Buran programme
Буран Космическая Программа
Buran Kosmicheskaya Programma
The Antonov An-225 Mriya carrying a Buran orbiter in 1989.
Program overview
CountrySoviet Union / Russia
OrganisationRoscosmos (1991–1993)
Purposecrewed orbital flight and reentry
Programme history
First flightOK-GLI Flight 1 (10 November 1985)
Last flightOK-1K1 (15 November 1988)
Launch site(s)Baikonur pad 110/37
Vehicle information
Crewed vehicle(s)Buran-class orbiter
Crew capacity10 cosmonauts
Launch vehicle(s)Energia
Map all coordinates using: OpenStreetMap Download coordinates as: KML GPX (all coordinates) GPX (primary coordinates) GPX (secondary coordinates)

The Buran programme (Russian: Буран, IPA: [bʊˈran], "Snowstorm", "Blizzard"), also known as the "VKK Space Orbiter programme" (Russian: ВКК «Воздушно-Космический Корабль», lit.'Air and Space Ship'),[1] was a Soviet and later Russian reusable spacecraft project that began in 1974 at the Central Aerohydrodynamic Institute in Moscow and was formally suspended in 1993.[2] In addition to being the designation for the whole Soviet/Russian reusable spacecraft project, Buran was also the name given to Orbiter 1K, which completed one uncrewed spaceflight in 1988 and was the only Soviet reusable spacecraft to be launched into space. The Buran-class orbiters used the expendable Energia rocket as a launch vehicle.

The Buran programme was started by the Soviet Union as a response to the United States Space Shuttle program[3] and benefited from extensive espionage undertaken by the KGB of the unclassified US Space Shuttle program,[4] resulting in many superficial and functional similarities between American and Soviet Shuttle designs.[5] Although the Buran class was similar in appearance to NASA's Space Shuttle orbiter, and could similarly operate as a re-entry spaceplane, its final internal and functional design was different. For example, the main engines during launch were on the Energia rocket and were not taken into orbit by the spacecraft. Smaller rocket engines on the craft's body provided propulsion in orbit and de-orbital burns, similar to the Space Shuttle's OMS pods. Unlike the Space Shuttle, Buran had a capability of flying uncrewed missions, as well as performing fully automated landings. The project was the largest and the most expensive in the history of Soviet space exploration.[2]


The Soviet reusable spacecraft programme has its roots in the late 1950s, at the very beginning of the space age. The idea of Soviet reusable space flight is very old, though it was neither continuous nor consistently organized. Before Buran, no project of the programme reached operational status.

The first step toward a reusable Soviet spacecraft was the 1954 Burya, a high-altitude prototype jet aircraft/cruise missile. Several test flights were made before it was cancelled by order of the Central Committee. The Burya had the goal of delivering a nuclear payload, presumably to the United States, and then returning to base. The Burya programme was cancelled by the USSR in favor of a decision to develop ICBMs instead. The next iteration of a reusable spacecraft was the Zvezda design, which also reached a prototype stage. Decades later, another project with the same name would be used as a service module for the International Space Station. After Zvezda, there was a hiatus in reusable projects until Buran.

The Buran orbital vehicle programme was developed in response to the U.S. Space Shuttle program, which raised considerable concerns among the Soviet military and especially Defense Minister Dmitry Ustinov. An authoritative chronicler of the Soviet and later Russian space programme, the academic Boris Chertok, recounts how the programme came into being.[6] According to Chertok, after the U.S. developed its Space Shuttle program, the Soviet military became suspicious that it could be used for military purposes, due to its enormous payload, several times that of previous U.S. launch vehicles. Officially, the Buran orbital vehicle was designed for the delivery to orbit and return to Earth of spacecraft, cosmonauts, and supplies. Both Chertok and Gleb Lozino-Lozinskiy (General Designer and General Director of NPO Molniya) suggest that from the beginning, the programme was military in nature; however, the exact military capabilities, or intended capabilities, of the Buran programme remain classified.

Like its American counterpart, the Buran orbital vehicle, when in transit from its landing sites back to the launch complex, was transported on the back of a large jet aeroplane – the Antonov An-225 Mriya transport aircraft, which was designed in part for this task and was the largest aircraft in the world to fly multiple times.[7] Before the Mriya was ready (after the Buran had flown), the Myasishchev VM-T Atlant, a variant on the Soviet Myasishchev M-4 Molot (Hammer) bomber (NATO code: Bison), fulfilled the same role.

History of the Buran programme

The Buran orbiter ranks among the world's first spaceplanes, with the North American X-15, the Space Shuttle, SpaceShipOne, and the Boeing X-37. Of these, only the Buran and X-37 spaceflights were uncrewed.

