature from the Universe’s youth to the present,” comments William High from Harvard University, another co-author.

The astronomers specifically chose the COSMOS survey because it is thought to be a representative sample of the Universe. With thorough studies such as the one led by Schrabback, astronomers will one day be able to apply their technique to wider areas of the sky, forming a clearer picture of what is truly out there.

Source: EurekAlert

Paper: Schrabback et al., ‘Evidence for the accelerated expansion of the Universe from weak lensing tomography with COSMOS’, Astronomy and Astrophysics, March 2010,

A Look Inside the Space Shuttle “Garage”

This is home movies at their finest. Astronaut Mike Massimino takes us inside the garage of space shuttle Discovery — also known as the Orbiter Processing Facility (OPF)– for a behind the scenes look at the work that is done on the orbiters, as well as seeing some of the training for the astronauts on the upcoming STS-131 mission. This is part of a series of “behind the scenes for STS-131” videos that Massimino hosts, which you can find on the NASA TV You Tube channel. Mass brings humor and sense of wonder to these videos, and is great at doing public outreach for NASA.

Earth Surface

Blue marble Earth. Image credit: NASA

[/caption]Most of the Earth surface, about 70%, is covered with water. The remaining 30% is made up of the seven continental landmasses. Underneath the water that fills the oceans, and the dirt and plants that cover the continents, the Earth’s surface layer is made of rock. This outer layer formed a hard, rocky crust as lava cooled about 4.5 billion years ago. This crust is broken into many large plates(tectonic plates) that move slowly relative to each other. The mountain ranges around the world formed when two plates collided and their edges are forced up. Many other surface features are the result of the movement of these tectonic plates. The plates move anywhere from 25 to 100 mm per year. About 250 million years ago most of the land was connected together.

The rocky layer under the soil of the Earth is called the crust. This comprises the continents and ocean basins. The crust has a variable thickness, being 35-70 km thick on the continents and 5-10 km thick in the ocean basins. The crust is composed mainly of alumino-silicates. The entire crust occupies just 1% of the Earth’s volume. The temperature of the crust increases as you go deeper into the Earth. It starts out cool, but can get up to 400 degrees C at the boundary between the crust and the mantle.

The tectonic plates are actually floating on the molten asthenosphere which is the lower mantle of the Earth. Earthquakes, volcanoes, mountains, and oceanic trench formation occur along plate boundaries. The plates are in constant motion. The reason that tectonic plates are able to move is the Earth’s lithosphere has a higher strength and lower density than the underlying asthenosphere. Their movement is dictated by heat dissipation from the Earth’s mantle. Lateral density variations in the mantle result in convection, which is transferred into plate motion through some combination of frictional drag, downward suction at the subduction zones, and variations in topography and density of the crust that result in differences in gravitational forces.

The Earth’s surface may seemed fixed and permanent to us, but underneath our feet there is constant motion and changes that we may not notice until there is an earthquake or a volcanic eruption. Here on Universe Today we have a great article with interesting facts about Earth. Astronomy Cast offers a good episode about plate tectonics. Here is the NASA webpage about Earth

References:
NASA Earth Observatory
NASA: Continents in Collision
NASA: Structure of the Earth

Watch History Live from the Large Hadron Collider

Particle Collider
Today, CERN announced that the LHCb experiment had revealed the existence of two new baryon subatomic particles. Credit: CERN/LHC/GridPP

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CERN announced that on March 30 they will attempt to circulate beams in the Large Hadron Collider at 3.5 TeV, the highest energy yet achieved in a particle accelerator. A live webcast will be shown of the event, and will include live footage from the control rooms for the LHC accelerator and all four LHC experiment, as well as a press conference after the first collisions are announced.

“With two beams at 3.5 TeV, we’re on the verge of launching the LHC physics program,” said CERN’s Director for Accelerators and Technology, Steve Myers. “But we’ve still got a lot of work to do before collisions. Just lining the beams up is a challenge in itself: it’s a bit like firing needles across the Atlantic and getting them to collide half way.”

