Commercial Space Activities

Commercial Space Activities

Brief Introduction

The “Space Economy”

As published by the Space Foundation in Quarter 2 of the The Space Report 2019: The Authoritative Guide to Global Space Activity, the global “space economy” in 2018 was $414.75 billion, up from $383.51 billion in 2017. This annual report from the Space Foundation tracks worldwide spending by governments, the private sector and consumers. According to the report (available for purchase), this $414.75 billion space economy is comprised of the following segments:

  • commercial infrastructure and support industries, 24% ($99.69 billion)
  • commercial space products and services, 55.3% ($229.17 billion)
  • U.S. government space budgets, 11.6% ($48.31 billion), and
  • non-U.S. government space budgets, 9.1% ($37.58 billion)

Defining “Commercial” Space Activities

What makes a space activity “commercial” can be difficult to define. Some consider a commercial activity to be one in which a private sector entity puts its own capital at risk and provides goods or services primarily to other private sector entities or consumers rather than to the government. Examples of these activities would be direct-to-home satellite television (e.g. DirecTV and DishTV), satellite radio (Sirius XM), and commercial communications satellites that transmit voice, data and Internet services (such as Intelsat Ltd., SES Global, and Eutelsat).

Other definitions are broader and include sales of consumer equipment by companies even though the satellite system is owned by the government. The chief example of this is the Global Positioning System (GPS) navigation satellite system that is owned by the U.S. Department of Defense, but has a vast array of consumer users ranging from automobile navigation systems to cell phones to precision farming. The devices used by consumers around the world in their cars, on their boats, or carried on their persons are sold by commercial companies, but the satellite signal that makes them work is provided for free by DOD.

Still broader definitions of commercial space activities include those where a company provides services primarily to government customers, such as the Boeing-Lockheed Martin United Launch Alliance (ULA), or the remote sensing satellite company DigitalGlobe. Others do not consider these commercial because they are reliant on the government for most of their revenue and the government shoulders a major portion of the risk because the government requires the services.

In his National Space Policy issued on June 28, 2010, President Obama defined “commercial space activities” in this manner:

The term “commercial,” for the purposes of this policy, refers to space goods, services, or activities provided by private sector enterprises that bear a reasonable portion of the investment risk and responsibility for the activity, operate in accordance with typical market-based incentives for controlling cost and optimizing return on investment, and have the legal capacity to offer these goods or services to existing or potential nongovernmental customers.

Presidential policy remains in effect until another President changes it.  President Trump has modified one portion of the 2010 National Space Policy (regarding human spaceflight), but not this section.

U.S. COMMERCIAL SPACE POLICY

The government plays a major role in commercial space activities in many ways, from establishing regulatory policy, to creating policies that direct government agencies to purchase services from companies, to engaging in public-private partnerships where the government and the private sector share the risks and rewards, to traditional fixed price or cost-plus contracts for services or products.

U.S. commercial space policy has been part of national space policy for decades. President Trump has issued four Space Policy Directives (SPDs) and a National Space Strategy.  Not all impact commercial space policy, but are listed here for completeness.

  • Space Policy Directive 1 (SPD-1), December 11, 2017, replaces two sentences of the 2010 National Space Policy regarding NASA’s human spaceflight program.  It directs NASA to return humans to the lunar surface as a steppingstone to human exploration of Mars instead of an asteroid as the Obama Administration planned.
  • National Space Strategy, March 23, 2018, states the strategy to implement national security, commercial and civil space policy.
  • Space Policy Directive-2, May 24, 2018, takes steps towards designating the Department of Commerce (DOC) as the “one-stop shop” for commercial space regulations.  Three federal agencies are currently responsible for regulating commercial space activities:  the Federal Aviation Administration’s Office of Commercial Space Transportation (FAA/AST) that regulates, facilitates and promotes the commercial space launch and reentry business; the Federal Communications Commission (FCC) that assigns radio frequencies and issues licenses for commercial satellite systems; and the DOC and its National Oceanic and Atmospheric Administration (NOAA) that issues licenses for commercial remote sensing satellites.  After SPD-2 was released, Secretary of Commerce Wilbur Ross announced that he wanted to move NOAA’s commercial remote sensing regulatory affairs office and the Office of Space Commerce (also in NOAA) into a new Space Policy Advancing Commercial Enterprise (SPACE) Administration within the Department, reporting directly to him.  That later became a proposed Bureau of Space Commerce instead.  It requires implementing legislation.  The 115th Congress considered such legislation, but it did not pass.
  • Space Policy Directive-3, June 18, 2018, establishes agency roles and responsibilities for space situational awareness and space traffic management.  It designates DOC as the civil government agency to interface with the civil, commercial and international sectors on space situational awareness (SSA) and space traffic management (STM).  Implementing legislation did not clear the 115th Congress.
  • Space Policy Directive-4, February 14, 2019, proposing establishment of a U.S. Space Force as part of the U.S. Air Force.