Programme development

The development of the Buran began in the early 1970s as a response to the U.S. Space Shuttle program. Soviet officials were concerned about a perceived military threat posed by the U.S. Space Shuttle. In their opinion, the Shuttle's 30-ton payload-to-orbit capacity and, more significantly, its 15-ton payload return capacity, were a clear indication that one of its main objectives would be to place massive experimental laser weapons into orbit that could destroy enemy missiles from a distance of several thousands of kilometres. Their reasoning was that such weapons could only be effectively tested in actual space conditions and that to cut their development time and save costs it would be necessary to regularly bring them back to Earth for modifications and fine-tuning.[8] Soviet officials were also concerned that the U.S. Space Shuttle could make a sudden dive into the atmosphere to drop nuclear bombs on Moscow.[9][10]

In 1974, Valentin Glushko's design bureau, OKB-1 (later NPO Energiya), proposed a new family of heavy-lift rockets called RLA (Russian: РЛА, «Ракетные Летательные Аппараты», romanizedRaketnyye Letatel'niye Apparaty, lit.'Rocket Flying Apparatus'). The RLA concept included the use of kerosene and liquid hydrogen as fuel, and liquid oxygen as oxidizer (both new technologies in the Soviet space programme), with the shuttle orbiter being one possible payload.[11] While NPO Molniya conducted development under the lead of Gleb Lozino-Lozinskiy, the Soviet Union's Military-Industrial Commission, or VPK, was tasked with collecting all data it could on the U.S. Space Shuttle. Under the auspices of the KGB, the VPK was able to amass documentation on the American shuttle's airframe designs, design analysis software, materials, flight computer systems and propulsion systems. The KGB targeted many university research project documents and databases, including Caltech, MIT, Princeton, Stanford and others. The thoroughness of the acquisition of data was made much easier as the U.S. shuttle development was unclassified.[4]

By 1975, NPO Energiya had come up with two competing designs for the orbiter vehicle: the MTKVP (Russian: МТКВП, «Многоразовый Транспортный Корабль Вертикальной Посадки», romanizedMnogorazoviy Transportniy Korabl' Vertikal'noy Posadki, lit.'Reusable Vertical Landing Transport Ship'), a 34 meter-long lifting body spaceplane launched on top of a stack of kerosene-fueled strap on boosters;[12] and the OS-120 (Russian: ОС-120, «Орбитальный Самолет», romanizedOrbital'niy Samolet, lit.'Orbital Spaceplane–120 tons'), a close copy of the US Space Shuttle based on US Space Shuttle documentation and designs obtained through the VPK and KGB.[4] The OS-120 was a delta-winged spaceplane based heavily on the US Space Shuttle design, equipped with three liquid hydrogen engines, strapped to a detachable external tank and four liquid fuel boosters (NPO Energiya even considered the use of solid propellant rocket boosters, further imitating the US Shuttle's configuration).[13]

A compromise between these two proposals was achieved by NPO Energiya in January 1976 with the OK-92 (Russian: ОК-92, «Орбитальный Корабль», romanizedOrbital'niy Korabl', lit.'Orbital Ship–92 tons'), a delta-winged orbiter equipped with two Soloviev D-30 turbofan jet engines for autonomous atmospheric flight, launched to space from a rocket stack made of a core stage with three cryogenic engines, and four kerosene-fueled boosters, each with four engines.[14] By 1978, the OK-92 design was further refined, with its final configuration completed in June 1979.[15]

Early artist's concept of a Soviet space shuttle approaching a manned space complex.

Soviet engineers were initially reluctant to implement a spacecraft design with so many similarities to the US Space Shuttle. Although it has been commented that wind tunnel testing showed that NASA's design was already ideal,[16] the shape requirements were mandated by its potential military capabilities to transport large payloads to low Earth orbit, themselves a counterpart to the Pentagon's initially projected missions for the Shuttle.[17] Even though the Molniya Scientific Production Association proposed its Spiral programme design[18] (halted 13 years earlier), it was rejected as being altogether dissimilar from the American shuttle design.