The webcast will be available at a link to be announced, but the tentative schedule of events (subject to change) and more information can be found at this link.

Webcasts will also be available from the control rooms of the four LHC experiments: ALICE, ATLAS, CMS and LHCb. The webcasts will be primarily in English.

Between now and 30 March, the LHC team will be working with 3.5 TeV beams to commission the beam control systems and the systems that protect the particle detectors from stray particles. All these systems must be fully commissioned before collisions can begin.

“The LHC is not a turnkey machine,” said CERN Director General Rolf Heuer.“The machine is working well, but we’re still very much in a commissioning phase and we have to recognize that the first attempt to collide is precisely that. It may take hours or even days to get collisions.”

The last time CERN switched on a major new research machine, the Large Electron Positron collider, LEP, in 1989 it took three days from the first attempt to collide to the first recorded collisions.

The current Large Hadron Collider run began on 20 November 2009, with the first circulating beam at 0.45 TeV. Milestones were quick to follow, with twin circulating beams established by 23 November and a world record beam energy of 1.18 TeV being set on 30 November. By the time the LHC switched off for 2009 on 16 December, another record had been set with collisions recorded at 2.36 TeV and significant quantities of data recorded. Over the 2009 part of the run, each of the LHC’s four major experiments, ALICE, ATLAS, CMS and LHCb recorded over a million particle collisions, which were distributed smoothly for analysis around the world on the LHC computing grid. The first physics papers were soon to follow. After a short technical stop, beams were again circulating on 28 February 2010, and the first acceleration to 3.5 TeV was on 19 March.

Once 7 TeV collisions have been established, the plan is to run continuously for a period of 18-24 months, with a short technical stop at the end of 2010. This will bring enough data across all the potential discovery areas to firmly establish the LHC as the world’s foremost facility for high-energy particle physics.

Source: CERN

Fate of Apollo 13 Crew Might Have Been Much Different Than Originally Thought

When the crippled Apollo 13 spacecraft returned to Earth following their aborted moon mission in 1970, no one really knew if the command module would come in at the proper angle to avoid burning up in the atmosphere or even skip off the atmosphere and be bounced out into space. If the CM did skip off, the crew might be destined to spend a fatal eternity out in space. Or would they? Author Andrew Chaikin, who wrote the Apollo chronicle “A Man on the Moon,” asked Analytical Graphics lnc. (AGI) to do a computer simulation of what would have happened, and they found things could have been much different than originally thought. Watch this video, narrated by Chaikin to find out.

April 2010 will be the 40th anniversary of Apollo 13.
Continue reading “Fate of Apollo 13 Crew Might Have Been Much Different Than Originally Thought”

Russians Unveil Science Beauty in Florida

Russian built Mini Research Module MRM-1 set to launch aboard US Space Shuttle Atlantis in May 2010 undergoes final prelaunch processing in Florida. Credit: Ken Kremer

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Russian space managers unveiled a science beauty today (March 25) in Florida, namely the ‘Rassvet’ research room which serves as Russia’s newest contribution to the International Space Station. Although ‘Rassvet’ was built entirely in Russia, the module is hitching a ride aboard the American Space Shuttle Atlantis as the primary cargo for the STS 132 station assembly mission slated to blast off soon in May 2010. ‘Rassvet’ translates as ‘Dawn’.

I was quite fortunate to inspect ‘Rassvet’ up close today during a press briefing and photo op inside the clean room at the Astrotech Space Operations Facility in Port Canaveral, FL and also speak with the top Russian space officials from RSC Energia who are responsible for her construction. Astrotech is situated a few miles south of the shuttle launch pad at the Kennedy Space Center from which she’ll depart Earth.

NASA is launching ‘Rassvet’, formally known as the Mini Research Module-1, or MRM 1, as part of a complex barter agreement among the partner nations of the ISS to share the costs of assembling and operating the massive orbiting outpost.

MRM-1 will be attached to the Earth- facing (nadir) port of the russian Zarya control module at the ISS. See diagram below showing location of MRM-1 and other components on the Russian Orbital Segment of the ISS.

