Will there soon be another human destination in low Earth orbit, or is this a redundant pipe dream? Two Russian-based companies hope to build the first-ever commercial space station, named, fittingly, Commercial Space Station (CSS). Orbital Technologies and Rocket and Space Corporation Energia (RSC Energria) said in a press release that they will work together to build, launch, and operate the station, which they foresee as will being utilized by private citizens, professional crews as well as corporate researchers interested in conducting scientific programs.
“I am pleased to announce our intention to provide the global marketplace a commercially available orbital outpost,” said the CEO of Orbital Technologies, Sergey Kostenko. “Once launched and operational, the CSS will provide a unique destination for commercial, state and private spaceflight exploration missions. The CSS will be a valuable addition to the global base of orbital assets. We look forward to working with corporate entities, state governments and private individuals from around the world.”
The two companies provided no schedule for launches of the modules, or information about their funding or resources, except to advertise they are looking for partnerships.
A US-based company, Bigelow Aerospace, has also been planning to construct a commercial space station using expandable habitats. They launched prototypes in 2006 and 2007, and in 2011 plan to launch a larger 180,572 square ft. module, which they tout as “fully operational.”
“What competition do we see on the horizon?” said Robert Bigelow, founder and president on the Bigelow Aerospace website. “Nobody.”
This Russian space station, if it actually goes forward, would change that.
Reportedly, the CSS will be able to house up to seven people with “modules and technologies of the highest quality and reliability will be used in the construction of the station,” to “lead the private sector in the commercializing human spaceflight platforms in low Earth orbit.”
The CSS will be serviced by the Russian Soyuz and Progress spacecraft, as well other transportation systems available from other countries, enabled by a “unified docking system that will allow any commercial crew and cargo capability developed in the Unites States, Europe and China.”
Having second space station in orbit will allow the crew of the International Space Station to leave the ISS “if a required maintenance procedure or a real emergency were to occur, without the return of the ISS crew to Earth,” said Alexey Krasnov, Head of Manned Spaceflight Department, Federal Space Agency of the Russian Federation, allowing the ISS crew to have a safe haven in the event of an emergency.
But the main goal of the CSS is to be a hub for commercial activity, scientific research and development in low Earth orbit. Orbital Technologies said they already have several customers under contract from different segments of industry and the scientific community, representing such areas as medical research and protein crystallization, materials processing, and the geographic imaging and remote sensing industry.
“We also have proposals for the implementation of media projects,” said Kostenko. “And, of course, some parties are interested in short duration stays on the station for enjoyment.”
And for the future, the developers see the CSS as a “true gateway to the rest of the solar system,” said Kostenko. “A short stop-over at our station will be the perfect beginning of a manned circumlunar flight. Deep space manned exploration missions planned in the next decade are also welcome to use the CSS as a waypoint and a supply station.”
Arthur C Clarke allegedly said that the space elevator would be built fifty years after people stopped laughing. The first space tower though… well, that might need a hundred years. The idea of raising a structure from the ground up to 100 kilometers in height seems more than a bit implausible by today’s engineering standards, given that we are yet to build anything that is more than one kilometer in height. The idea that we could build something up to geosynchronous orbit at 36,000 kilometers in height is just plain LOL… isn’t it?
Space tower proponents point to a key problem with the space elevator design. It may only be after we have spent years inventing a method to manufacture 36,000 kilometers of flawless carbon or boron nanotube fiber – which is light enough not to break under its own weight, but still strong enough to lift an elevator cabin – that we suddenly realize that we still have to get power to the cabin’s lifting engine. And doesn’t that just mean adding 36,000 kilometers of conventional (and heavy) electrical cable to the construction?
Mind you, building a space tower brings its own challenges. It’s estimated that a steel tower, containing an elevator and cabling, of 100 kilometers height needs a cross-sectional base that is a 100 times greater than its apex and a mass that is 135 times greater than its payload (which might be a viewing platform for tourists).
A solid construction capable of holding up a launch platform at 36,000 kilometers altitude might need a tower with ten million times the mass of its payload – with a cross-sectional base covering the area of, say, Spain. And the only construction material likely to withstand the stresses involved would be industrial diamond.