The construction of the shuttles began in 1980, and by 1984 the first full-scale Buran was rolled out. The first suborbital test flight of a scale-model (BOR-5) took place as early as July 1983. As the project progressed, five additional scale-model flights were performed. A test vehicle was constructed with four jet engines mounted at the rear; this vehicle is usually referred to as OK-GLI, or as the "Buran aerodynamic analogue". The jets were used to take off from a normal landing strip, and once it reached a designated point, the engines were cut and OK-GLI glided back to land. This provided invaluable information about the handling characteristics of the Buran design, and significantly differed from the carrier plane/air drop method used by the United States and the Enterprise test craft. Twenty-four test flights of OK-GLI were performed by the Gromov Flight Research Institute test pilots and researchers after which the shuttle was "worn out". The developers considered using a couple of Mil Mi-26 helicopters to "bundle" lift the Buran, but test flights with a mock-up showed how risky and impractical that was.[19] The VM-T ferried components[20] and the Antonov An-225 Mriya (the heaviest airplane ever) was designed and used to ferry the shuttle.[21][22]

The flight and ground-testing software also required research. In 1983 the Buran developers estimated that the software development would require several thousand programmers if done with their existing methodology (in assembly language), and they appealed to Keldysh Institute of Applied Mathematics for assistance. It was decided to develop a new high-level "problem-oriented" programming language. Researchers at Keldysh developed two languages: PROL2 (used for real-time programming of onboard systems) and DIPOL (used for the ground-based test systems), as well as the development and debugging environment SAPO PROLOGUE.[23] There was also an operating system known as Prolog Manager.[24] Work on these languages continued beyond the end of the Buran programme, with PROL2 being extended into SIPROL,[25] and eventually all three languages developed into DRAKON[citation needed] which is still in use in the Russian space industry. A declassified May 1990 CIA report citing open-source intelligence material states that the software for the Buran spacecraft was written in "the French-developed programming language known as Prolog",[26] possibly due to confusion with the name PROLOGUE.

Flight crew preparation

Main article: List of human spaceflight programs

Igor Petrovich Volk, cosmonaut and test pilot of the OK-GLI.

Until the end of the Soviet Union in 1991, seven cosmonauts were allocated to the Buran programme and trained on the OK-GLI ("Buran aerodynamic analogue") test vehicle. All had experience as test pilots. They were: Ivan Ivanovich Bachurin, Alexei Sergeyevich Borodai, Anatoli Semyonovich Levchenko, Aleksandr Vladimirovich Shchukin, Rimantas Antanas Stankevičius, Igor Petrovich Volk, and Viktor Vasiliyevich Zabolotsky.

A rule, set in place for cosmonauts because of the failed Soyuz 25 of 1977, insisted that all Soviet space missions contain at least one crew member who has been to space before. In 1982, it was decided that all Buran commanders and their back-ups would occupy the third seat on a Soyuz mission, prior to their Buran spaceflight. Several people had been selected to potentially be in the first Buran crew. By 1985, it was decided that at least one of the two crew members would be a test pilot trained at the Gromov Flight Research Institute (known as "LII"), and potential crew lists were drawn up. Only two potential Buran crew members reached space: Igor Volk, who flew in Soyuz T-12 to the space station Salyut 7, and Anatoli Levchenko who visited Mir, launching with Soyuz TM-4 and landing with Soyuz TM-3. Both of these spaceflights lasted about a week.[8]

Levchenko died of a brain tumour the year after his orbital flight, Bachurin left the cosmonaut corps because of medical reasons, Shchukin was assigned to the back-up crew of Soyuz TM-4 and later died in a plane crash, Stankevičius was also killed in a plane crash, while Borodai and Zabolotsky remained unassigned to a Soyuz flight until the Buran programme ended.

Spaceflight of I. P. Volk

Main article: Soyuz T-12

The crew of Soyuz T-12 (Vladimir Dzhanibekov, Svetlana Savitskaya, and Igor Volk) on a stamp issued in 1985

Igor Volk was planned to be the commander of the first crewed Buran flight. There were two purposes of the Soyuz T-12 mission, one of which was to give Volk spaceflight experience. The other purpose, seen as the more important factor, was to beat the United States and have the first spacewalk by a woman.[8] At the time of the Soyuz T-12 mission the Buran programme was still a state secret. The appearance of Volk as a crew member caused some, including the British Interplanetary Society magazine Spaceflight, to ask why a test pilot was occupying a Soyuz seat usually reserved for researchers or foreign cosmonauts.[27]

Spaceflight of A. S. Levchenko

Anatoli Levchenko was planned to be the back-up commander of the first crewed Buran flight, and in March 1987 he began extensive training for his Soyuz spaceflight.[8] In December 1987, he occupied the third seat aboard Soyuz TM-4 to Mir, and returned to Earth about a week later on Soyuz TM-3. His mission is sometimes called Mir LII-1, after the Gromov Flight Research Institute shorthand.[28] When Levchenko died the following year, it left the back-up crew of the first Buran mission again without spaceflight experience. A Soyuz spaceflight for another potential back-up commander was sought by the Gromov Flight Research Institute, but never occurred.[8]

