I’ve had this song in my head ever since Sunday when I first saw this video, so finally decided I had to post it. Astronaut (and flautist) Cady Coleman on board the International Space Station hooked up with Ian Anderson, founder of the rock band Jethro Tull, to collaborate for the first space-Earth duet. The song, “Bourree in E Minor,” was written by Johann Sebastian Bach, but Jethro Tull made the song famous (again) with their own arrangement of the tune back in 1969, the same year Neil Armstrong and Buzz Aldrin stepped on the moon. Coleman and Anderson played the song in recognition of 50 years of human spaceflight and the anniversary of the first launch of a human to space by cosmonaut Yuri Gagarin on April 12, 1961.
Coleman played her part from 220 miles above Earth late last week. Anderson played his part while on tour in Perm, Russia, during the weekend. The two parts were then joined.
Just see if you can keep this song out of your head for the rest of the day!
Celebrate Yuri’s Night on April 12, 2011 -- 50th Anniversary of Human Spaceflight
On April 12, 1961, Russian cosmonaut Yuri Gagarin (left, on the way to the launch pad) became the first human in space, making a 108-minute orbital flight in his Vostok 1 spacecraft.
Newspapers like The Huntsville Times (right) trumpeted Gagarin's accomplishment.
Credit: NASA
Send Ken your Yuri’s Night event reports and photos
Mark your calendars. April 12, 2011 marks the 50th Anniversary of Human Spaceflight and Cosmonaut Yuri Gagarin’s astonishing First Orbit of our precious planet Earth on April 12, 1961. Gagarin was the first human to enter outer space and see what no one else had ever witnessed – our commonly shared Earth as a planet and beautiful blue globe with no borders.
Space enthusiasts worldwide are celebrating this watershed moment in Human history at a network of over 400 “Yuri’s Night” parties taking place in more than 70 countries on 6 continents and 2 worlds, according to the official “Yuri’s Night” website.
Gagarin’s flight took place in the midst of the inflammatory Cold War rivalry between the Soviet Union and the United States and shocked the world into new realities. The Space Race led to the first lunar landing by the United States and Neil Armstrong’s first steps on the moons surface in 1969. Eventually, the world’s superpowers beat swords into plowshares and united their efforts to build the International Space Station.
Yuri Gagarin - first human in space. Credit: Russian ArchivesYuri Gagarin was the first person to boldly leave the bonds of Earth’s gravity and thus became the first “Spaceman”. Gagarin blasted off inside the bell-shaped Vostok 1 spaceship from the launch pad at Baikonur at 9:07 a.m, Moscow time (607 UTC) to begin the era of human spaceflight.
Gagarin flew around the Earth in a single orbit at an altitude of 302 kilometers (187 miles). The flight lasted 108 minutes and safely ended when he descended back and parachuted to the ground, just north of the Caspian Sea. At the age of 27, Gagarin was instantly transformed into a worldwide hero. After the momentous flight he soon embarked on an international tour.
20 years later on April 12, 1981, NASA’s first space shuttle blasted off on the STS-1 mission on a daring test flight with astronauts John Young and Bob Crippen strapped inside Space Shuttle Columbia.
Russian postcard featuring Yuri Gagarin
The first “Yuri’s Night – World Space Party” was held on April 12, 2001 to commemorate the 40th anniversary of Gagarin’s spaceflight. Over 10,000 people attended 64 events located worldwide. The goal was to inspire people, increase awareness and support for space exploration across the globe and foster the spread of new ideas to broaden our access to space.
“Yuri’s Night” has been growing in popularity every year. Events range in size from a few folks to numbers in the thousands. Attendees range from astronauts and cosmonauts, NASA and global space agency officials and reps, scientists and engineers, famous actors, playwrights, writers, artists, athletes and musicians to just everyday folks and kids of all ages and backgrounds. Everyone can get involved.
Yuri Gagarin in orbitIn honor of the 50th anniversary of Gagarin’s flight, documentary film maker Christopher Riley conceived and created a film titled “First Orbit” to try and show the approximate view of Earth that Gagarin actually saw. There is only scant footage of Gagarin’s actual flight and he himself took no pictures of the Earth from orbit.
“First Orbit” recreates much of the view of the Earth’s surface that Gagarin would have seen fifty years ago. Mostly he flew over the world oceans as well as the Soviet Union and Africa.