Side view of Russian built Mini Research Module MRM-1 set to launch aboard Shuttle Atlantis during STS 132 flight in May 2010. Russian Soyuz and Progress capsules will berth at the docking port at right. Sensitive surfaces on the docking mechanism are currently protected by red covers which will be removed before flight to space. Credit: Ken Kremer

“MRM 1 arrived in Florida on Dec 17, 2009 from Russia and will be utilized for scientific research, cargo stowage, and also to provide an additional docking port at the ISS,” said Mikhail Kashitsyn, the Deputy Technical Manager and Head of MRM 1 Prelaunch Processing for the Design Bureau division of RSC Energia. RSC Energia is the prime contractor to Roscosmos, the Russian Federal Space Agency, and is responsible for the design, development and processing of MRM 1.

Russian MRM 1 managers: Mikhail Kashitsyn, Deputy Technical Manager Head of MRM 1 Prelaunch Processing and Sergey Saveliev, Deputy Project Manager for MRM1. from the Design Bureau division of RSC Energia at Astrotech for press briefing on March 25, 2010. Credit: Ken Kremer

The additional docking port provided by MRM -1 will greatly aid ISS mission planners in accommodating the busy manifest of berthings of incoming Soyuz, Progress and ATV vehicles on the Russian side of the station and alleviate the need to repark the ships as new vessels arrive.

“We have been working at a steady pace to complete the final check out and assembly of MRM 1for installation into the shuttle orbiter. Let me welcome you all here to view MRM 1 which was designed by RSC Energia, one of the leading corporations in Russia”.
“All preparations will be completed in about 1 week. It’s wonderful we have this cooperation with our American colleagues and I want to express my thanks to the US and NASA for their help and mutual understanding,” added Mr. Kashitsyn.

“MRM 1 will be the largest piece of Russian space hardware ever to launch on an American rocket,” Kashitsyn told me. “The last large piece of Russian space equipment to launch from the US was the Mir docking module for the Mir space station”.
“Several thousand people worked on MRM 1 in Russia and it took about 2 years to build. About 100 are involved in the pre launch preparations here at Port Canaveral”.

“Furthermore, the interior of the module will also be loaded with 1.5 tons of NASA cargo and supplies for the ISS, including items such as food, lithium hydroxide canisters, computers and printers”, according to Kashitsyn.

“This will be the last payload for Atlantis,” said Robert Ashley, the NASA ISS manager responsible for the STS 132 payload processing. “This will be my last mission as a station mission manager. It’s bittersweet. There will be a lot of lasts for a lot of people on these final shuttle missions”.

100 Russian scientists and engineers have spent several months working at Astrotech and have nearly completed preparing the Russian built Mini Research Module MRM-1 for launch aboard Atlantis to the ISS . Credit: Ken Kremer

“MRM 1 will be shipped to the NASA Space Station Processing Facility at KSC on April 2. After about three days of final integration and pressurization tests, it will be loaded into a shipping container on April 5 for delivery to the shuttle launch pad,” Ashley said.

The MRM-1 payload comprises the module itself, an airlock chamber, an exterior portable work station and replacement elbow joints for the European Robotic Arm. The total mass exceeds 17,000 pounds.

Integrated Cargo Carrier during prelaunch preparations at Astrotech facility in clean room adjacent to MRM 1. Credit Ken Kremer
Also tucked in Atlantis payload bay will be the 8000 lb Integrated Logistics Carrier (ICC) carrying spare parts and Orbital Replacement Units (ORU’s) including six spare batteries, a boom assembly for the Ku-band antenna and spares for the Canadian Dextre robotic arm extension.

STS 132 is currently planned as the final flight of Atlantis. Unless the shuttle program is extended, Atlantis will be the first of NASA’s three shuttle orbiters to be retired from duty marking a significant milestone toward the end of the Space Shuttle Program. Many experts both in and out of NASA now say that the shuttles are being prematurely retired, mostly due to a lack of money.