Ground facilities

Early illustration of a Buran launch at Baikonur

Maintenance, launches and landings of the Buran-class orbiters were to take place at the Baikonur Cosmodrome in the Kazakh SSR. Several facilities at Baikonur were adapted or newly built for these purposes:


Atmospheric test flights

Main article: OK-GLI § Test flights

OK-GLI Buran aerodynamic analogue

An aerodynamic testbed, OK-GLI, was constructed in 1984 to test the in-flight properties of the Buran design. Unlike the American prototype Space Shuttle Enterprise, OK-GLI had four AL-31 turbofan engines fitted, meaning it was able to fly under its own power.

Orbital flight of Buran 1.01 in 1988

Main article: List of Buran missions

Following a series of atmospheric test flights using the jet-powered OK-GLI prototype, the first operational spacecraft (Orbiter K1) flew one test mission.[34]

The single orbital launch of Buran (orbiter 1K) was at 03:00 UTC on 15 November 1988 from pad 110/37 in Baikonur.[34] The uncrewed craft was lifted into orbit by the specially designed Energia booster rocket. The life support system was not installed and no software was installed on the CRT displays.[35]

No Launch Date Mission Shuttle Crew Duration Landing Site Notes Sources
1 15 November 1988
03:00:02 UTC
06:00:02 MSK
1K1 Buran 0 3h 25m 22s Baikonur
  • Only flight of Buran
  • Only uncrewed flight of Space Shuttle type vehicle

The shuttle orbited the Earth twice in 206 minutes of flight, travelling 83,707 kilometres (52,013 mi) in 3 hours and 25 minutes (0.14 flight days).[40] On its return, it performed an automated landing on the shuttle runway (Site 251) at Baikonur Cosmodrome.[41]

Planned flights

Planned Ptichka mission to Mir space station

The planned flights for the shuttles in 1989, before the downsizing of the project and eventual cancellation, were:[42]

The planned uncrewed second flight of Ptichka was changed in 1991 to the following:

Cancellation of the programme 1993

Buran family, showing test articles and orbiters in different completion stages.

After the first flight of a Buran shuttle, the project was suspended due to lack of funds and the political situation in the Soviet Union. The two subsequent orbiters, which were due in 1990 (Orbiter 1.02) and 1992 (Orbiter 2.01) were never completed with other articles being scrapped (see next section).

The project was officially terminated on 30 June 1993, by President Boris Yeltsin. At the time of its cancellation, 20 billion roubles had been spent on the Buran programme.[43]

"We had no civilian tasks for Buran and the military ones were no longer needed."[44]

The programme was designed to boost national pride, carry out research, and meet technological objectives similar to those of the U.S. Space Shuttle program, including resupply of the Mir space station, which was launched in 1986 and remained in service until 2001. When Mir was finally visited by a spaceplane, the visitor was a Space Shuttle orbiter, not a Buran-class orbiter.

The Buran SO, a docking module that was to be used for rendezvous with the Mir space station, was refitted for use with the U.S. Space Shuttles during the Shuttle–Mir missions.[45]

The cost of a Buran launch carrying a 20 ton payload was estimated at 270 million roubles, vs 5.5 million roubles on the Proton rocket.[46]

Baikonur hangar collapse

On 12 May 2002, a hangar roof at the Baikonur Cosmodrome in Kazakhstan collapsed because of a structural failure due to poor maintenance. The collapse killed eight workers and destroyed one of the Buran-class orbiters (Buran 1.01), which flew the test flight in 1988, as well as a mock-up of an Energia booster rocket. It was not clear to outsiders at the time which Buran-class orbiter was destroyed, and the BBC reported that it was just "a model" of the orbiter.[47] It occurred at the MIK RN/MIK 112 building at Site 112 of the Baikonur Cosmodrome, 14 years after the only Buran flight. Work on the roof had begun for a maintenance project, whose equipment is thought to have contributed to the collapse. Also, before the day of collapse, there had been several days of heavy rain.[8][48]

List of Vehicles

Five orbiters were planned to be built (designated 1K-5K, K stands for Корабль, 'craft, flying article'), with hull numbering starting with 1 or 2 (e.g. 1.01), two originally ordered in 1970s and three ("second series") additionally ordered in 1983.[citation needed]

For research and testing purposes, several test articles were produced, designated 1M-8M (M stands for Макет, 'mock-up'), with hull numbering starting with 0 (e.g. 0.02). The programme prefix OK stands for Орбитальный Корабль, 'Orbital Vehicle' and carries the GRAU index number 11F35.