A more economical approach, though no less ambitious or LOL-inducing, are centrifugal and kinetic towers. These are structures that can potentially exceed a height of 100 kilometers, support an appreciable mass at their apex and still maintain structural stability – by virtue of a rapidly rotating loop of cable which not only supports its own weight, but generates lift through centrifugal force. The rotation of the cable loop is driven by a ground-based engine, which can also drive a separate elevator cable to lift courageous tourists. Gaining altitudes of 36,000 kilometers is suggested to be achievable by staged constructions and lighter materials. But, it might be sensible to first see if this grand design on paper can translate to a proposed four kilometer test tower – and then take it from there.
There are also inflatable space towers, proposed to be capable of achieving heights of 3 kilometers with hot air, 30 kilometers with helium or even 100 kilometers with hydrogen (oh, the humanity). Allegedly, a 36,000 kilometer tower might be achievable if filled with electron gas. This is a curious substance argued to be capable of exerting different inflationary pressures depending on the charge applied to the thin-film membrane which contains it. This would allow a structure to withstand differential stresses – where, in a highly charged state, the highly excited electron gas mimics a molecular gas under high pressure, but with a reduced charge it exerts less pressure and the structure containing it becomes more flexible – although, in either case, the overall mass of the gas remains unchanged and suitably low. Hmmm…
If this all seems a bit implausible, there’s always the proposed 100 kilometer high space pier that would enable horizontal space launch without rocketry – perhaps via a giant rail gun, or some other similarly theoretical device that works just fine on paper.
Further reading: Krinker, M. (2010) Review of new concepts, ideas and innovations in space towers. (Have to say this review reads like a cut and paste job from a number of not-very-well-translated-from-Russian articles – but the diagrams are, if not plausible, at least comprehensible).
It’s something like the movie “Astronaut Farmer,” but this is for real. And it’s in Danish. Copenhagen Suborbitals, headed by Kristian von Bengtson and Peter Madsen, hope to launch the world’s first amateur-built rocket for human space travel. As of this writing, the launch countdown clock on the Copenhagen Suborbitals’ website reads 7 days and 12 hours, which would put the launch on August 30 at about 1300 GMT. This upcoming flight will be an unmanned test flight, but if all goes well, Madsen hopes to be inside the single-passenger capsule named Tycho Brahe for a manned flight in the near future. They have a sea-launch site on the Baltic Sea near Bornholm, Denmark, and their HEAT 1-X rocket is ready to go.
The team has been building their hybrid rocket since about 2004. Copenhagen Suborbitals is a non-profit endeavor, based entirely on sponsors and volunteers. Their mission: launch a human being into space. If they are successful, Denmark would become only the fourth nation to send a human into space. But this project is completely private – no national funds have been used. “We are working fulltime to develop a series of suborbital space vehicles – designed to pave the way for manned space flight on a micro size spacecraft,” said Madsen and von Bengtson on their website.
The Hybrid Exo Atmospheric Transporter or HEAT, is their booster rocket. It stands about 9 meters high, and it is a real scale rocket with a 640 mm diameter tube and uses liquid oxygen (LOX) for fuel. The HEAT booster will burn for about 60 seconds, providing 40kN of thrust, resulting in less than 3-g making the trip feasible for humans to endure in an upright position.
The booster was successfully test-fired in February and May 2010. Copenhagen Suborbitals has also built three other rockets and successfully tested and flown them, including a small unmanned sounding rocket, named Hybrid Atmospheric Test Vehicle or HATV and smaller versions of the HEAT rocket.
“The mission has a 100% peaceful purpose and is not in any way involved in carrying explosive, nuclear, biological and chemical payloads,” said Madsen and von Bengtson.“We intend to share all our technical information as much as possible, within the laws of EU-export control.”
Previously, Madsen built the world’s largest home-made submarine, UC3 Nautilus. von Bengtson used to work for NASA. “This is the wildest thing I’ve made,” said Madsen in the Danish publication B.T. It is much wilder than the submarine.” Madsen added that he was tired of waiting for NASA, so decided to build a rocket himself.
The Tycho Brahe capsule is a single passenger capsule with a full view through a polymer plexiglas-dome so that the person can see and experience the entire ballistic ride. It has a pressurized volume providing support for one upright standing/half-sitting person. It will also have additional pressurized space, around and behind the astronaut, available for several other systems necessary for the flight procedure, and to support additional scientific and commercial project.