Riley collaborated with the astronauts aboard the International Space Station, chiefly Paolo Nespoli of ESA, who took film footage from the new 7 windowed Cupola as the station matched the actual flight path of Gagarin and Vostok 1 as closely as possible. The free film celebrates 50 years of human spaceflight.
“First Orbit” premiers worldwide on YouTube in a special global streaming event for Yuri’s Night on April 12 . Watch the short trailer below, with original and stirring music by Philip Sheppard.
Orbital flight path of Yuri Gagarin and Vostok 1 on April 12, 1961
Gagarin’s call sign was Cedar or Kder - which means Siberian Pine in Russian. Map courtesy of Sven Grahn
It’s easy and free to register your local party at the Yuri’s Night event website. There is still time to register your Yuri’s Night party – Indeed the list has grown as I typed out this story !
Send Ken your “Yuri’s Night” event photos/short report to post in a round up story at Universe Today about the global festivities celebrating the historic achievement of Yuri Gagarin. Email kremerken at yahoo dot com
First Orbit Trailer II
Russian built Mini Research Module MRM-1 launched aboard US Space Shuttle Atlantis in May 2010.
Shuttle Atlantis delivered MRM-1 (known as Rassvet) to the International Space Station.
MRM-1 undergoes final prelaunch processing inside clean room at Astrotech Space Operations Facility in Florida. Docking port to ISS is protected by red colored covering. Equipment airlock for experiments at top. Russian Flag mounted at left.
Rassvet underscores the cooperation that exists today, in stark contrast to their rivalry during the Cold War. Russia, the United States, Europe, Japan and Canada have now united their space exploration efforts to build the International Space Station. The worlds space powers cooperate in other space exploration projects today as well that venture to the Moon, Mars and beyond to Deep Space. Credit: Ken Kremer
A new opportunity is available to students to have their experiments flown to the ISS. Credit: NAS
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Just a bit of a traffic jam at the International Space Station has prompted a 10-day delay of the targeted launch for space shuttle Endeavour’s 25th and final mission, STS-134. Originally scheduled for April 19, the shuttle launch is now scheduled for 3:47 p.m. EDT on Friday, April 29. The delay removes a scheduling conflict with a Russian Progress supply vehicle scheduled to launch April 27 and arrive at the station April 29. Current restrictions do not allow a Progress to dock to the station while a shuttle is there.
Meanwhile, A Russian Soyuz spacecraft emblazoned with Yuri Gagarin’s face and name is scheduled to liftoff today (Monday, April 4, 2011) at 6:18:20 p.m. EDT (22:19 GMT) from the Baikonur Cosmodrome in Kazakhstan, bringing two cosmonauts and one astronaut to the ISS to round out the current Expedition 27 crew, returning the crew size to 6. On board will be Soyuz commander Alexander Samokutyaev, flight engineer Andrey Borisenko and NASA astronaut Ron Garan.
The Soyuz will launch from the same launch pad used by Yuri Gagarin when he became the first human in space 50 years ago on April 12, 1961. The Russian Space Agency is dedicating this launch of the Soyuz TMA-21 spacecraft to the anniversary. You can watch the launch on NASA TV.
NASA managers will hold a Flight Readiness Review on Tuesday, April 19 to make sure everything is go for the April 29 launch date for STS-134. The primary goals of Endeavour’s mission are to deliver critical supplies and equipment to the International Space Station, along with a $2 billion Alpha Magnetic Spectrometer, a particle physics experiment. Four spacewalks also are planned to carry out needed maintenance on the orbiting lab complex.
The shuttle launch is already generating a lot of interest – not only because it is Endeavour’s final flight, but also because Commander Mark Kelly’s wife, Congresswoman Gabriel Giffords, is hoping to be present at Kennedy Space Center for the liftoff. She was shot in the head in January of this year, but has recovered sufficiently to consider attending her husband’s final shuttle launch.
One other item of note: NASASpaceflight.com is reporting that a Soyuz flyaround is being considered again while the space shuttle is docked at the ISS. NASA had requested such a flyaround during the previous shuttle mission, STS-133, to be able to take images—both engineering and documentary – of the ISS with spacecraft from each of the partnering space agencies present. Japan’s HTV-2 has now departed, so if the flyaround is approved to take place during the STS-134 mission, that spacecraft would, of course, be missing from the family photo.