By 1991 two operational vehicles were delivered to Baikonur, three others were under construction at Tushino.

Most of the geo-locations below show the orbiter bodies on the ground; in some cases Google Earth's History facility is required to see the orbiter within the dates specified.[49][50]

Name Function Location Image Geo-location Approximate dates Notes
Flight orbiters
First flight article, first spaceplane series Baikonur Cosmodrome Site 110/37 (L) at Baikonur [1] 1988
45°57′53″N 63°18′18″E / 45.96486°N 63.30496°E / 45.96486; 63.30496 (Buran 1K 1.01 (15 November 1988)) Spaceplane not visible; no available satellite photos 15 November 1988 Built in 1986, only flightworthy orbiter. Launched on an uncrewed, remote controlled flight; two orbits and landing (with heavy crosswinds and a self-initiated approach direction change) at Yubileiniy (Jubilee) Airport, Baikonur.
MIK building, Baikonur Cosmodrome, Kazakhstan [2] 2002 45°55′39″N 63°17′51″E / 45.92750°N 63.29761°E / 45.92750; 63.29761 (Buran 1K 1.01 (1988 to 2002)) Spaceplane not visible; shadows 1988 to 2002 Housed in MIK building in area 112, Baikonur with an Energia booster mockup and other Energia hardware, destroyed in a roof collapse on 12 May 2002, which killed eight workers.
Second flight article, first series, 95–97% complete MIK building, Baikonur Cosmodrome, Kazakhstan [3] 45°55′42″N 63°17′53″E / 45.92836°N 63.29809°E / 45.92836; 63.29809 (Ptichka 2K 1.02 (1988 to 1995)) Shuttle not visible, in building 1988 to 1995 Built in 1988, housed adjacent to Buran.
MZK building 80, area 112a, Baikonur [4] 2015 45°56′26″N 63°19′06″E / 45.94046°N 63.31841°E / 45.94046; 63.31841 (Ptichka 2K 1.02 (1995 to present)) Spaceplane not visible; in building 1995 to present Moved to the MZK in August 1995.[51] Reportedly property of Russian-Kazakh company Aelita since 2005.[52]
First flight article, second series, 30–50% complete Inside Tushino Plant, Moscow, Russia 1991 to 2006 Built 1991
Car park on Kimki Reservoir, near plant [5] 2007–2011 55°50′29″N 37°27′59″E / 55.84136°N 37.46625°E / 55.84136; 37.46625 (3K 2.01 (2006 to 2011)); use history 2006 to 2011 Moved outdoors
Zhukovsky Airport, near Moscow, Russia 2011 on 15 August 2011 55°34′17″N 38°08′35″E / 55.57125°N 38.143°E / 55.57125; 38.143 (3K 2.01 (2011 to present)); use history 2011 to present An exhibit in the MAKS-2011 and later air shows. Zhukovsky International Airport is the site of the Gromov Flight Research Institute, and has become a large outdoor flight museum. Other sightings:
on 15 March 2012: 55°33′56″N 38°08′42″E / 55.56565°N 38.14491°E / 55.56565; 38.14491,
on 31 July 2012 and 8 May 2013 55°33′47″N 38°08′50″E / 55.56309°N 38.14714°E / 55.56309; 38.14714,
on 4 June and 29 July 2014 55°33′06″N 38°08′41″E / 55.55179°N 38.14463°E / 55.55179; 38.14463,
on 11 September 2016 through 2020 55°34′17″N 38°08′35″E / 55.57125°N 38.143°E / 55.57125; 38.143. As of December, 2021, it has been reportedly bought by Vadim Zadorozhny, in order to be restored and displayed in a museum near Moscow [53]
Second flight article, second series, 10–20% complete Tushino plant, Moscow, Russia [6] 1991–present Build started 1991, some pieces of 2.02, like heat tiles, have found their way onto eBay.[54]
Third flight article, second series, very small amount assembled Scattered 1988 to present All parts have been scattered and are unidentifiable.
Test articles
Airframe and shake test bed article Outdoor pad, area 112, Baikonur Cosmodrome, Kazakhstan [7] 45°55′11″N 63°18′36″E / 45.91963°N 63.30996°E / 45.91963; 63.30996 (OK-M (1988 to January 2007)); use history 1988 to January 2007 Built in 1982, deteriorated considerably outdoors on pad
Gagarin Museum, Baikonur Cosmodrome, Kazakhstan 2007 45°54′35″N 63°19′04″E / 45.90963°N 63.31789°E / 45.90963; 63.31789 (OK-M (January 2007 to present)) January 2007 to present Refurbished in 2007, now on outdoor display
