Comparison of crewed space vehicles

Last updated

A number of different spacecraft have been used to carry people to and from outer space.

Contents

Table code key

Spacecraft under development
Spacecraft is operational
Retired spacecraft
Payload To / From the ISS
§Crewed (Uncrewed)
[Includes failures]

Orbital and interplanetary space vehicles

SpacecraftOriginManufacturerRangeLaunch systemCrew sizeLength (m)Diameter (m)Launch mass (kg)Power systemRecovery methodPayload (kg) First spaceflight §Last spaceflightFlights §
Mercury Flag of the United States.svg  USA McDonnell Aircraft
North American Aviation
LEO
attained
Redstone MRLV
Atlas LV-3B
13.341.891,400BatteriesParachute splashdown (one drogue, one main)1961 (1960)19636
(12) [note 1]
Gemini Flag of the United States.svg  USA McDonnell Aircraft
Martin
LEO Titan II GLV
Titan IIIC [note 2]
25.563.053,790Fuel cellsParachute splashdown (one drogue, one main)1965 (1964)196610
(2) [note 3]
Apollo Flag of the United States.svg  USA North American Aviation
Grumman and Douglas
Lunar Saturn IB
Saturn V
38.53.91Fuel cellsParachute splashdown (two drogues, three pilots, three mains)1967 (1966)197515
(4) [note 3]
Space Shuttle orbiter Flag of the United States.svg  USA Rockwell International LEO Space Shuttle 8 [note 4] 37.244.8 [note 5] 109,000Fuel cells Runway landing (with one pilot and one drogue chute from mid-1990s)12,500/16,00019812011135 [note 6]
Soyuz 7K-T Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Soyuz
Soyuz-U
27.482.726,830BatteriesParachute landing1973198126 (4) [note 7]
Voskhod Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Voskhod 3 [note 8] 52.45,682BatteriesParachute landing1964 (1964)19652 (3)
Vostok Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO
first
Vostok-K 14.42.434,725BatteriesParachute landing1961 (1960)19636 (7) [note 9]
Soyuz 7K-OK Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Soyuz 37.482.726,560Solar panelsParachute landing1967 (1966)19708 (8) [note 10]
Soyuz 7KT-OK Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Soyuz 37.482.726,790Solar panelsParachute landing197119712 [note 11]
Soyuz 7K-T-AF Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Soyuz 27.482.726,570Solar panelsParachute landing197319731
Soyuz 7K-TM Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Soyuz-U 27.482.726,570Solar panelsParachute landing197419752 (2)
Soyuz 7K-MF6 Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Soyuz-U 27.482.726,510Solar panelsParachute landing197619761
Soyuz-T Flag of the Soviet Union.svg  Soviet Union OKB-1 LEO Soyuz-U
Soyuz-U2
37.482.726,850Solar panelsParachute landing1978198615 (6) [note 12]
Soyuz-TM Flag of the Soviet Union.svg  Soviet Union
Flag of Russia.svg  Russia
RKK Energia LEO Soyuz-U2
Soyuz-U
37.482.727,250Solar panelsParachute landing1986200233 (1)
Buran Flag of the Soviet Union.svg  Soviet Union RKK Energia LEO Energia 1036.374.65 [note 13] 105,000Fuel cellsRunway landing with three drogue chutes30,000 [note 14] N/A (1988)(1988)0 (1)
Soyuz-TMA
11F732
Flag of Russia.svg  Russia RKK Energia LEO Soyuz-FG 37.482.727,250Solar panelsParachute landing with retrorockets2002201222
Soyuz TMA-M
11F747
Flag of Russia.svg  Russia RKK Energia LEO Soyuz-FG 37.482.727,150Solar panelsParachute landing with retrorockets2010201619
Shenzhou Flag of the People's Republic of China.svg  China China Academy of Space Technology LEO Chang Zheng 2F 39.252.807,840Solar panelsParachute landing2003 (1999)Active12 (5)
Soyuz MS
Flag of Russia.svg  Russia RKK Energia LEO Soyuz-2.1a 37.482.727,080Solar panelsParachute landing with retrorockets 2016Active22 (2)
Crew Dragon Flag of the United States.svg  USA SpaceX LEO Falcon 9 4 [1] 8.1 [2] 3.7 [3] 12,055 [4] Solar PanelsParachute splashdown (two drogues, four mains), propulsive landing or splashdown for emergencies [5] 3,307/2,5072020 (2019)Active11 (1)
CST-100 Starliner Flag of the United States.svg  USA Boeing LEO Atlas V 7 [note 15] [6] 5.03 [7] 4.56 [7] 13,000Solar panelsParachute landing (two forward cover chutes, two drogues, three pilots and three mains) with airbags2024 (2019)Active1 (2)
Orion Flag of the United States.svg  USA Lockheed Martin
Astrium
Lunar, Mars Space Launch System 4 [note 16] 3.35Solar panelsParachute splashdown (two drogues, three pilots and three mains)2025 (2014)Testing0(2) [note 17]
Mengzhou Flag of the People's Republic of China.svg  China China Aerospace Science and Technology Corporation LEO, Lunar Long March 10 78.84.521,600Solar panels2026 (2020)Testing0
(1)
Gaganyaan Flag of India.svg  India Indian Space Research Organization LEO GSLV Mk III 373.57,800Solar PanelsParachute splashdown (with drogues and mains)(Planned: 2024)Planned0
Starship Flag of the United States.svg  USA SpaceX Solar System [8] [note 18] Starship 100 [note 19] 55 [8] 9 [8] [note 20] 1,335,000 [8] Solar PanelsPropulsive landing (caught by mechanical arms on the launch tower when landing on launch site)Testing0
Orel
Flag of Russia.svg  Russia RKK Energia LEO,Lunar Irtysh (rocket)
Angara A5
66.137,478Solar panels(Planned: 2028)Planned0
Dream Chaser Flag of the United States.svg  USA Sierra Nevada Corporation LEO Vulcan Centaur 7 [9] [10] 9 [11] 7 [note 21] 11,300 [12] Solar panelsRunway landingTBAPlanned0
Biconic Space VehicleFlag of the United States.svg  USA Blue Origin LEO New Glenn 7987TBAPlanned0
Nyx Flag of Germany.svg  Germany Flag of France.svg  France The Exploration Company LEO,Lunar Ariane 6 or Falcon 948,000Solar panels4,000 LEO, 2,000 LunarTBAPlanned0