Copenhagen Suborbitals is taking donations, so check out their website. There’s also lots of images and videos available, on the site, too.
Since I am of one-half Danish heritage, I find this especially exciting. We’ll be following the progress of the Copenhagen Suborbitals’ historic flight. Stay tuned!
One of the International Space Station’s external cool system pumps quit working late Saturday, likely due to mechanical failure. This triggered subsequent shutdowns in other systems. Teams on the ground are working with the six astronauts on board the station to troubleshoot the issue, but it appears at least two spacewalks will be required to remove and replace the pump. NASA officials said the problem will have to be resolved quickly, as the cooling system is extremely important for all the station’s systems. This is a redundant system, so the backup loop is now cooling the station and the crew is in no danger, but NASA does not like to work any systems “single string,” i.e., with no backup.
NASA tried restarting the pump Sunday morning, but it did not work. There are two spare pumps on orbit. ISS astronauts Doug Wheelock and Tracy Caldwell Dyson had been already scheduled to make a spacewalk on August 5 to install part of a robotic crane and to do preparation work get ready for a new module (the Permanent Logistics Module) that is due to arrive in November aboard space shuttle Discovery.
EVA teams are now looking at using the August 5 space walk for the first half of the repairs, followed by the second EVA on August 7 (Saturday). The spacewalks need special planning since the system is in a reduced power configuration.
The space station features two independent coolant loops that use ammonia circulating through huge radiators to dissipate the heat generated by the station’s electronic systems, primarily from the labs. Each loop is fed by a large tank of ammonia that includes an internal bellows pressurized by nitrogen. That pressurization system allows the loops to handle the periodic expansion and contraction of the ammonia coolant due to temperature changes when the station goes from sunlight to shadow while in orbit.
Back in April a valve failed on the coolant system, but the teams were able to troubleshoot and fix the problem without a spacewalk.
A status update from NASA listed several other systems that required powerdowns to as a result of the cooling loop shutdown in order to thermally protect them:
Redundant power to four CQs (Crew Quarters), three in Node-2, one in Kibo JPM, with both fans in each CQ remaining functional but zero fault-tolerant (crew is still Go for CQ use). Due to loss of heater power, MBS (Mobile Base System), SSRMS (Space Station Remote Manipulator System), and SPDM (Special Purpose Dexterous Manipulator) are currently zero fault-tolerant. Communications systems, but there could be some issues with possible overheating. No video will be available fromNode-2, Node-3, the Columbus and Japanese modules.
Twenty-one teams are hard at work trying to win the Google Lunar X PRIZE, a $30 million international competition to safely land a robot on the surface of the Moon. The GLXP folks released a video this week as an update on how the teams are progressing. The challenge is not only to land a robot on the Moon, but it also must complete a few tasks – and none of this is easy: travel at least 500 meters over the lunar surface, and send images and data back to Earth. Continue reading “Who Will Win the Google Lunar X PRIZE?”
The first landing attempt is set for 10:20 PM EST on Orbit 217 with the de-orbit burn planned for 9:14 PM. See landing track below. A second opportunity is available at 11:55 PM. There are two additional opportunities available overnight at Edwards Air Force Base, Calif., at 1:25 AM EST Monday and 3:00 AM. The Spaceflight Meteorology Group and local news forecasts here in Florida predict deteriorating weather at KSC on Monday with increasing chances of rain.
The crew will berth the robotic arm and conduct the standard pre-landing check out of re-entry systems for the flight control surfaces. They will test the hydraulic power units and elevons and test fire all the steering jets during their last planned full day in space.
Eight Xenon lights will illuminate the SLF for the night time shuttle landing. Four xenons will be positioned at both ends of the runway to illuminate the touchdown and rollout area from behind the shuttle. Each Xenon light emits 1 billion candlepower, or 20 kilowatts.