President Barack Obama issued the 2010 National Space Policy,and a National Space Transportation Policy and associated fact sheet on November 21, 2013 that updated a Bush policy.  Bush issued a policy for commercial remote sensing satelites in 2003.

For information on laws that affect commercial space policy, including the 2015 Commercial Space Launch Competitiveness Act, see our Space Law section.

NASA’S COMMERCIAL CARGO (COTS) AND COMMERCIAL CREW PROGRAMS

NASA is engaging in the most visible examples of public-private partnerships in the space arena.  Although they are referred to as “commercial,” the government has provided the largest share of money for development of the systems and a guaranteed market for a certain number of launches.

It began with the Commercial Orbital Transportation Services (COTS) or “commercial cargo” program to develop systems to take cargo to the International Space Station (ISS), followed by the companion “commercial crew”program to ferry astronauts back and forth.  The impetus for both was a decision by President George W. Bush in 2004 to terminate the space shuttle program as soon as construction of the ISS was completed.  That meant NASA needed to find another way to take crews and cargo to and from ISS for the duration of its operational life.  The shuttle program ended in 2011.  The first commercial cargo flights began in 2012.  The commercial crew systems are still in development.  NASA must rely on Russia to take crews to and from ISS until those commercial crew systems are operational.

Commercial Cargo

NASA initiated the Commercial Orbital Transportation Services (COTS) program in 2006 for the private sector to develop spacecraft and rockets to take cargo to the ISS in partnership with the government.  NASA wanted to ensure competition, so signed Space Act Agreements (SAAs) with two companies, SpaceX and Rocketplane Kistler, to begin operational service to the ISS beginning in 2011.  Rocketplane Kistler did not meet its required milestones and NASA terminated that agreement in 2007.  NASA signed an SAA with Orbital Sciences Corp. (OSC)  in 2008 to replace Rocketplane Kistler.

OSC merged with ATK in 2015 and became Orbital ATK (OA).  OA was acquired by Northrop Grumman in 2018 and is now Northrop Grumman Innovation Systems ((NGIS).

The 2011 date slipped to 2012 (SpaceX) and 2013 (OSC/OA/NGIS), but both systems are now operational and the COTS program, which covered development of the systems, has ended.  NASA held a press conference in November 2013 heralding its success and later released a report.

NASA now purchases cargo services from SpaceX and OSC/OA/NGIS under Commercial Resupply Services (CRS) contracts.  NASA initially signed contracts with each company to launch 20 tons of cargo to the ISS through the end of 2016.  Contracts with both companies were later extended adding more flights to cover through 2018 and a new round of CRS-2 contracts were awarded in 2016 for later years.  In that round, a third company, Sierra Nevada Corporation (SNC), was added.