Atmospheric test article, two extra jet engines in rear to facilitate take-off Ramenskoye Airport, Moscow 55°33′47″N 38°08′50″E / 55.5631°N 38.14716°E / 55.5631; 38.14716 (OK-GLI (1999)); no history available this far back 1999 Built in 1984, used in 25 test flights. On display at MAKS-1999, Russia's most prestigious airshow.
Darling Island, Sydney harbour, Australia [8] 2000
33°51′50″S 151°11′48″E / 33.86392°S 151.19662°E / -33.86392; 151.19662 (OK-GLI (2000-2002)); use history to see shelter, shuttle not visible February 2000 to September 2000; afterwards stored on the site until about Oct 2002 Sold and sent in February 2000 to the Sydney, Australia 2000 Olympic Games. Displayed inside a light structure, stored outdoors there afterwards.
Manama harbor, Bahrain 26°11′54″N 50°36′09″E / 26.19826°N 50.60243°E / 26.19826; 50.60243 (OK-GLI (July 2004 to 2007)); use history July 2004 to 2007 Stored outdoors in Bahrain while the ownership of the spaceplane was legally contested.
Technik Museum, Speyer, Germany[55] 2008 49°18′43″N 8°26′47″E / 49.31185°N 8.44628°E / 49.31185; 8.44628 (OK-GLI (2008 to present)); shuttle not visible, in building 2008 to present Purchased from Roscosmos State Corporation when it won the legal battle, displayed indoors.
Electrical test article Checkout and Test Building (KIS), RKK Energia Plant, Korolev, Russia [9] 55°55′17″N 37°47′57″E / 55.92132°N 37.79929°E / 55.92132; 37.79929 (OK-KS (2006 to 15 October 2012)); not visible, in building. This location shows a half-scale memorial of Energia and the Buran, perhaps meant to be replaced. 2006 to 15 October 2012 Built in 1982, stored inside
Grounds of the RKK Energia plant 55°55′01″N 37°47′58″E / 55.91685°N 37.79937°E / 55.91685; 37.79937 (OK-KS (15 October 2012 to June 2017)) 15 October 2012 to June 2017 Stored outside by 15 October 2012, intended to be placed on permanent display.[56]
Sirius Science Center, Sochi, Krasnodar Krai, Russia 2018 43°24′52″N 39°56′57″E / 43.414442°N 39.949115°E / 43.414442; 39.949115 (OK-KS (June 2017 to current)) June 2017 to current On permanent outdoor display at the Sirius Science Center in Sochi, Russia.[57][58]
Engineering mockup MZK building, Baikonur Cosmodrome, Kazakhstan [10] 2014 45°56′26″N 63°19′06″E / 45.94046°N 63.31841°E / 45.94046; 63.31841 (OK-MT); vehicle not visible, in building 1988 to present Built in 1983. Moved to the MZK in August 1995.[59]
Environmental test parts from forward fuselage Unknown 1988 to present Destroyed, parts used for OK-TVA.[60]
Environmental test article NIIKhimMash rocket test area, near Moscow, Russia [11] 1988 to present
Structural test article Gorky Park, Moscow, Russia 2010 55°43′44″N 37°35′49″E / 55.72876°N 37.59688°E / 55.72876; 37.59688 (OK-TVA (1995 to July 2014)); use history 1995 to July 2014 Served as an attraction, a small restaurant, and bicycle storage, as part of the now-defunct amusement park at that site.
Outside Pavilion 20 about 250 meters south of the Vostok rocket, VDNKh/VVT (All-Russia Exhibition Center) 2014 55°49′56″N 37°37′22″E / 55.83219°N 37.62291°E / 55.83219; 37.62291 (OK-TVA (July 2014 to present)); use history July 2014 to present Moved to VDNKh on 5 July 2014, assembled by 21 July.[61][62] The shuttle acquisition is part of the VDNKh refurbishment.
Components used for static thermal and vacuum tests Outdoor display at Clinical Hospital No. 83 FMBA on Orekhovy Boulevard in Moscow 2012 55°37′05″N 37°45′52″E / 55.618°N 37.76448°E / 55.618; 37.76448 (8M (from 24 April 2011 to present)) from 24 April 2011 to present
Unnamed Wooden wind tunnel model, 1/3 scale Ramenskoye Airport, near Moscow, Russia, photographed in 2013 2013[63] up to 2013 Has been destroyed in or after 2013. Photographed at Zhukovsky International Airport by Aleksander Makin.