The ATV Johannes Kepler docked at the International Space Station. Credit: NASA
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ESA’s Automated Transfer Vehicle Johannes Kepler is more than just a cargo carrier for the International Space Station, it is also an on-orbit refueling station and orbit booster. On May 17-19, 2011 the Kepler ATV is scheduled to conduct its first refueling of the ISS, as it will transfer about 850.6 liters (225 gallons) of propellant for the station’s own thrusters for future boosts in orbit.
Preparations for the ISS refueling began on March 22 with a leak test of the propellant transfer lines, to ensure the connections between the ISS and ATV-2 were completely sealed; the test was a success, meaning that as of now, everything is go for the station’s refueling.
The Johannes Kepler ATV-2 approaches the International Space Station. Docking of the two spacecraft occurred on Feb. 24, 2011. Credit: NASA
In mid-March, the ATV increased the ISS’s orbit with a 882-second (14 and a half minutes) burn, giving the ISS an extra push of about 2.1 m/s. In all, Kepler brought nearly 10,000 pounds (4,500 kilograms) of propellant that has been used by its thrusters to boost the space station to a new altitude of 400 kilometers (248 miles) above the Earth. This will be the new “normal” for the station’s orbit. Previously, the ISS orbited about 350 km (220 miles) up.
The main benefit of raising the station’s altitude is to cut the amount of fuel needed to keep it there by more than half. This also means that visiting vehicles will not be able to carry as much cargo as they could if they were launching to the station at a lower altitude since they will need more fuel to reach the station, but it also means that not as much of that cargo needs to be propellant.
The orbit of the ISS degrades because Earth’s atmosphere — though tenuous at those altitudes – expands and contracts through the Sun’s influence, and there are enough molecules that contact the surfaces of its large solar array panels, the large truss structure, and pressurized modules to change its speed, or velocity, which is about 28,000 kilometers an hour (17,500 mph).
At the ISS’s old altitude, the space station uses about 19,000 pounds of propellant a year to maintain a consistent orbit. At the new, slightly higher altitude, the station is expected to expend about 8,000 pounds of propellant a year. And that will translate to a significant amount of food, water, clothing, research instruments and samples, and spare parts that can be flown on the cargo vehicles that will keep the station operational until 2020 and beyond.
Kepler also sent a breath of fresh air to the station by transferring about 8kg of oxygen to the ISS in March, which was the first re-pressurization of the ISS’s internal atmosphere conducted by Kepler.
A view the space station as Discovery approaches for docking. Credit: NASA
Lockheed Martin’s Space Operations Simulation Center in Littleton, Colorado, simulates on-orbit docking maneuvers with full-scale Orion and International Space Station mockups. The spacious center includes an 18,000 square-foot high bay area used to validate Orion’s new relative navigation system (STORRM), which will be tested on orbit during the STS-134 mission set to blast off on April19, 2011. Credit: Lockheed Martin
Lockheed Martin is aiming for a first unmanned orbital test flight of Orion as soon as 2013, said John Karas, vice president and general manager for Lockheed Martin’s Human Space Flight programs in an interview with Universe Today . The first operational flight with humans on board is now set for 2016 as stipulated in the NASA Authorization Act of 2010.
Orion manned capsule could launch in 2016 atop proposed NASA heavy lift booster from the Kennedy Space Center This Orion prototype capsule was assembled at NASA’s Michoud Assembly Facility (MAF) in New Orleans, LA and shipped by truck to Denver. At Denver, the capsule will be put through a rigorous testing program to simulate all aspects of a space mission from launch to landing and examine whether the vehicle can withstand the harsh and unforgiving environment of deep space.
Orion was originally designed to be launched by the Ares 1 booster rocket, as part of NASA’s Project Constellation Return to the Moon program, now cancelled by President Obama. The initial Orion test flight will likely be atop a Delta IV Heavy rocket, Karas told me. The first manned flight is planned for the new heavy lift rocket ordered by the US Congress to replace the Project Constellation architecture.
The goal is to produce a new, US-built manned capsule capable of launching American astronauts into space following the looming forced retirement of NASA’s Space Shuttle orbiters later this year. Thus there will be a gap of at least three years until US astronauts again can launch from US soil.
“Our nation’s next bold step in exploration could begin by 2016,” said Karas in a statement. “Orion was designed from inception to fly multiple, deep-space missions. The spacecraft is an incredibly robust, technically advanced vehicle capable of safely transporting humans to asteroids, Lagrange Points and other deep space destinations that will put us on an affordable and sustainable path to Mars.”