SpaceX launches its Dragon cargo spacecraft on Falcon 9 rockets from the Air Force’s Space Launch Complex 40 (SLC-40) at Cape Canaveral, FL and NASA’s Launch Complex 39A (LC-39A) at NASA’s adjacent Kennedy Space Center.  SpaceX leases those facilities from the government.  Dragon spacecraft return to Earth and splash down in the Pacific Ocean off of California.  It is the only cargo spacecraft that services ISS capable of returning cargo to Earth.  All the others — Russia’s Progress, Europe’s ATV (now discontinued), Japan’s HTV and NGIS’s Cygnus — are not designed to survive reentry. They burn up in the atmosphere and therefore are used for trash disposal – a less glamorous, but still critical task — and may also be used for experiments between the time they depart the ISS and reenter, which can be hours, days or weeks depending on the mission.

SpaceX conducted a test flight to ISS in May 2012. The first SpaceX operational cargo flight took place in October 2012 and five more were successfully conducted through the spring of 2015.  The seventh flight, however, failed 139 seconds after launch. The Falcon 9/Dragon combination returned to flight in April 2016 with the SpaceX CRS-8 (SpX-8) mission.  The flights continue on a regular schedule, although it was disrupted by an explosion at SLC-40 on September 1, 2016 that destroyed a Falcon 9 rocket and a commercial communications satellites (Amos-6) during a pre-launch test.  No one was hurt, but SLC-40 was badly damaged.

OSC/OA/NGIS typically uses its Antares rocket to launch its Cygnus cargo spacecraft to ISS from the Mid-Atlantic Regional Spaceport (MARS) at Wallops Island, VA.   MARS is located at NASA’s Wallops Flight Facility, but MARS itself is owned by the Commonwealth of Virginia and operated by the Virginia Commonwealth Space Flight Authority.

OSC/OA/NGIS conducted a test flight of Antares/Cygnus to the ISS in October 2013.  The first operational flight (Orb-1) was launched in January 2014 and Orb-2 in July 2014.   On October 28, 2014, the third mission, Orb-3, failed 15 seconds after liftoff, destroying the rocket and Cygnus, and damaging the MARS facility and surrounding area.  A recovery plan was quickly announced  under which it  consolidated its remaining cargo requirements into four rather than five more launches using an upgraded version of Cygnus that can accommodate more cargo per flight.  The failure was traced to the engine, a Russian NK-33 built four decades earlier, refurbished by Aerojet and redesignated AJ-26.  The company decided to replace the NK-33/AJ26 engines entirely and use new Russian RD-181 engines for Antares instead.  While waiting for the retrofit, it purchased launch services from the United Launch Alliance (ULA) for Atlas V launches of Cygnus to meet its contractual commitments to NASA.  Antares returned to service from Wallops in October 2016, but the company can use either Antares or Atlas V for future flights.

NASA awarded a second round of commercial cargo launches (CRS-2) in January 2016.  SpaceX and OSC/OA/NGIS each won a minimum of six launches each and Sierra Nevada Corporation (SNC) was also awarded a minimum of six launches using an automated version of its Dream Chaser spacecraft.  Dream Chaser resembles a small space shuttle and SNC competed for the commercial crew program, but did not win. It still hopes to take astronauts to and from space in the future, but for now is focusing on cargo.  It will use ULA’s Atlas V rocket for launches.

Commercial Crew

President Obama proposed a dramatic change to the U.S. human spaceflight program in his FY2011 budget request to Congress, released on February 1, 2010.  He proposed relying on the commercial sector instead of NASA to build and operate systems to take people to and from low Earth orbit (LEO).  That includes taking NASA astronauts to and from the ISS.   He requested $6 billion over 5 years (FY2011-2015) in NASA’s budget to subsidize companies to develop “commercial crew” launch vehicles and spacecraft for LEO missions.

He also proposed cancelling the Constellation program, begun under President George W. Bush, for NASA to build new launch vehicles (Ares I and V) and a spacecraft (Orion) to take astronauts back to the Moon and on to Mars, as well as to and from ISS.   Instead, President Obama proposed that the United States rely on the commercial sector to build new crew space transportation systems for use in LEO, which would free NASA to focus on developing technologies that could someday be used to take astronauts to more challenging destinations beyond LEO.   He wanted NASA to spend several years investing in “game-changing” technologies before deciding on what systems to build.