Endeavour undocked from the ISS on Friday (Feb 19) at 7:54 PM EST while orbiting 208 miles high above the Atlantic Ocean after a completely successful period of joint operations with the Expedition 22 crew totaling nine days, 19 hours and 48 minutes. Shuttle pilot Terry Virts performed a fly-around of the station, enabling his crewmates to conduct a photo survey of the complex. The crew also conducted the now standard final check for any signs of damage to the heat shield tiles on Endeavour’s belly and the reinforced carbon carbon (RCC) panels on the wing leading edges and nose cap using the Orbiter Boom Sensor System attached to the shuttles robotic arm in order to ensure a safe reentry.
During the two week flight, the STS 130 crew brought aloft and installed the Tranquility habitation module and the Cupola observation dome and conducted three spacewalks. Tranquility houses critical life support systems. The Cupola possesses 7 spectacular windows affording dazzling vistas of the earth below and the cosmos above.
The station is now 98 percent complete by volume and 90 percent complete by mass. The station itself exceeds 800,000 pounds and the combined weight with the shuttle exceeds 1 million pounds for the first time.
Earlier STS 130/ISS and SDO articles by Ken Kremer
Virgin Galactic will unveil SpaceShipTwo (SS2), Monday night, but they did sneak out a few photos prior to the event. SS2 will be the world’s first commercial manned spaceship, with room for several passengers to move (and fly!) around during suborbital flights. “This is truly a momentous day. The team has created not only a world first but also a work of art,” said Sir Richard Branson, Virgin Galactic founder. Burt Rutan, the designer of SpaceShipOne which won the Ansari X PRIZE in 2004 for completing the world’s first manned private space flights said, “All of us at Scaled Composites are tremendously excited by the capabilities of both the mothership and SS2.”
A “theatrical unveil” Monday night at the Mojave Spaceport will be followed by a cocktail party for the 300 plus paying passengers that have already signed up for flights on SS2, along with other VIPs of the space industry.
SpaceShipTwo’s debut marks the first public appearance of a commercial passenger spacecraft. SS2 has been under construction for two years. On board, there will be room for six passengers and two pilots.
Daily space tourism flights for SS2 are set to begin in New Mexico from Spaceport America following the completion of test programming and US government licensing. SS2 will be carried by WhiteKnightTwo mothership, a four-engine jet-powered aircraft unveiled last year that features twin fuselages mounted on either side of a huge wing. SS2 will be mounted in the center.
SpaceShipTwo will be released at an altitude of 15,240 meters (50,000 feet.) A hybrid rocket motor burning solid propellant with nitrous oxide then will boost SpaceShipTwo onto a steep trajectory to an altitude of more than 100 km (62 miles.)
Here’s an image comparing SS2 with SpaceShipOne:
The first SpaceShipTwo test flights are expected to start next year, with full-fledged space launches to its maximum altitude by or in 2011.
The 300 paid passengers have already put down the $200,000 ticket or placed a deposit, according to the company.
Upcoming commercial space flights are no longer only about rich, adventure-seeking space tourists. Researchers hope to capitalize on the prospect of quick, low-cost and frequent access to the micro-gravity environment of sub-orbital space. “We’ve got these great vehicles coming online and most of the discussion about them so far have centered on the tourism market,” said Erika Wagner, member of SARG – the Suborbital Applications Researcher Group. “As researchers we felt this was a fantastic opportunity to do both science and education, as well.”
SARG was chartered by the Commercial Spaceflight Federation, and consists of around a dozen scientists and researchers from across the spectrum of the different sciences. Led by Alan Stern who formerly headed NASA’s science directorate, the group has sponsored three different workshops for scientists in Boston, Houston and Los Angeles, with another upcoming in Boulder Colorado (Feb. 18-20, 2010). “We want to inform researchers on this opportunity,” Wagner told Universe Today,” and find out how they want to use the vehicles and any constraints they might have, and feed that back to the vehicle designers and flight providers.”
About a year ago, SARG started surveying scientists, as well as getting the word out to NASA and other funding agencies that scientists were excited about sub-orbital space. “We’ve started to build some momentum now with the Commercial Reusable Suborbital Research program,” Wagner said, “and NASA has put up $2.6 million to support suborbital research in 2010. We’re putting everything in place to get everything structured to make this a viable research platform.”