Jim Bray, Director, Orion Crew & Service Module, unveils the first Orion crew module to guests and media at the Lockheed Martin Space Systems Company Waterton Facility in Denver, CO. The vehicle is temporarily positioned in the composite heat shield before installation begins. Following installation of the heat shield and thermal backshell panels, the spacecraft will undergo rigorous testing to validate Orion’s ability to endure the harsh environments of deep space. Credit: Lockheed Martin
Lockheed Martin is the prime contractor for Orion under a multiyear contract awarded by NASA worth some $3.9 Billion US Dollars.
The SOSC was built at a cost of several million dollars. The 41,000 square foot facility will be used to test and validate vehicles, equipment and software for future human spaceflight programs to ensure safe, affordable and sustainable space exploration.
Mission scenarios include docking to the International Space Station, exploring the Moon, visiting an Asteroid and even journeying to Mars. Lockheed has independently proposed the exploration of several challenging deep space targets by astronauts with Orion crew vehicles which I’ll report on in upcoming features.
Orion capsule and Abort rocket mockups on display at Kennedy Space Center.
Full scale mockups of the Orion capsule and emergency abort rocket are on public display at the Kennedy Space Center Visitor Complex in Florida. Orion crew capsule mockup (at left) and Launch Abort System (LAS) at right. The emergency rocket will be bolted atop an Orion spaceship for the initial orbital test flight currently slated for 2013 launch. The LAS mockup was used in launch pad exercises at the New Mexico launch site of the LAS rocket blast-off in May 2010. Credit: Ken Kremer
The SOSC facility provides the capability for NASA and Lockheed Martin engineers to conduct full-scale motion simulations of many types of manned and robotic space missions. Demonstrations are run using laser and optically guided robotic navigation systems.
Inside the SOSC, engineers can test the performance of a vehicles ranging, rendezvous, docking, proximity operations, imaging, descent and landing systems for Earth orbiting mission as well as those to other bodies in our solar system.
“The Orion spacecraft is a state-of-the-art deep space vehicle that incorporates the technological advances in human life support systems that have accrued over the last 35 years since the Space Shuttle was designed.” says Karas. “In addition, the Orion program has recently been streamlined for additional affordability, setting new standards for reduced NASA oversight. Orion is compatible with all the potential HLLVs that are under consideration by NASA, including the use of a Delta IV heavy for early test flights.”
The Orion flight schedule starting in 2013 is however fully dependent on the level of funding which NASA receives from the Federal Government.
This past year the, Orion work was significantly slowed by large budget cuts and the future outlook is murky. Project Orion is receiving about half the funding originally planned by NASA.
And more deep cuts are in store for NASA’s budget – including both manned and unmanned projects – as both political parties wrangle about priorities as they try to pass a federal budget for this fiscal year. Until then, NASA and the entire US government are currently operating under a series of continuing resolutions passed by Congress – and the future is anything but certain.
Orion prototype crew cabin with crew hatch and windows
built at NASA Michoud Assembly Facility, New Orleans, LA. Credit: Ken KremerLockheed Martin team of aerospace engineers and technicians poses with first Orion crew cabin after welding into one piece at NASA Michoud Assembly Facility, New Orleans, LA. Credit: Ken KremerOrion and ISS simulated docking
Astronauts Steve Bowen and Alvin drew work in tandem on one of the truss sections of the ISS during the first spacewalk of the STS-133 mission. Credit: NAS
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About 100 tons of meteoroids bombard the Earth’s atmosphere every day. For spacecraft in Earth orbit, a collision with these particles could cause serious damage or catastrophic failure, and a hit on an astronaut or cosmonaut conducting extra-vehicular activities in space would be life-threatening, if not fatal. But before anyone steps outside the space shuttle or the International Space Station, NASA checks with data from Canadian Meteor Orbit Radar to determine if it’s safe.
The CMOR system consists of three identical radar systems slaved together to transmit and receive simultaneously. Credit: University of Western Ontario
Using a series of ‘smart cameras’, a one-of-a-kind triple-frequency radar system and computer modeling, CMOR provides real-time data, tracking a representative sample of the meteoroids around and approaching Earth, which are traveling at hypervelocity speeds averaging 10 km/s (22,000 mph).