The lack of a specific destination and timetable for these “beyond-LEO” human spaceflight missions made his proposal especially unpopular and on April 15, 2010, he elaborated on his plans in a speech at NASA’s Kennedy Space Center in Florida.  At that time he made clear that he saw no need for U.S. astronauts to return to the Moon, but landing people on Mars remained the eventual goal, and he said he expected that to happen in his lifetime.  Meanwhile, he wanted NASA to focus on sending astronauts to an asteroid by 2025 as his initial beyond-LEO destination, and send them to orbit (but not land on) Mars in the 2030s.

Congressional Reaction.  The proposal was very controversial and vigorously debated in Congress. The 2010 NASA Authorization Act (P.L. 111-267), signed into law in October 2010, is a compromise wherein NASA is directed to develop its own crew space transportation system — the Space Launch System (SLS) and a Multi-Purpose Crew Vehicle (MPCV) — as well as fund the commercial crew concept.  The law requires that the SLS/MPCV system also be able to function as a backup for commercial crew in case those systems do not materialize or if they fail.  NASA selected the Orion spacecraft that was being developed in the Constellation program as the MPCV, so the system now is usually referred to as SLS/Orion.

President Obama’s FY2012 budget request for NASA, released in February 2011, was similarly controversial because the congressional committees that oversee NASA believed that it contravened the compromise reached in the 2010 NASA Authorization Act.  NASA requested more money than was authorized in the 2010 Act for commercial crew and less than was authorized for SLS/MPCV.   The tense relationship between Congress and the Obama Administration lasted for several years, wherein Congress made clear that SLS/Orion was the priority, not commercial crew, adding money for SLS/Orion and not providing as much as requested for commercial crew program.  For FY2011, FY2012, and FY2013, Congress provided sharply less funding than the Administration requested.   The request for FY2013 was $830 million, for example, but Congress approved only $525 million.   The request for FY2014 was $821 million and Congress approved $696 million. Though it was $125 million less than the request, it was more than the agency received in the past and the percentage cut was less, leaving many commercial crew advocates happy with the result.  The request for FY2015 was $848 million and in a sign of continued thawing of relationships, Congress approved $805 million. The request for FY2016 was $1.244 billion and Congress appropriated that amount.  FY2016 was the peak funding year for commercial crew and for FY2017, the request of $1.185 billion began the downward trajectory.  Congress approved that amount.

With the termination of the space shuttle program in 2011, NASA cannot launch astronauts to the ISS until the commercial crew systems are operational.  How long this “gap” between the end of the shuttle program and the availability of commercial crew services will last is unclear. The date for when the U.S. commercial crew systems will be operational keeps slipping from the original 2015 estimate.  At the moment, the companies say it will happen in 2019, but others think early 2020 is more likely. Until then, NASA will continue to purchase crew transportation services from Russia at a cost of approximately $82 million per seat.  Once the U.S. systems are operational, NASA intends to continue launching astronauts on Soyuz, and Russia will launch cosmonauts on the U.S. systems, to ensure all are trained to fly on all the vehicles. That is supposed to take place with no exchange of funds.

Evolution of the Commercial Crew Program.  NASA initially awarded contracts to five companies for Crew Transportation Concepts and Technology Demonstration, or CCDEV (commercial crew development) in February 2010: Blue Origin, Boeing, Paragon Space Development Corp., Sierra Nevada Corp., and United Launch Alliance.  Another round of winners of the CCDEV2 competition were announced in April 2011: Blue Origin, Boeing, Sierra Nevada, and SpaceX.   Those contracts were awarded as Space Act Agreements (SAAs) where NASA can pay companies for meeting agreed-upon milestones, but has less oversight or insight into what the companies are doing compared with traditional contracts.  NASA planned to adopt traditional procurement methods under the Federal Acquisition Regulations (FAR) for the next phase of commercial crew development — specifically, fixed price contracts — but changed course in December 2011 because of budget uncertainties in future years that it concluded made fixed price contracts unrealistic at that time.

