Boeing released this video to promote its CST-100 capsule.
Boeing released this video to promote its CST-100 capsule.
Following DARPA’s announcement of three Experimental SpacePlane (XS-1) teams, the Boeing Company released an illustration of its XS-1 design concept.
“Our design would allow the autonomous booster to carry the second stage and payload to high altitude and deploy them into space,” said Will Hampton, Boeing XS-1 program manager. “The booster would then return to Earth, where it could be quickly prepared for the next flight by applying operation and maintenance principles similar to modern aircraft. Drawing on our other innovative technologies, Boeing intends to provide a concept that uses efficient, streamlined ground infrastructure and improves the turnaround time to relaunch this spacecraft for subsequent missions.”
Boeing and its subcontractor Blue Origin will receive $4 million for the XS-1 Phase I study. DARPA plans to hold a Phase II competition next year for the follow-on production order to build the vehicle and conduct demonstration flights.
Steve Johnston, director of Boeing’s Phantom Works Advanced Space Exploration division, said that “Developing a vehicle that launches small payloads more affordably is a priority for future US Defense Department operations.”
The Defense Advanced Research Projects Agency has announced the selection of three teams to conduct Phase One design studies for the agency’s Experimental SpacePlane 1 (XS-1).
DARPA has selected Boeing (working with Blue Origin), Masten Space Systems (working with XCOR Aerospace), and Northrop Grumman Corporation (working with Virgin Galactic) to design the reusable experimental spaceplane, which is expected to fly ten times in ten days, fly to Mach 10+ at least once, and launch a 3,000-5,000 pound payload to orbit.
Program manager Jess Sponable said that DARPA “chose performers who could prudently integrate existing and up-and-coming technologies and operations, while making XS-1 as reliable, easy-to-use and cost-effective as possible. We’re eager to see how their initial designs envision making spaceflight commonplace—with all the potential military, civilian and commercial benefits that capability would provide.”
According to a DARPA press release, the XS-1 program “aims to develop a fully-reusable unmanned vehicle that would provide aircraft-like access to space and deploy small satellites to orbit using expendable upper stages. XS-1 seeks to deploy small satellites faster and more affordably, and develop technology for next-generation hypersonic vehicles.
“XS-1 envisions that a reusable first stage would fly to hypersonic speeds at a suborbital altitude. At that point, one or more expendable upper stages would separate and deploy a satellite into Low Earth Orbit (LEO). The reusable first stage would then return to earth, land and be prepared for the next flight. Modular components, durable thermal protection systems and automatic launch, flight and recovery systems should significantly reduce logistical needs, enabling rapid turnaround between flights.”
In addition to creating vehicle designs, the three teams will identify and conduct critical risk reduction of core component technologies and processes and develop a technology maturation plan leading to fabrication and flight-test.
DARPA expects the teams to “explore alternative technical approaches from the perspectives of feasibility, performance, system design and development cost and operational cost. They must also assess potential suitability for near-term transition opportunities to military, civil, and commercial users. These opportunities include both launching small payloads per the program goals as well as others, such as supporting future hypersonic testing and a future space-access aircraft.”
DARPA did not announce the size of the contracts, but previous statements place the awards at about $3 million each. (Boeing has just announced that its award is $4 million.)
Technology developed in the XS-1 program could transition into future fully reusable orbital systems, such as XCOR’s Lynx Mark V (the successor to the Lynx suborbital spacecraft) or Blue Origin’s VTVL system. DARPA has not specified a launch or landing mode, but it is anticipated that XS-1 concepts will include both vertical and horizontal takeoff and landing systems.
Boeing recently demonstrated a pilot-in-the-loop simulation of its new CST-100 space capsule.
Captain Chris Ferguson (USN-ret.), who commanded the last-ever Space Shuttle flight,flew the simulation, which included on-orbit attitude and translation maneuvers, docking and backing away from a virtual International Space Station, and a manual re-entry to Earth. Ferguson is now director of Crew and Mission Operations for Boeing’s CST-100 program.
Boeing and Bigelow Aerospace recently conducted a drop test of the CST-100 capsule at Delamar Dry Lake Bed in Nevada.
Boeing is developing the CST-100 primarily to take NASA astronauts to the International Space Station, but Bigelow hopes to use CST-100 to transport astronauts to its own Space Station Alpha, which may be ready as soon as 2015.
Boeing built the US components of the International Space Station. It also inherited the space divisions of McDonnell Douglas and Rockwell International, which built Mercury, Gemini, Apollo, and the Space Shuttle, as well as the X-15. It’s strange to hear politicians and pundits say that CCDev contractors like Boeing have no experience with manned space systems.
Stewart Money at Innerspace has some additional details from the NASA/Bigelow press conference. This part is particularly interesting:
Bigelow announced that the transport price to the station, would be $26.25 million aboard a SpaceX Dragon, or $36.75 million aboard a Boeing CST-100. The 40% price difference is almost certainly due to the much higher cost of the Boeing’s Atlas V launch vehicle, as compared to the SpaceX Falcon 9. The gap could become even more pronounced if Congress ultimately removes the large annual subsidy going to United Launch Alliance in the form of the Launch Capability Contract which is currently on the order of nearly $100 million per flight at current rates.