The system is based at based at The University of Western Ontario.
“When it’s in orbit, the largest danger posed to the space shuttle is impact from orbital debris and meteoroids,” said Peter Brown, Western physics and astronomy professor. By knowing when meteoroid activity is high, NASA can make operational changes such as shielding vulnerable areas of the shuttle or deferring space walks so astronauts remain protected.
Brown told Universe Today that the meteoroids tracked by the system are from 0.1mm and larger, and it detects the ionization trails left by these meteoroids and not the solid particles themselves.
CMOR records about 2,500 meteoroid orbits per day by using a multi-frequency HF/VHF radar. The radar produces data on the range, angle of arrival, and velocity/orbit in some instances. In operation since 1999, the system has measured 4 million individual orbits, as of 2009.
NASA makes daily decisions based on the data from this system. Radio waves are bounced off the ionization trails of meteors by the radar, allowing the system to provide the data necessary to understand meteoric activity on a given day. “From this information we can figure out how many meteoroids are hitting the atmosphere, as well as the direction they’re coming from and their velocity,” Brown said.
NASA says the greatest challenge is medium size particles (objects with a diameter between 1 cm to 10 cm), because of how difficult they are to track, and they are large enough to cause catastrophic damage to spacecraft and satellites. Small particles less than 1 cm pose less of a catastrophic threat, but they do cause surface abrasions and microscopic holes to spacecraft and satellites.
STS-35 Space Shuttle window pit from orbital debris impact. Credit: NASA
But the radar information from the Canadian system can also be combined with optical data to provide broader information about the space environment and produce models useful during the construction of satellites. Scientists are better able to shield or protect the satellites to minimize the effect of meteoroid impacts before sending them into space.
The ISS is the most heavily shielded spacecraft ever flown, and uses “multishock” shielding, which uses several layers of lightweight ceramic fabric to act as “bumpers,” which shocks a projectile to such high energy levels that it melts or vaporizes and absorbs debris before it can penetrate a spacecraft’s walls. This shielding protects critical components such as habitable compartments and high-pressure tanks from the nominal threat of particles approximately 1 cm in diameter. The ISS also has the capability of maneuvering to avoid larger tracked objects.
The original radar system was developed for measuring winds in the Earth’s upper atmosphere, and has since been modified by Brown and his fellow researchers to be optimized for the kinds of astronomical measurements currently being used by NASA.
When the radar detects meteors, the software analyzes the data, summarizes it and sends it to NASA electronically. Brown’s role is to keep the process running and continue to develop the techniques used to obtain the information over time.
Western has been working co-operatively with NASA for 15 years, and has been involved with its Meteor Environment Office (MEO) since it was created in 2004. The role of the MEO is predominantly to evaluate risk. “Everyone knows that rocks fly through space,” says MEO head Bill Cooke. “Our job is to help NASA programs, like the space station, figure out the risk to their equipment, educate them on the environment and give them models to evaluate the risks posed to spacecrafts and astronauts.”
Japan's Kounotori 2 –or ‘White Stork’ – cargo carrier as it arrived at the ISS in January. Credit: Paolo Nespol/NASA
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Japan’s HTV-2 Kounotori resupply ship undocked from the International Space Station at 15.45 GMT on March 28, and will burn up in Earth’s atmosphere sometime early Wednesday March 31. Back in January, the craft brought five metric tons of equipment and supplies to the station, but now it is loaded with trash and unneeded equipment and packing materials. Most of the HTV will likely disintegrate as it passes through the atmosphere, but any pieces left over will find a watery grave in a remote area in the Central Pacific. But sensors on board the HTV-2 will provide data on how the craft behaves during its fiery demise.
The Re-entry Breakup Recorder (REBR) will record temperature, acceleration, rotational rate and other data.
The second HTV from Japan arrived at the ISS on January 27 carrying its cargo of food, water supplies, and equipment. Japan expects to send another seven cargo ships to the station by 2015, with the next one scheduled to arrive in January 2012.
The ISS crew grappled HTV-2 with the Canadarm 2, undocked it from the station and then maneuvered the HTV into a release position about 30 feet below the station. The Space Station Integration and Promotion Center in Tsukuba, Japan was able to handle the commands to activate and check out the freighter’s guidance, navigation and control systems. Because of the March 11 earthquake in Japan, controls of the HTV and Japan’s Kibo laboratory was temporarily handed over to NASA in Houston, but the center is now fully restored for full commanding, telemetry and voice capabilities for the ISS.