Related test vehicles and models

Name Function Image Construction date Current status[64]
BOR-4 Sub-scale model of the Spiral space plane 1982–1984 1:2 scale model of Spiral space plane. 5 launches. NPO Molniya, Moscow.
BOR-5 ("Kosmos") Suborbital test of 1/8 scale model of Buran 1983–1988 5 launches, none were reflown but at least 4 were recovered. NPO Molniya, Moscow.
Wind tunnel models Scales from 1:3 to 1:550 85 models built; see unnamed test article in table above.
Gas dynamics models Scales from 1:15 to 1:2700

Revival possibilities

Main article: Yenisei (rocket)

Further information: Irtysh (rocket) and RD-170 § RD-171MV

Over time, several scientists looked into trying to revive the Buran programme, especially after the Space Shuttle Columbia disaster.[65]

The 2003 grounding of the U.S. Space Shuttles caused many to wonder whether the Energia launcher or Buran shuttle could be brought back into service.[66] By then, however, all of the equipment for both (including the vehicles themselves) had fallen into disrepair or been repurposed after falling into disuse with the collapse of the Soviet Union.

In 2010 the director of Moscow's Central Machine Building Institute said the Buran programme would be reviewed in the hope of restarting a similar crewed spacecraft design, with rocket test launches as soon as 2015.[67] Russia also continues work on the PPTS but has abandoned the Kliper program, due to differences in vision with its European partners.[68]

Due to the 2011 retirement of the American Space Shuttle and the need for STS-type craft in the meantime to complete the International Space Station, some American and Russian scientists had been mulling over plans to possibly revive the already-existing Buran shuttles in the Buran programme rather than spend money on an entirely new craft and wait for it to be fully developed[65][66] but the plans did not come to fruition.

On the 25th anniversary of the Buran flight in November 2013, Oleg Ostapenko, the new head of Roscosmos, the Russian Federal Space Agency, proposed that a new heavy-lift launch vehicle be built for the Russian space programme. The rocket would be intended to place a payload of 100 tonnes (220,000 lb) in a baseline low Earth orbit and is projected to be based on the Angara launch vehicle technology.[69]


Energia launch vehicle

Main article: Energia (rocket)

Energia (Russian: Энергия, romanizedEnergiya, lit.'Energy'; GRAU 11K25) was a 1980s super-heavy lift launch vehicle. It was designed by NPO Energia of the Soviet Union as part of the Buran program for a variety of payloads including the Buran spacecraft. Control system main developer enterprise was the Khartron NPO "Electropribor".[70][71] The Energia used four strap-on boosters each powered by a four-chamber RD-170 engine burning kerosene/LOX, and a central core stage with four single-chamber RD-0120 (11D122) engines fueled by liquid hydrogen/LOX.[72]

The launch vehicle had two functionally different operational variants: Energia-Polyus, the initial test configuration, in which the Polyus system was used as a final stage intended to put the payload into orbit, and Energia-Buran,[73] in which the Buran orbiter was the payload and the source of the orbit insertion impulse.

The launch vehicle had the capacity to place about 100 tonnes in Low Earth orbit, up to 20 tonnes to geostationary orbit and up to 32 tonnes by translunar trajectory into lunar orbit.[74]

The launch vehicle made just two flights before being discontinued.[75][73] Since 2016, there have been attempts to revive the launch vehicle, reusing an updated version of its booster engine in the Soyuz-5 rocket.

Buran orbiter

Main article: Buran (spacecraft)

Buran on An-225 at the 1989 Paris Air Show

Buran (Russian: Буран, IPA: [bʊˈran], meaning "Snowstorm" or "Blizzard"; GRAU index serial number: 11F35 1K, construction number: 1.01) was the first spaceplane to be produced as part of the Soviet/Russian Buran program. It is named after the Asian wind. [citation needed]

Buran completed one uncrewed spaceflight in 1988, and was destroyed in the 2002 collapse of its storage hangar.[76] The Buran-class orbiters used the expendable Energia rocket, a class of super heavy-lift launch vehicle.

Besides describing the first operational Soviet/Russian shuttle orbiter, "Buran" was also the designation for the entire Soviet/Russian spaceplane project and its flight articles, which were known as "Buran-class orbiters".

Antonov An-225 Mriya

The An-225 in its 2009–2022 livery

The Antonov An-225 Mriya (Ukrainian: Антонов Ан-225 Мрія, lit.'dream' or 'inspiration'; NATO reporting name: Cossack) was a strategic airlift cargo aircraft designed and produced by the Antonov Design Bureau in the Soviet Union.