Sub-orbital science appears to be a win-win situation for both scientists and the nascent commercial spaceflight companies. For researchers, the flights represent cheaper and more frequent access to space than anything NASA can provide with the space shuttle, parabolic flights or sounding rockets. For companies like Armadillo Aerospace, Blue Origin, Masten Space Systems, Virgin Galactic, and XCOR, adding science to their payloads represents the possibility of an additional $100 million a year in fares — roughly equivalent to the fares that would be paid out by 500 passengers.
Wagner said this new sub-orbital realm represents an entire new dimension for scientists. “The researchers hadn’t thought about it much before,” she said. “Mostly the research being done now is on the space shuttle and space station and is geared towards long duration flights. But the idea of how we use 3 or 4 minutes of microgravity is a real paradigm shift.”
“They would be able to do anything that requires being above the atmosphere but doesn’t require a Hubble Space Telescope,” Wagner continued,” or planetary science measurements, or atmospheric measurements as you go up and down. There’s a whole area that is called the “ignorosphere” – the part of the atmosphere that is too thin for planes to fly in but too thick for satellites to fly through, which has been pretty much ignored by the scientific community. But the suborbital vehicles go right through it.”
Then there’s basic fluids research- how do bubbles and fluids interact, which has implications for designing spacecraft engines –, particulates research, studying how the human body adapts to space, and other medical investigations.
“Several years ago researchers developed techniques for CPR in microgravity in case they ever need it on the space station,” Wagner said. “They tested in on the Vomit Comet, (parabolic flights) and you have only 20-30 second bursts, and it’s really hard to develop procedures for that, or especially for minor surgery or emergency procedures in that amount of time. 3-4 minutes gives you an opportunity to practice them and do training.”
Wagner, who works in life science research at MIT said what she finds most exciting is that sub-orbital opens up much more broadly the range of people that can be sent into space.
“Of the 450 or so astronauts that have been to space, all have been between 25-50 year of age, been very healthy and well trained,” she said. “Soon, there will be thousands of people who will be going into space which means we can begin to study the differences between men and women, young and old, and open it up to people who never would have been eligible to fly with NASA. Then we could study the effect of microgravity for someone who has a chronic heart condition or diabetes, or people who are on medication. For me that is the most interesting.”
A recent market analysis predicts there could be a demand for 13,000 passengers a year for commercial spaceflight, and SARG predicts there could be demand for over 1,000 flights a year for researchers.
“Down the line, we see 1,000 flights a year,” Wagner said.” Right now we have just a small handful of vehicle developers that have actual hardware in hand, and double that that are in earlier stages. Virgin Galactic is talking about one flight a day or several flights a day, so eventually we can see reaching that flight volume but it will be probably be several years.”
Early flights could include small payloads bolted to a rack or strapped down in the back of the vehicle, as well as passive data collection. “But once tourists start flying we can say, ‘Hey, would you mind if we took your blood pressure before the flight or would you be willing to wear an EKG harness?'” Wagner said, “– some easy things, which also might makes it more exciting for the tourists who can say they were part of an experiment on their flight.”
Later on, Wagner predicts researchers will be able to fly themselves to do hands-on science. “Does this mean that we are going to fly every scientist with his or her own payload or are there going to be a new class of payload specialists that emerge as commercial operators for science?” said Wagner. “It will be interesting to see how this develops.”
There’s plenty of potential for education, too. “Perhaps we can engage students in the work that is going on, and fly small payloads for students and actually allow them to get involved in science again,” Wagner said. “It’s been awhile since NASA has flown student payloads on the space shuttle, and these vehicles with higher flight frequency and lower costs are just custom made for getting students engaged. If commercial vehicles are flying every week, suddenly you can go end-to-end in a senior design project or have a master’s thesis where you’ve used the space environment for testing. Or you can design things that might fit in a tourist’s pocket, such as handheld sensors or iPhone apps and start to engage K-12 kids.”
Wagner and Stern recently spoke at a panel session at the International Symposium for Personal and Commercial Spaceflight in Las Cruces, N.M, where Wagner said the question she was asked most often was how suborbital science can contribute to the goal of humans living and working in space on a larger basis.
“For me it’s about opening the doors to the general population,” she said. “Right now if we were going to talk about sending people to Mars, it would be government astronauts — well selected, very fit, very healthy individuals. But if we are going to talk about a longer term vision of the future, where we open up that bottle and send the average Joe and Jane, now we can start to understand what might happen to you or I in space and what we need to do to support the general population – all ages, all genders, all nationalities, all health statutes. The opportunity to blow that wide open is really great.”