Location of MRM-1 and other components on the Russian Orbital Segment of the ISS
Russia MRM 1 Research Module and Ken Kremer at Astrotech Space Operation Facility in Port Canaveral, Florida for press briefing

Earth Hour 2010

Where will you be when the lights go out? Earth Hour 2010 will take place on Saturday, March 27 at 8:30 pm local time. Even though it will spark a tirade of controversy just asking folks to turn off their lights for one hour, let’s see who would rather fight than turn off a switch. In 2009 hundreds of millions of people around the world showed their support and Earth Hour 2010 will continue to be a global call to action to every individual, every business and every community. A call to stand up, to show leadership and be responsible for our future. Do you have what it takes to make such a simple gesture?

Then let’s rock the house…

Earth Hour started in 2007 in Sydney, Australia when 2.2 million homes and businesses turned their lights off for one hour to make their stand against climate change. A year later Earth Hour had become such a global force that more than 50 million people in 35 countries showed their support by switch off for a simple 60 minutes. Icons stood in dark silence as Sydney Harbour Bridge, The CN Tower in Toronto, The Golden Gate Bridge in San Francisco, and Rome’s Colosseum, all did their part as symbols of hope for the future.

Can you still use your imagination? Can you? Then imagine Earth Hour from space…

This year China’s Forbidden City heads up a list of some of the world’s most iconic landmarks that have confirmed their participation in Earth Hour – including The Great Pyramids of Giza and the Sphinx. They will be joined by Italy’s Trevi Fountain in Rome and Leaning Tower of Pisa, Big Ben and Houses of Parliament in London, Edinburgh Castle in Scotland, India Gate and Red Fort in Delhi, Victoria Falls in Zimbabwe, Bosphorous Bridge in Istanbul, Hohensalzburg Castle in Salzburg, and Independence Angel in Mexico City. They join a comprehensive list of the world’s great man-made marvels and natural wonders, including the Eiffel Tower, Brandenburg Gate, Hiroshima Peace Memorial, Empire State Building, London Eye, Table Mountain, Christ the Redeemer statue, Sydney Opera House and the world’s tallest building, Burj Khalifa, which will plunge into darkness for Earth Hour

Before you say “Why bother?” or “My contribution won’t make a difference.”, then think on this… Earth Hour has truly managed to raise our awareness of climate change issues. But there’s more to it than switching off your lights for one hour once a year. It’s all about giving people a voice on the future of our planet and working together. Even if you’d rather fight than flick the switch… you are participating. Whether you are an individual, a business, a school or a city, you can show your support for Earth Hour by turning off your lights at 8.30 pm on March 27 wherever you are on the planet. No one is saying you can’t use your computer or watch television. Bake a pizza and eat it by candlelight with your family! All it takes is the guts to show you understand and care enough to take action.

Do you have what it takes to flip the switch?

Where In The Universe #97

Here’s this week’s image for the Where In The Universe Challenge, to test your visual knowledge of the cosmos You know what to do: take a look at this image and see if you can determine where in the universe this image is from; give yourself extra points if you can name the instrument responsible for the image. We’ll provide the image today, but won’t reveal the answer until later. This gives you a chance to mull over the image and provide your answer/guess in the comment section. Please, no links or extensive explanations of what you think this is — give everyone the chance to guess.

UPDATE: Answer has now been posted below.

This image shows a portion of the W5 star-forming region, located 6,500 light-years away in the constellation Cassiopeia. It is a composite of infrared data from Spitzer’s infrared array camera and multiband imaging photometer. It shows the nasty effects of living near a group of massive stars: radiation and winds from the massive stars (white spot in center) are blasting planet-making material away from stars like our sun. The planetary material can be seen as comet-like tails behind three stars near the center of the picture. The tails are pointing away from the massive stellar furnaces that are blowing them outward.

The image was taken in 2008, and is one of the best examples of multiple sun-like stars being stripped of their planet-making dust by massive stars.

Check back next week for another WITU challenge!