The CCDEV program transitioned into the Commercial Crew Integrated Capability (CCiCAP) program for the commercial companies to develop an integrated crew transportation system (spacecraft, launch vehicle, and ground systems).  In August 2012, NASA selected “2 1/2” proposals, meaning it fully funded two companies (SpaceX and Boeing) and partially funded a third (Sierra Nevada Corporation, or SNC).  SpaceX will use its Falcon 9 rocket for commercial crew as it does for the commercial cargo program and a crew-capable version of its Dragon capsule dubbed “Crew Dragon.”  Boeing is developing a capsule also, called CST-100 Starliner.  SNC’s design, Dream Chaser, is a winged vehicle that resembles a small version of the space shuttle and, in fact, is based on a NASA design (HL-20) for an ISS crew rescue vehicle that the agency cancelled in the 1990s.

On September 16, 2014, NASA made awards under the final phase of the commercial crew development program, Commercial Crew Transportation Capability (CCtCAP).  It chose Boeing and SpaceX, with Boeing receiving $4.2 billion and SpaceX receiving $2.6 billion.  Sierra Nevada filed a protest of the awards on September 26 with the Government Accountability Office (GAO) saying there were “serious questions and inconsistencies in the procurement process.”  Consequently, NASA issued a stop-work order to Boeing and SpaceX for the CCtCAP contracts, but later rescinded it.  Sierra Nevada filed a lawsuit against the government for that decision, but a judge verbally indicated that she would not overturn it.  GAO denied Sierra Nevada’s protest.  As described above, SNC currently is focusing on providing cargo services and won an award under the CRS-2 contract.

SpaceX and Boeing have continued to develop their systems, Crew Dragon/Falcon 9 and CST-100 Starliner/Atlas V respectively.  Each is required to fly an uncrewed test flight followed by a crewed test flight before NASA will certify them for operational use.  SpaceX successfully conducted its uncrewed test flight, Demo-1, in March 2019.  The other SpaceX and Boeing test flights are expected in 2019 or early 2020.

Are Commercial Crew and Commercial Cargo Really Commercial?

Two important points are that commercial cargo was a Bush Administration initiative and well underway by the time President Obama took office, and that although the names “commercial cargo” and “commercial crew” imply that the systems are being built at the expense of the private sector, the companies are supported by taxpayer dollars.   NASA spent about $800 million on the COTS commercial cargo program for system development (services are paid for separately).   The commercial crew CCtCAP awards are for a total of $6.8 billion of taxpayer money.  How much the companies themselves are investing is proprietary information, but at a September 2012 congressional hearing, NASA Associate Administrator for Human Exploration and Operations Bill Gerstenmaier conceded that the government is paying 80-90 percent of the costs for the development of the “commercial” crew systems.

The government is the major customer for the services the companies offer, providing more funds.  Thus it is more accurate to refer to these as public-private partnerships than “commercial” activities.

OTHER COMMERCIAL SUBORBITAL AND ORBITAL VEHICLES, ROCKET ENGINES

Suborbital flights that do not go into orbit around Earth, but fly in a high arc and provide several minutes of microgravity on the return to Earth, also are of interest. They are commonly used not only in the United States, but in many other places around the world for experiments that need minutes, but not hours or days, of microgravity. Traditionally, government agencies are the providers of these services and also are users along with academic institutions and others.

Several U.S. companies have now become interested in providing suborbital launches for sending people into space on a commercial basis. There is no legal definition of where air ends and space begins, but the Federation Aeronautique Internationale (FAI), which certifies air records, uses 100 kilometers as that boundary. In 2004, Burt Rutan’s Scaled Composites won the Ansari X-Prize award for using its SpaceShipOne (SS1) to send a pilot over that threshold and back to Earth twice within 14 days (different pilots flew the craft each time).