The cargo ship will enter the atmosphere on Wednesday at 03.09 GMT, and any remaining fragments will fall into the Pacific Ocean 31 minutes later.
For a moment we had 2 @AstroRobonaut. ISS Commander Scott Kelly and Robonaut 2 pose together in the Destiny laboratory module. Credit: ESA/NASA
Star Trek’s Data must be smiling.
One of his kind has finally made it to the High Frontier. The voyages of Robo Trek have begun !
Robonaut 2, or R2, was finally unleashed from his foam lined packing crate by ISS crewmembers Cady Coleman and Paolo Nespoli on March 15 and attached to a pedestal located inside its new home in the Destiny research module. R2 joins the crew of six human residents as an official member of the ISS crew. See the video above and photos below.
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The fancy shipping crate goes by the acronym SLEEPR, which stands for Structural Launch Enclosure to Effectively Protect Robonaut. R2 had been packed inside since last summer.
”Robonaut is now onboard as the newest member of our crew. We are happy to have him onboard. It’s a real good opportunity to help understand the interface of humans and robotics here in space.” said Coleman. “We want to see what Robonaut can do. Congratulations to the team of engineers [at NASA Johnson Space center] who got him ready to fly.”
ISS Flight Engineer Cady Coleman and Robonaut 2
Discovery blasted off for her historic final mission on Feb. 24 and made history to the end by carrying the first joint Human-Robot crew to space.
“It feels great to be out of my SLEEPR, even if I can’t stretch out just yet. I can’t wait until I get to start doing some work!” tweeted R2.
The 300-pound R2 was jointly developed in a partnership between NASA and GM at a cost of about $2.5 million. It consists of a head and a torso with two arms and two hands. It was designed with exceptionally dexterous hands and can use the same tools as humans.
ISS Flight Engineer Paolo Nespoli and Robonaut 2
R2 will function as an astronaut’s assistant that can work shoulder to shoulder alongside humans and conduct real work, ranging from science experiments to maintenance chores. After further upgrades to accomplish tasks of growing complexity, R2 may one day venture outside the ISS to help spacewalking astronauts.
“It’s a dream come true to fly the robot to the ISS,” said Ron Diftler in an interview at the Kennedy Space Center. Diftler is the R2 project manager at NASA’s Johnson Space Center.
President Obama called the joint Discovery-ISS crew during the STS-133 mission and said he was eager to see R2 inside the ISS and urged the crew to unpack R2 as soon as possible.
“I understand you guys have a new crew member, this R2 robot,” Obama said. “I don’t know whether you guys are putting R2 to work, but he’s getting a lot of attention. That helps inspire some young people when it comes to science and technology.”
Commander Lindsey replied that R2 was still packed in the shipping crate – SLEEPR – and then joked that, “every once in a while we hear some scratching sounds from inside, maybe, you know, ‘let me out, let me out,’ we’re not sure.”
Robonaut 2 is free at last to meet his destiny in space and Voyage to the Stars.
“I don’t have a window in front of me, but maybe the crew will let me look out of the Cupola sometime,” R2 tweeted from the ISS.
Read my earlier Robonaut/STS-133 stories here, here, here and here.
This isn’t an animation or computer graphics.
I’m in space, says Robonaut 2 from inside the Destiny module at the ISS. Credit: NASA Robonaut 2 unveiled at the ISS.
Robonaut 2, the dexterous humanoid astronaut helper, is pictured in the Destiny laboratory of the International Space Station.Flight Engineer Oleg Skripochka and Robonaut 2 inside the ISSR2A waving goodbye.
Robonaut R2A waving goodbye as Robonaut R2B launches into space aboard STS-133 from the Kernnedy Space Center. R2 is the first humanoid robot in space. Credit: Joe BibbyR2A waving goodbye to twin brother R2B launching aboad Space Shuttle Discovery on Feb 14, 2011. Credit: Joe BibbyDiscovery launched on Feb. 14 with crew of six human astronauts and R2 Robonaut on STS-133 mission.
First joint Human – Robot crew. Credit: Ken KremerThe twin brother of the R2 Robonaut and their NASA/GM creators at KSC.