Suborbital space vehicles

SpacecraftOriginManufacturerAltitudeLaunch systemCrew sizeLength (m)Diameter (m)Launch mass (kg)Power systemGenerated power (W)Recovery methodFirst spaceflight §Last spaceflightFlights §
SpaceShipOne Flag of the United States.svg  USA Scaled Composites 112 km
X Prize
White Knight
Hybrid Motor
18.538.053,600BatteriesRunway landing200420043 [note 22]
X-15 Flag of the United States.svg  USA North American Aviation 108 km
altitude
B-52
Ammonia-LOX
115.456.815,420Two 28 volt-300 amp DC generatorsRunway landing1963 [note 23] 19632 [note 24]
SpaceShipTwo Flag of the United States.svg  USA Virgin Galactic 90 km White Knight Two
RocketMotorTwo
8 [note 25] 18.38.39,740BatteriesRunway landingDecember 13, 20182 [note 26]
New Shepard Flag of the United States.svg  USA Blue Origin 119 km New Shepard
BE-3
6183.775,000 [note 27] BatteriesParachute landing (three drogues, three mains)2021
(2015)
6 (17)
Spica Rocket Flag of Denmark.svg  Denmark Copenhagen Suborbitals 105 km BPM100 11314,100BatteriesParachute splashdown2025Early Development0
SpaceShip III Flag of the United States.svg  USA Virgin Galactic Approximately 90 km White Knight Two 8 [note 28] 18.38.39,740BatteriesRunway landingUnknownUndergoing initial ground testing0 [note 29]