Richard Branson’s Virgin Group created a company, Virgin Galactic, to take anyone with the requisite funds (approximately $250,000) on such suborbital flights using SpaceShipTwo (SS2), a derivative of SS1, which is still in development.  The plan had been to build five SS2 vehicles.  During a test flight on October 31, 2014, the only existing SS2 vehicle was destroyed in an accident that killed co-pilot Michael Alsbury and seriously injured pilot Peter Siebold.  The National Transportation Safety Board (NTSB) investigated the accident, concluding it was co-pilot error, but criticizing the spacecraft’s design that made such an error possible.  Scaled Composites, which is now part of Northrop Grumman, was in charge of building SS2 and the two pilots were Scaled employees.

Virgin Galactic took over construction of the vehicle from Scaled and a second SS2 craft is now being tested, but the date for when customers will get their chance to fly has slipped repeatedly.  The company achieved a milestone in December 2018 when two pilots flew SpaceShipTwo above 50 miles (80 kilometers), which some consider the dividing line between air and space rather than 100 km.

Blue Origin, owned by Amazon.com billionaire Jeff Bezos, is developing a reusable, suborbital rocket, New Shepard.  Demonstrating reusability is key to the company’s business plan and the same vehicle has now made a number of test flights.  No one has been aboard the test flights, but the plan is to launch people on short suborbital flights beginning perhaps in 2019.

Stratolaunch was an air-launched concept announced in December 2011 by Microsoft co-founder Paul Allen, SpaceX founder Elon Musk, and Burt Rutan, who is now retired from Scaled Composites, but was a major contributor to the SpaceShipOne effort.  Stratolaunch rolled out its enormous aircraft–described as the largest in the world–for public viewing for the first time in 2017.  Like other air-launched space transportation systems (e.g. Pegasus, SpaceShipOne, SpaceShipTwo, LauncherOne), the aircraft was intended to fly to a high altitude and  release the spacecraft, which would have its own propulsion system to continue its journey to space.  The company’s plans changed following Allen’s death in 2018, however,  and it no longer plans to develop its own launch vehicle.

Orbital launches are much more difficult than suborbital flight, but a number of entrepreneurial companies are also attempting to develop such systems.  In October 2014 NASA’s Launch Services Program awarded contracts for “Venture Class” launch services to place very small satellites (cubesats, microsats, and nanosatellites) in orbit.  The three awardees are Firefly Space Systems, Rocket Lab USA, and Virgin Galactic, which is developing the Launcher One air-launched rocket in addition to SpaceShipTwo.  Firefly filed for Chapter 7 bankruptcy in April 2017, but appears to be making a comeback.  Rocket Lab USA has conducted a number of launches already from its launch complex in New Zealand and is building a second launch complex at Wallops Island, VA.  Virgin’s Launcher One conducted a successful drop test in July 2019 in preparation for its first operational flight, though that date has not been announced.

Blue Origin is planning rockets much larger than the suborbital New Shepard.  New Glenn is being designed for Earth orbiting missions and New Armstrong to send payloads to the Moon.  Blue Origin also is building rocket engines using a different type of fuel (liquid natural gas, or methane) than traditionally used.  Called BE-4, it has been selected by the United Launch Alliance for its new rocket, Vulcan, which will replace the Atlas V in the early 2020s.  Bezos also is proposing to build a lunar lander, Blue Moon, in partnership with NASA to deliver experiments, equipment or habitats in support of future lunar exploration.

SpaceX founder Elon Musk is well known for his interest in creating a “multi-planet species” by sending a million people to inhabit Mars as a “backup plan” in case Earth is destroyed by natural or human-caused events.  He now also is interested in missions to the Moon. In March 2017, he announced he would send two people around the Moon in 2018 in a Dragon capsule launched by his Falcon Heavy rocket.  The Falcon Heavy made its first flight on February 6, 2018, but the day before Musk announced that he had decided against human-rating the Falcon Heavy and instead will focus on using his next rocket, the Big Falcon Rocket (BFR), for human spaceflight.  In September 2018, he announced that a Japanese billionaire, Yusaku Maezawa, has purchased the first BFR flight around the Moon, planned for 2023.  BFR is a two-stage vehicle and Musk has renamed the first stage “Super Heavy” and the second stage, which will carry the crew, “Starship.” Musk is conducting tests of the Raptor engine that will be used for Super Heavy and Starship at his Boca Chica, TX site near Brownsville.