If this is true, we wonder how Boeing plans to make money. It’s hard to believe that many customers would voluntarily pay $10.5 more for what is essentially the same service.
This might explain why Boeing is reportedly investing very little of its own money in the CST-100. Given a price disadvantage like this, they might not have any customers beyond NASA.
On the other hand, it’s possible Boeing might consider switching the CST-100 to the Falcon 9. Boeing has previously said that CST-100 is booster agnostic. Last year, Boeing said the CST-100 would fly on either the Atlas V or ATK Liberty (the rocket formerly known as Ares I). Liberty is also likely to be a very expensive rocket, besides being vaporware at the moment.
Boeing states that it is building its business case for the CST-100 capsule on two flights per year to the International Space Station.
XCOR Aerospace is building its business case for the Lynx spacecraft on the ability to fly four times a day.
Roll those numbers around in your mouth for a while.
Suborbital spaceflight is often dismissed as unimportant (just as the first microcomputers were dismissed as unimportant). It doesn’t have the same numbers – speed, energy, altitude, duration – as orbital spaceflight.
But like the first microcomputers, it will have the numbers that matter.
As SpaceX prepares for the first commercial docking with the International Space Station, the race to develop crew and cargo resupply vehicles continues to heat up. Emerging space companies like SpaceX, Blue Origin, and Sierra Nevada are competing against one another and against established companies like Orbital Science and Boeing. Now, competition has reached the point where two divisions of the aerospace giant are competing against one another.
Boeing is hard at work developing the CST-100 capsule under the NASA Crew and Cargo Development (CCDEV) program.
Late last year, it was revealed that another Boeing crew and cargo vehicle may be in the works. At the American Institute of Aeronautics and Astronautics’s Space 2011 conference in November, Boeing’s Arthur Grantz revealed that the company is studying a new derivative of the Boeing/USAF X-37B. The new X-37C would be 65-80% larger than the current B version. Launched by an Atlas V rocket, X-37C could carry pressurized or unpressurized cargo or 5-6 astronauts. Grantz is chief engineer in charge of X-37 at the Boeing Space and Intelligence Systems Experimental Systems Group .
One advantage of the winged X-37C would be its gentle 1.5-gee reentry profile. The soft return would benefit astronauts who are deconditioned by long-duration missions in weightlessness as well as those who must be evacuated for medical reasons. Astronauts would normally ride in aircraft-like seats but the design includes provisions for transporting one astronaut on a stretcher. Fragile hardware, such as the results of biological or materials-processing experiments, would also benefit.
The X-37C seems like a dark horse at the moment, since CST-100 is already in development and receiving funding under CCDEV, but rumors say that NASA is considering extending the life of the International Space Station again, to 2028. If that happens, the chances for new entries in the CCDEV race are likely to improve. X-37 could also carry citizen space explorers to a Bigelow space station and other Low Earth Orbit destinations in the future.
This type of internal competition is a sign of a healthy industry. In the commercial world, a good company is always trying to make its own products obsolete (before an external competitor does it for them).
X-37 began as a NASA program in the late 1990’s. NASA funded the development of two vehicles. One vehicle, called X-40, was designed for approach-and-landing tests with a CH-47 helicopter used as the drop aircraft. The slightly larger X-37A was designed to go into space but never made it. The program was canceled and X-37A was mothballed for several years until the Defense Advanced Research Projects Agency (DARPA) took it over. X-37A was then used for additional approach-and-landing tests, using Scaled Composite’s White Knight (originally built to carry SpaceShip One) as the drop aircraft.
Finally, in 2006, the US Air Force decided to proceed with orbital tests of the X-37. It was decided that the original X-37 was not adequate for this purpose, so a new version, called X-37B was constructed. Two X-37B vehicles were built. The first X-37B conducted a 225-day mission in space from April 22 to December 3, 2010. The second X-37B was launched on March 5, 2011. It is expected to remain in orbit for 270 days or longer. Although X-37B is designed to be reusable, neither of the two vehicles has yet been reflows. The Air Force officially designates the X-37B as an Orbital Test Vehicle, or OTV. Various conspiracy theories claim X-37B is everything from a spy satellite to a space-weapons platform, but there’s no evidence to indicate that it is anything more than an experimental test platform as the Air Force states. The low flight rate would sam to preclude an operational role.
Boeing’s Commercial Crew Space Transportation System, including the CST-100 capsule, Atlas V launcher, and ground system successfully completed its Preliminary Design Review on March 12. (Press release here.)
The PDR included representatives from Boeing, NASA, the Federal Aviation Administration and independent consultants. Boeing has scheduled additional tests to be performed in 2012, including a launch abort engine hot fire test series, which was successfully completed on March 9, parachute drop tests in April, a landing air bag test series in May, a forward heat shield jettison test in June, and an attitude control engine hot fire test in June, to gather additional data on key functional elements of the spacecraft design.
The Boeing Commercial Crew Space Transportation System is designed to provide crewed flights to the ISS and a future Bigelow Aerospace orbital space station. The following video shows how the system might support a Bigelow station.