It was originally developed during the 1980s as an enlarged derivative of the Antonov An-124 airlifter for the express purpose of transporting Buran-class orbiters. On 21 December 1988, the An-225 performed its maiden flight; only one aircraft was ever completed, although a second airframe with a slightly different configuration was partially built. After a brief period of use supporting the Soviet space program, the aircraft was mothballed during the early 1990s. Towards the turn of the century, it was decided to refurbish the An-225 and reintroduce it for commercial operations, carrying oversized payloads for the operator Antonov Airlines. Multiple announcements were made regarding the potential completion of the second airframe, however its construction has largely remained on hold due to a lack of funding. By 2009, it had reportedly been brought up to 60–70% completion.

With a maximum takeoff weight of 640 tonnes (705 short tons), the An-225 held several records, including heaviest aircraft ever built and largest wingspan of any aircraft in operational service. It was commonly used to transport objects once thought impossible to move by air, such as 130-ton generators, wind turbine blades, and diesel locomotives. Additionally, both Chinese and Russian officials had announced separate plans to adapt the An-225 for use in their respective space programmes. The Mriya routinely attracted a high degree of public interest, attaining a global following due to its size and its uniqueness.

The only completed An-225 was destroyed in the Battle of Antonov Airport during the 2022 Russian invasion of Ukraine. On 20 May 2022, Ukrainian president Volodymyr Zelenskyy announced plans to complete the second An-225 to replace the destroyed aircraft; Antonov announced plans to rebuild the destroyed aircraft in November 2022.

Energia liquid rocket booster

Zenit-2 rocket (Baikonur, 10 December 2001)

Zenit (Ukrainian: Зеніт, Russian: Зени́т; meaning Zenith) is a family of space launch vehicles designed by the Yuzhnoye Design Bureau in Dnipro, Ukraine, which was then part of the Soviet Union. Zenit was originally built in the 1980s for two purposes: as a liquid rocket booster for the Energia rocket and, equipped with a second stage, as a stand-alone middle-weight launcher with a payload greater than the 7 tonnes of the Soyuz but smaller than the 20 tonnes payload of the Proton. The last rocket family developed in the USSR, the Zenit was intended as an eventual replacement for the dated Soyuz and Proton families, and it would employ propellants which were safer and less toxic than the Proton's nitrogen tetroxide/UDMH mix. Zenit was planned to take over crewed spaceship launches from Soyuz, but these plans were abandoned after the dissolution of the Soviet Union in 1991.

Zenit-3SL was launched by the Sea Launch consortium's floating launch platform in the Pacific Ocean and Zenit-2 is launched from Baikonur Cosmodrome in Kazakhstan. RD-171M engines of the Zenit's first and second stages as well as the upper stage of the Zenit-3SL rocket are supplied by Russia. An improved Zenit-3SLB rocket was used for commercial launches from Baikonur Cosmodrome beginning in April 2008, marketed as Land Launch.[77]

Zenit-3SL has launched 36 times with 32 successes, one partial success, and three failures. The first failure, the launch of a Hughes-built communications satellite owned by ICO Global Communications, occurred during the second commercial launch on March 12, 2000, and was blamed on a software error that failed to close a valve in the second stage of the rocket. The second failure occurred on January 30, 2007, when the rocket exploded on the Odyssey launch platform, seconds after engine ignition. The NSS-8 communication satellite on board was destroyed.[78]

On September 24, 2011 Zenit-3SL launched successfully from the Odyssey launch platform under a renewed Sea Launch project with RSC Energia as the majority stakeholder. The rocket delivered the European communication satellite Atlantic Bird 7 to its planned orbit. On February 1, 2013, another Zenit-3SL failed while launching the Intelsat 27 satellite.[79]

Energia-Buran and the US Space Shuttle

Comparison between Soyuz, Space Shuttle, and Energia-Buran
Comparison to Space Shuttle

Comparison to NASA's Space Shuttle

Because Buran's debut followed that of Space Shuttle Columbia's, and because there were striking visual similarities between the two shuttle systems—a state of affairs which recalled the similarity between the Tupolev Tu-144 and Concorde supersonic airliners—many speculated that Cold War espionage played a role in the development of the Soviet shuttle. Despite remarkable external similarities, many key differences existed, which suggests that, had espionage been a factor in Buran's development, it would likely have been in the form of external photography or early airframe designs. NASA Administrator James C. Fletcher stated that Buran was based on a rejected NASA design.[80] See the § Program development section above.

Key differences between Energia-Buran system and NASA's Space Shuttle

See also


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