OTHER COMMERCIAL SPACE CONCEPTS

Habitats and Modules.  Robert Bigelow, owner of Budget Suites of America hotels, has been working for several years on a commercial space station using expandable modules (often referred to as “inflatable,” but the correct term is expandable).  Two subscale prototypes —Genesis I and Genesis II — were launched on Russian rockets in 2006 and 2007 respectively.   Bigelow Aerospace has been working with Boeing for several years to create a transportation system to take people back and forth to full scale space stations when they are launched.  The Boeing spacecraft is the CST-100, which is now part of NASA’s commercial crew program (and renamed Starliner).  It would be launched aboard an Atlas V launch vehicle.  In May 2012, Bigelow Aerospace announced an agreement with SpaceX to market their combined capabilities to launch people to space where they could stay aboard Bigelow space stations.  The services will be marketed only outside the United States.  In January 2013, NASA signed a $17.8 million contract with Bigelow Aerospace to add one of Bigelow’s modules to the International Space Station (ISS). The Bigelow Expandable Activities Module (BEAM) was launched to the ISS in 2016 on the SpaceX CRS-8 (SpX-8) flight and expanded in May 2016.  Bigelow’s structures trace their roots to NASA’s cancelled Transhab project, which was intended to provide crew quarters on the ISS using such a module.  BEAM is a small prototype and Bigelow wants NASA to attach a full size B330 module to the ISS in 2020, a concept he calls XBASE.

NASA opened a Broad Agency Announcement (BAA) for the NEXT Space Technologies for Exploration Partnerships-2 (NEXTStep-2) program in 2016 to solicit ideas for space habitats.  Six companies were selected in August 2016:  Bigelow, Boeing, Lockheed Martin, Orbital ATK, Sierra Nevada, and Nanoracks.  Nanoracks is best known for arranging transportation for very small satellites (cubesats) to be delivered to the International Space Station for deployment into orbit.  Its participation in this initiative is a new step for the company and it teamed with Space Systems Loral (now part of Maxar Technologies) and ULA to create the Ixiom concept.   ULA’s Atlas V rocket uses an upper stage named Centaur.  Ixiom would convert Centaur upper stages into habitats.  America’s first space station, Skylab, was a converted upper stage for the Saturn V rocket, although it was never used as an upper stage.  It was modified into a space station before launch.  (The Ixiom concept should not be confused with Axiom Space, a company led by former ISS program manager Mike Suffredini that also is endeavoring to build commercial space stations.)

Robotic Lunar Landers.  NASA awarded Indefinite Delivery Indefinite Quantity (IDIQ) contracts to nine companies in 2018 to deliver NASA payloads to the lunar surface on very small lunar landers.  This Commercial Lunar Payload Services (CLPS) program is another public-private partnership where NASA will buy services from the companies, but they must develop and launch the landers on their own.  It is part of NASA’s human exploration program to return humans to the Moon and eventually go to Mars.  The first three task orders were awarded to Astrobotic, Intuitive Machines, and Orbit Beyond in June 2019, but Orbit Beyond withdrew shortly thereafter.  The other two companies are aiming to launch in mid-2021.

Asteroid Mining and Other Unsuccessful Ventures.  Two U.S. companies were pursuing asteroid mining, but neither is active in that business now.  Planetary Resources Inc. announced plans in April 2012 to mine asteroids with the backing of billionaires including movie producer and explorer James Cameron, Google executives Larry Page and Eric Schmidt, former Microsoft executive Charles Simonyi who flew into space twice as a space tourist on Russian Soyuz spacecraft, and space entrepreneurs Peter Diamandis and Eric Anderson. Later, however, the company emphasized that it wanted to prospect, not mine, asteroids, and later said it would focus on plans for earth orbiting satellites to study Earth.  Ultimately, the company folded and was acquired by blockchain company ConsenSys in October 2018.