Robonaut 2 and the NASA/GM team of scientists and engineers watched the launch of Space Shuttle Discovery and the first joint Human-Robot crew on the STS-133 mission on Feb. 24, 2011 from the Kennedy Space Center. Credit: Ken Kremer
Russian Search and Rescue personnel secure their helicopters before picking up the crew of Expedition 26 that landed in Kazakhstan. Credit: NASA
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Three members of the Expedition 26 crew landed safely in their Soyuz spacecraft early Wednesday, but their replacements might not launch until mid-April, a delay of a couple of weeks. Commander Scott Kelly and Russian Flight Engineers Alexander Kaleri and Oleg Skripochka landed with no problems in the cold and snow of Kazakhstan, concluding their five-month stay aboard the International Space Station. But meanwhile, the Russian Soyuz TMA-21 is experiencing a problem with the communications system, and the new crew was scheduled to launch on March 29. But the launch may be delayed until after the April 12th 50th anniversary of Yuri Gagarin’s first space flight.
Roskosmos director Anatoly Perminov said technicians were working on a faulty transistor, and if the launch doesn’t take place by about April 9, they would likely be postponed until after the anniversary celebration of the first human to orbit Earth.
The delay could increase concerns about relying solely on Russia for rides to the ISS.
The new crew half of the Expedition 27 crew consists of NASA astronaut Ron Garan and Russian cosmonauts Andrei Borisenko and Alexander Samokutayev. Remaining on board the ISS are Dmitry Kondratyev, now commander and Flight Engineers Catherine Coleman (NASA) and Paolo Nespoli (ESA).
The Expedition 26 trio undocked from the ISS at 12:27 a.m. EDT from the station’s Poisk module, and landed at 3:54 a.m. (1:54 p.m. local time) at a site northeast of the town of Arkalyk.
Working in frigid temperatures, Russian recovery teams were on hand to help the crew exit the Soyuz and adjust to gravity. Kaleri and Skripochka will return to the Gagarin Cosmonaut Training Center in Star City, outside of Moscow, while Kelly will fly directly home to Houston.
The three returning crewmembers have been in space since Oct. 8, 2010 when they launched aboard the Soyuz TMA-01M spacecraft from the Baikonur Cosmodrome in Kazakhstan, spending 159 days in space.
During their mission, the Expedition 25 and 26 crew members worked on more than 150 microgravity experiments in human research; biology and biotechnology; physical and materials sciences; technology development; and Earth and space sciences.
That’s the feeling you’ll get from this exquisite and exciting piece from amateur videographer Anton Janssen from the Netherlands. Anton has captured the sights and sounds of excitement of the giant crowd in the thick of the action in this amazingly sharp video of Discovery’s last blast to space.
Anton’s vantage point from the NASA Causeway enabled him to film the liftoff with a birds eye view of the entire orbiter to the base of the launch pad – not blocked by the launch gantry at all. And to top that off, the video shows panoramic reaction shots of the large and exuberant crowd. What’s more is you can hear the cheering multitudes at multiple milestones as Discovery ascends with a deafening roar and spewing intense scorching flames out her rear like a gigantic blowtorch burning an indelible hole in the sky.
Anton told me he bought the camera new and especially for the STS-133 launch after he purchased one of the very hard to get VIP Tickets from the KSC Visitor Complex. He arrived at the viewing site several hours early, along with tens of thousands of other onlookers along the Florida Space Coast beaches and roadways.
“The NASA Causeway was a great viewing site because you could see the shuttle right from the start,” Anton explained.
Check out this amazing close up video view of the final moments of Discovery’s final landing and the finale of her space career as record by Matt Travis, of Spacearium, taken at the Shuttle Landing Facility where I was also stationed.
This timelapse of Discovery’s launch was shot from the Kennedy Space Center Causeway Viewing Site, by David Gonzales of Project Soar. (See our previous article about them.) Here, approximately 12 minutes is condensed into 27 seconds, so about 27 times as fast. Replayed at 15 fps. See the launch and smokey plume change over time as it is tugged on by wind.
Only 1 or 2 flight remain for the Space Shuttle Program until they are forcibly retired for lack of money.
Next up is the launch of Endeavour on April 19 at dusk. Should make for some extremely cool videos and snapshots! Get your gear ready!
Space Shuttle Discovery concluded her magnificent final journey with a safe landing on March 9, 2011 at the Kennedy Space Center in Florida at 11:57 a.m. EST. Credit: Ken Kremer