Footnotes

  1. Including 2 suborbital flights, not including boilerplate tests
  2. One uncrewed launch on Titan IIIC ahead of proposed use in MOL programme
  3. 1 2 Not including boilerplate tests
  4. No missions carried more than eight astronauts, although higher crew sizes were theoretically possible, for example recovering the crew of a stranded orbiter.
  5. Wingspan 23.79m
  6. Includes two fatal accidents; STS-51-L disintegrated during ascent, STS-107 damaged during ascent, disintegrated during reentry.
  7. Crewed flights include one launch failure - abort during third stage flight, recovered after suborbital flight
  8. Able to carry three cosmonauts without spacesuits, or two with spacesuits; both combinations flown
  9. Uncrewed flight count includes two launch failures
  10. Crewed flights include one fatal in-flight failure; Soyuz 1 lost due to parachute failure upon landing.
  11. Crewed flights include one fatal in-flight failure; Soyuz 11 depressurised during reentry.
  12. Crewed flights include one launch failure (SAS (launch escape system) used ~70 seconds before planned liftoff due to fire on launch pad - crew survived)
  13. Wingspan 23.92m
  14. planned payload, never used
  15. Each mission in the Commercial Crew Program will send up to four astronauts to the ISS
  16. Originally set to launch up to 6 astronauts, when designed for transportation of crew to the ISS under the Constellation Program
  17. Including uncrewed test in 2014
  18. Designed to land almost everywhere in the solar system
  19. Number of seats will be lower on early missions
  20. Plus delta wings
  21. Including wings
  22. Does not include crewed atmospheric flights
  23. Does not include only-U.S.-recognized spaceflights
  24. Does not include atmospheric flights, or missions considered spaceflights by the US definition but not the FAI's definition
  25. 2 crew + 6 passengers
  26. Does not include crewed atmospheric flights
  27. todate only 45,000
  28. 2 crew + 6 passengers
  29. Does not include crewed atmospheric flights

See also

Related Research Articles

<span class="mw-page-title-main">Human spaceflight</span> Spaceflight with a crew or passengers

Human spaceflight is spaceflight with a crew or passengers aboard a spacecraft, often with the spacecraft being operated directly by the onboard human crew. Spacecraft can also be remotely operated from ground stations on Earth, or autonomously, without any direct human involvement. People trained for spaceflight are called astronauts, cosmonauts (Russian), or taikonauts (Chinese); and non-professionals are referred to as spaceflight participants or spacefarers.

<span class="mw-page-title-main">Project Mercury</span> Initial American crewed spaceflight program (1958–1963)

Project Mercury was the first human spaceflight program of the United States, running from 1958 through 1963. An early highlight of the Space Race, its goal was to put a man into Earth orbit and return him safely, ideally before the Soviet Union. Taken over from the US Air Force by the newly created civilian space agency NASA, it conducted 20 uncrewed developmental flights, and six successful flights by astronauts. The program, which took its name from Roman mythology, cost $2.68 billion. The astronauts were collectively known as the "Mercury Seven", and each spacecraft was given a name ending with a "7" by its pilot.

<span class="mw-page-title-main">Spacecraft</span> Vehicle or machine designed to fly in space

A spacecraft is a vehicle that is designed to fly and operate in outer space. Spacecraft are used for a variety of purposes, including communications, Earth observation, meteorology, navigation, space colonization, planetary exploration, and transportation of humans and cargo. All spacecraft except single-stage-to-orbit vehicles cannot get into space on their own, and require a launch vehicle.

<span class="mw-page-title-main">Shenzhou (spacecraft)</span> Class of crewed spacecraft from China

Shenzhou is a Chinese spacecraft developed for the nation's crewed space program. Its design was based on Russia's Soyuz, but larger and modernized, Shenzhou is a single-use vehicle composed of three modules. The descent module houses the crew during launch and reentry. The orbital module provides additional living space and storage during orbit but is jettisoned before reentry. The service module, responsible for propulsion and power, is also discarded prior to reentry. For added safety and aerodynamics, the spacecraft is encased within a fairing with a launch escape system during liftoff.