Deep Space Industries (DSI) announced its plans in January 2013.  In June 2016, DSI announced that it would stake an initial 200 million Euros to become the “Silicon Valley” of space resource utilization.  However, in May 2018, the Commercial Spaceflight Federation announced that DSI was a new associate member and described it as a space transportation company offering access to deep space, not asteroid mining.  On January 2, 2019, it was acquired by Bradford Space Systems, a European company, to produce a water-based electrothermal propulsion system called Comet.

Although the companies failed in their asteroid mining pursuits, they did stimulate a policy debate about ownership of space resources.  In November 2015, President Obama signed into law the Commercial Space Launch Competitiveness Act (CSLCA), P.L. 114-90, which allows U.S. companies to claim property rights to resources mined from asteroids.  The U.S. law has not been universally embraced by other countries.  Russia, for example, claims that it violates Article II of the Outer Space Treaty.

Other unsuccessful entrepreneurial space ventures include XCOR, which was planning to send tourists into space, but went bankrupt.  A December 30, 2018 story in the Los Angeles Times reports that individuals paid as much as $100,000 for tickets and now are struggling to get their money back. Another failure was Golden Spike. In December 2012, Alan Stern, a space scientist and human spaceflight advocate, announced the company would sell human trips to the Moon. Stern is a former NASA Associate Administrator for Science.  He and a number of other former NASA officials, including Gerry Griffin, an Apollo flight director who later was the Director of NASA’s Johnson Space Center, along with former House speaker Newt Gingrich, entrepreneur Esther Dyson, and former Governor of New Mexico Bill Richardson were backers of the project.   The group provided few details of the project at a press conference at the National Press Club on December 6, 2012, such as what rockets or spacecraft would be used.  The cost was to be $1.4 billion per mission, which would take two people to the lunar surface and back. By May 2016, the company’s website was no longer active.

Dennis Tito, another billionaire, who was the first “tourist” to fly to the International Space Station on a Russian spacecraft in 2001, formed another venture called Inspiration Mars. His initial proposal was to send two people, preferably a married couple, to Mars in 2018.  They would not land on the planet, but fly on a free-return trajectory where, once launched from Earth, few maneuvers (and therefore fuel) are needed to get them to and around Mars and return to Earth.  Their closest approach to the Martian surface would be 100 miles.  The year 2018 was important because Mars and Earth are correctly aligned only every 26 months to permit spacecraft to make the journey.  Some opportunities are better than others in terms of the amount of propellant needed; 2018 was one of the best.  In November 2013, however, Tito testified to Congress and revealed that he now wanted this to be primarily a NASA mission.  NASA replied that it was “unable to commit to sharing expenses” with him.  The idea nevertheless evolved into a “Mars Flyby 2021” concept championed for several years by House Science, Space and Technology Committee Chairman Lamar Smith (R-TX) that would be a NASA mission.  Launching in 2021, it would have first flown towards Venus to get a gravity assist from that planet to reach Mars since the Earth and Mars are not aligned properly for a direct flight that year. Rep. Smith retired at the end of the 115th Congress.

The number of entrepreneurial companies planning suborbital or orbital near Earth or further out in space is continually changing.   It is not feasible to keep this summary up to date, so it should not be considered exhaustive.

U.S. AEROSPACE COMPANIES

Hundreds of companies are involved in the aerospace sector, even when looking only at the “space” part of the business and not aircraft. The following list is not meant to be exhaustive, but to provide links to some of the companies that are most often referenced in discussions about space policy.  The list of entrepreneurial companies is especially subject to change as new companies enter the business or existing ones merge with other companies or fail.

The “big three” U.S. aerospace companies are:

In addition, Boeing and Lockheed Martin co-own

Other major U.S. aerospace companies that manufacture spacecraft, instruments and/or launch vehicles and/or provide launch services include:

Major U.S. companies that sell space-related products or services include:

Entrepreneurial companies:

MAJOR NON-U.S. AEROSPACE COMPANIES

There also are hundreds of non-U.S. companies in the aerospace sector. The following list is not meant to be exhaustive, but to provide links to companies that are most often referenced in discussions about space policy.


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