According to a Russian official, the commercial space company Space Adventures will be sending two space tourists a year into orbit on Soyuz spacecraft from beginning in 2012. “We have been working on this project for a number of years” said Sergey Kostenko, the head of the company’s office in Russia, who was quoted in the Russian news website RiaNovosti. “Each Soyuz will carry two tourists and a professional astronaut. One of the tourists will have to pass a year-and-a-half training course as a flight engineer.”
Space Adventures has been authorized by the Russian Federal Space Agency Roscosmos to select and contract candidates for space tourist trips. According to Kostenko, Russia’s RSC Energia corporation has the capacity to build five Soyuz spacecraft per year instead of four, meaning that Space Adventures will be able to use at least one Soyuz for space tourism purposes.
“The International Space Station (ISS) program requires four Soyuz spacecraft per year, and we have been informed by RSC Energia that they will be able to increase the annual production to five spacecraft,” he said, adding that Space Adventures would pay for the construction of the extra Soyuz, the launch services and the salary of a Russian cosmonaut as crew commander.
Kostenko said Space Adventrues, which bills itself as the only company currently providing human space mission opportunities to the world marketplace, already had a number of candidates who were willing to pay for trips into space, including Russian-born American billionaire and Google co-founder Sergey Brin.
The current price of a 10-day trip to the ISS for a tourist is estimated at about $35 million USD.
Space tourists started flying to the International Space Station in 2001 when American businessman and former NASA scientist Dennis Tito flew to the ISS aboard a Soyuz. He was followed by South African computer millionaire Mark Shuttleworth in 2002, and Gregory Olsen, a U.S. entrepreneur and scientist, in 2005.
In 2006, Anousheh Ansari, a U.S. citizen of Iranian descent, became the first female space tourist.
U.S. games developer Richard Garriott, the son of former NASA astronaut Owen K. Garriott, went into orbit for 11 days in October 2008 on board a Russian Soyuz TMA-13.
U.S. space tourist Charles Simonyi, one of the founders of Microsoft, made two trips to the ISS – in 2005 and 2009.
Guy Laliberte, the Canadian founder of entertainment company Cirque du Soleil, arrived at the ISS on Friday and will stay on board until October 10.
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NASA photographer Bill Ingalls is in Russia at the Baikonur Cosmodrome in Kazakhstan, capturing the rollout of the Soyuz TMA-16 rocket today, scheduled to launch on Sept. 30 to the International Space Station. Of course the Soyuz rollout and launch is a whole different experience from the shuttle rollout, and these pictures tell the story. Additionally, this launch has a bit more “festive” feel to it: spaceflight participant Guy Laliberte, founder of Cirque du Soleil, is part of the crew. Also on board, Soyuz Commander Max Suraev, and NASA Flight Engineer Jeff Williams are scheduled to launch at 2:14 a.m. CDT on Wednesday, Sept. 30.
Above, a Russian security officers walk along the railroad tracks as the Soyuz rocket is rolled out to the launch pad.
The Soyuz rocket being hoisted to its launch position shortly after arrival to the launch pad Monday.
Laliberte is paying some $35 million for a seat on the Soyuz and 12 days aboard the ISS. He’s likely to be the last paying private citizen to the station for the next few years. Because of the retirement of the space shuttle, the Soyuz will be the only way to get astronauts and cosmonauts to and from the ISS.
It will take the Soyuz two days to reach the ISS. Docking is scheduled for 3:36 a.m. CDT on Friday, Oct. 2. Waiting on board the orbiting laboratory are commander Gennady Padalka, NASA’s Mike Barratt and Nicole Stott, the European Space Agency’s Frank De Winne, Russian cosmonaut Roman Romanenko and the Canadian Space Agency’s Bob Thirsk. After Padalka and Barratt depart the station, De Winne will become commander of the next station mission, designated Expedition 21.
Padalka, Barratt and Laliberte will return to Earth on Saturday, Oct. 10, in the Soyuz TMA-14 spacecraft currently docked to the station. Padalka and Barratt have been on the ISS since March 2009.
To see more images from the Soyuz rollout, check out NASA’s Flickr page.