<span class="mw-page-title-main">Spaceflight</span> Flight into or through outer space

Spaceflight is an application of astronautics to fly objects, usually spacecraft, into or through outer space, either with or without humans on board. Most spaceflight is uncrewed and conducted mainly with spacecraft such as satellites in orbit around Earth, but also includes space probes for flights beyond Earth orbit. Such spaceflights operate either by telerobotic or autonomous control. The first spaceflights began in the 1950s with the launches of the Soviet Sputnik satellites and American Explorer and Vanguard missions. Human spaceflight programs include the Soyuz, Shenzhou, the past Apollo Moon landing and the Space Shuttle programs. Other current spaceflight are conducted to the International Space Station and to China's Tiangong Space Station.

<span class="mw-page-title-main">Soyuz (spacecraft)</span> Series of spacecraft designed for the Soviet space programme

Soyuz is a series of spacecraft which has been in service since the 1960s, having made more than 140 flights. It was designed for the Soviet space program by the Korolev Design Bureau. The Soyuz succeeded the Voskhod spacecraft and was originally built as part of the Soviet crewed lunar programs. It is launched atop the similarly named Soyuz rocket from the Baikonur Cosmodrome in Kazakhstan.

Human spaceflight programs have been conducted, started, or planned by multiple countries and companies. Until the 21st century, human spaceflight programs were sponsored exclusively by governments, through either the military or civilian space agencies. With the launch of the privately funded SpaceShipOne in 2004, a new category of human spaceflight programs – commercial human spaceflight – arrived. By the end of 2022, three countries and one private company (SpaceX) had successfully launched humans to Earth orbit, and two private companies had launched humans on a suborbital trajectory.

<span class="mw-page-title-main">Space Adventures</span> American space tourism company

Space Adventures, Inc. is an American space tourism company founded in 1998 by Eric C. Anderson. Its offerings include zero-gravity atmospheric flights, orbital spaceflights, and other spaceflight-related experiences including cosmonaut training, spacewalk training, and launch tours. Plans announced thus far include sub-orbital and lunar spaceflights, though these are not being actively pursued at present. Nine of its clients have participated in the orbital spaceflight program with Space Adventures, including one who took two separate trips to space.

<span class="mw-page-title-main">Spaceplane</span> Spacecraft capable of aerodynamic flight in atmosphere

A spaceplane is a vehicle that can fly and glide like an aircraft in Earth's atmosphere and maneuver like a spacecraft in outer space. To do so, spaceplanes must incorporate features of both aircraft and spacecraft. Orbital spaceplanes tend to be more similar to conventional spacecraft, while sub-orbital spaceplanes tend to be more similar to fixed-wing aircraft. All spaceplanes to date have been rocket-powered for takeoff and climb, but have then landed as unpowered gliders.

<span class="mw-page-title-main">Space rendezvous</span> Series of orbital maneuvers

A space rendezvous is a set of orbital maneuvers during which two spacecraft, one of which is often a space station, arrive at the same orbit and approach to a very close distance. Rendezvous requires a precise match of the orbital velocities and position vectors of the two spacecraft, allowing them to remain at a constant distance through orbital station-keeping. Rendezvous may or may not be followed by docking or berthing, procedures which bring the spacecraft into physical contact and create a link between them.

<span class="mw-page-title-main">Space capsule</span> Type of spacecraft

A space capsule is a spacecraft designed to transport cargo, scientific experiments, and/or astronauts to and from space. Capsules are distinguished from other spacecraft by the ability to survive reentry and return a payload to the Earth's surface from orbit or sub-orbit, and are distinguished from other types of recoverable spacecraft by their blunt shape, not having wings and often containing little fuel other than what is necessary for a safe return. Capsule-based crewed spacecraft such as Soyuz or Orion are often supported by a service or adapter module, and sometimes augmented with an extra module for extended space operations. Capsules make up the majority of crewed spacecraft designs, although one crewed spaceplane, the Space Shuttle, has flown in orbit.

<span class="mw-page-title-main">Launch escape system</span> A system to get the crew to safety if a rocket launch fails

A launch escape system (LES) or launch abort system (LAS) is a crew-safety system connected to a space capsule. It is used in the event of a critical emergency to quickly separate the capsule from its launch vehicle in case of an emergency requiring the abort of the launch, such as an impending explosion. The LES is typically controlled by a combination of automatic rocket failure detection, and a manual activation for the crew commander's use. The LES may be used while the launch vehicle is on the launch pad, or during its ascent. Such systems are usually of three types:

<span class="mw-page-title-main">History of spaceflight</span>

Spaceflight began in the 20th century following theoretical and practical breakthroughs by Konstantin Tsiolkovsky, Robert H. Goddard, and Hermann Oberth, each of whom published works proposing rockets as the means for spaceflight. The first successful large-scale rocket programs were initiated in Nazi Germany by Wernher von Braun. The Soviet Union took the lead in the post-war Space Race, launching the first satellite, the first animal, the first human and the first woman into orbit. The United States landed the first men on the Moon in 1969. Through the late 20th century, France, the United Kingdom, Japan, and China were also working on projects to reach space.

<span class="mw-page-title-main">Reusable spacecraft</span> Spacecraft designed for repeated use and reusability

Reusable spacecraft are spacecraft capable of repeated launch, atmospheric reentry, and landing or splashdown. This contrasts with expendable spacecraft which are designed to be discarded after use, although many partially reusable spacecraft discard some kind of expendable module before reentry and recovery.

<span class="mw-page-title-main">Boeing Starliner</span> Class of partially reusable crew capsules

The Boeing Starliner is a spacecraft designed to transport crew to and from the International Space Station (ISS) and other low-Earth-orbit destinations. Developed by Boeing under NASA's Commercial Crew Program (CCP), it consists of a reusable crew capsule and an expendable service module.

<span class="mw-page-title-main">Development of the Commercial Crew Program</span> NASA space program partnership with space companies

Development of the Commercial Crew Program (CCDev) began in the second round of the program, which was rescoped from a smaller technology development program for human spaceflight to a competitive development program that would produce the spacecraft to be used to provide crew transportation services to and from the International Space Station (ISS). To implement the program, NASA awarded a series of competitive fixed-price contracts to private vendors starting in 2011. Operational contracts to fly astronauts were awarded in September 2014 to SpaceX and Boeing, and NASA expected each company to complete development and achieve crew rating in 2017. Each company performed an uncrewed orbital test flight in 2019.

<span class="mw-page-title-main">Crew Dragon In-Flight Abort Test</span> Post-launch abort test of the SpaceX Dragon 2 spacecraft

The Crew Dragon In-Flight Abort Test was a successful test of the SpaceX Dragon 2 abort system, conducted on 19 January 2020. It was the final assessment for the Crew Dragon capsule and Falcon 9 launch system before they would be certified to carry humans into space. Booster B1046.4 and an uncrewed capsule C205 were launched from Launch Complex 39A (LC-39A) on a suborbital trajectory, followed by an in-flight abort of the capsule at max Q and supersonic speed. The test was carried out successfully: the capsule pulled itself away from the booster after launch control commanded the abort, and landed safely.

<span class="mw-page-title-main">Commercial Crew Program</span> NASA human spaceflight program for the International Space Station

The Commercial Crew Program (CCP) provides commercially operated crew transportation service to and from the International Space Station (ISS) under contract to NASA, conducting crew rotations between the expeditions of the International Space Station program. American space manufacturer SpaceX began providing service in 2020, using the Crew Dragon spacecraft, and NASA plans to add Boeing when its Boeing Starliner spacecraft becomes operational no earlier than 2025. NASA has contracted for six operational missions from Boeing and fourteen from SpaceX, ensuring sufficient support for ISS through 2030.

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