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Chaika L-4

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The Chaika L-4 (чайка, English: Seagull ) is a twin engine amphibious aircraft , designed and built in Russia in the 2000s. It has sold in small numbers and remains in production.

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67-646: Several companies and groups have developed a series of designs which began at an offshoot of the Trod Kuznetsov aircraft engine plant in Samara . Beginning with the L-3, they differ in size and engine type but all are twin engine amphibians with a characteristic V tail. The L-4 is a direct development of the L-6M, promoted by AeroVolga. Its design began in August 2004. All L-4 variants have

134-469: A hypergolic orbit stage. The NK-33s are first imported from Russia to the United States and then modified into Aerojet AJ26s, which involves removing some harnessing, adding U.S. electronics, qualifying it for U.S. propellants, and modifying the steering system. The Antares rocket was successfully launched from NASA's Wallops Flight Facility on April 21, 2013. This marked the first successful launch of

201-569: A weather radar , and Warsaw Pact identification aids. Cockpit voice recorders and flight data recorders standard. Four GT-40PCh6 engine generators generate energy from the Kuznetsov NK-86 . The APU or ground sources supply 200/115 V, 400 Hz current to the primary system or two secondary systems (36 V/400 Hz AC and 27 V DC). Recipients include high-lift devices, tailplane trim, deicing, galley lift (elevator) and interior services. The expected service life of an Il-86

268-498: A "redesign cycle" of over 50 areas, cutting some 1,500 kg (3,300 lb) of airframe weight. Capacity at Voronezh was insufficient and the Polish aircraft industry was involved in the Il-86 project from the start. The arrangement involved significant technology transfer to Poland: PZL (Państwowe Zakłady Lotnicze) Amalgamation Mielec factory Director Jerzy Belczak said it involved “…

335-535: A continuous main deck and lower decks fore and aft of the centre section. Rectangular windows in most interframe bays, eight ICAO Type 1a passenger doors on the main deck and three more on the lower deck portside; two freight hold doors and a galley supply door on the lower deck starboard. The main deck houses the flightdeck, two wardrobes, eight toilets, two pantries and a three-section passenger cabin. The lower deck houses three entry vestibules/luggage stores with hydraulic boarding stairs to ground level and fixed stairs to

402-572: A full certification programme since certification was introduced in the USSR in 1967 and became mandatory five years later. Production of the Il-86 began in late 1976 and continued until 1991. There was no prototype. The first two machines were handmade by Ilyushin at the bureau's own Moscow facility in 1976 and 1977. One was used for flight testing and the other for static ground testing. Beyond these initial examples, Ministry of Aircraft Manufacture ("MAP," "Minaviaprom") Factory 64 at Voronezh (today VASO )

469-620: A new design of rocket engine from the Kuznetzov Bureau for the Global Rocket 1 (GR-1) Fractional Orbital Bombardment System (FOBS) intercontinental ballistic missile (ICBM), which was developed but never deployed. The result was the NK-9, one of the first staged-combustion cycle rocket engines . Kuznetsov developed the design into the NK-15 and NK-33 engines in the 1960s, and claimed them to be

536-405: A preliminary project, (Russian: аванпроект; transliterated: avanproyekt ), it entrusted it to Ilyushin. The bureau received specific operational requirements for the aerobus on February 22, 1970. In developing the concept which had been agreed, Ilyushin faced four challenges: configuration (layout or "shape"), powerplant, automation (avionics) and manufacturing capacity. Ilyushin began work on

603-418: A radical retooling of our enterprise” involving “over 50 new processes.” Observers noted that "work on the Il-86 will bring Poland's ... WSK-Mielec to a new level of capability ... in the manufacturing processes involved with an aircraft of this size, including titanium structures, chemical milling and the machining of integral panels." By the mid-1980s, PZL was planned to produce half of the Il-86, including

670-417: A twin-wheeled nose leg and three four-wheel bogie main gear legs (centreline and two outers). Track is 9.9 m (32 ft 5 + 3 ⁄ 4  in). Four Kuznetsov NK-86 two-spool with five-stage LP compressors, six-stage HP compressors, annular combustor cans, single-stage HP turbine and two-stage LP turbine turbofan engines power the Il-86. The cascade thrust reversers are canted 15° in respect to

737-530: A year in a new factory employing 80,000 people continued until mid-1976. Any residual will to export TriStars was scotched when administration of US President Jimmy Carter made human rights a key pillar of US foreign policy . TriStar exports would have needed Coordinating Committee clearance: the type embodied advanced technology banned from potential enemies. In 1978, the US Department of Commerce vetoed export of 12 General Electric CF6-50 engines ordered by

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804-518: Is 9.75 t (21,495 lb) reducing to 7.79 t (17,174 lb) at 140 t (308,650 lb). Outboard engine pylons on the latter two-thirds of all Il-86s are marginally extended to cut drag. The VSU-10 APU generates power and heats/cools the interior on the ground, and provides engine start air. Hydraulically driven. An SAU-1T-2 automatic flight control system offers assisted manual or automatic flight, with no manual option. Four independent hydraulic systems power all flight controls and

871-437: Is claimed that over 50 new technological processes were introduced into Soviet practice as a result of the Il-86 programme. The initial test programme was flown by Ilyushin staff, ending two months ahead of schedule on October 20, 1978. Other sources claim that these tests were completed on 22 September 1978. (According to a faster schedule announced at the time of the first flight, Ilyushin tests were to have ended in time for

938-563: Is the Kuznetsov NK-321 that propels the Tupolev Tu-160 bomber and was formerly used in the later models of the Tu-144 supersonic transport (an SST that is now obsolete and no longer flown). The NK-321 produced a maximum of about 245 kN (55,000 lb f ) of thrust. Kuznetsov aircraft engines include: Kuznetsov industrial gas turbines include: In 1959, Sergey Korolev ordered

1005-460: The Moscow Olympics in 1980. The prototype flew at Khodynka airfield (where Ilyushin's experimental factory was) on December 22, 1976 (Soviet airliners often flew before the close of calendar years to meet the requirements of five-year plans ). It was announced that the type had a patented electromagnetic pulse deicing system. which used 500 times less energy than conventional deicers. It

1072-508: The aerobus in late 1969, initially by assessing the development potential of existing aircraft. An enlarged Il-62 (the Il-62-250) would have had a 30-tonne payload, 259 seats and a 6.8 metre/22 ft longer fuselage : a virtual analogue of the Douglas DC-8 "Super Sixty" series. Other proposed Il-62 modifications involved double-deck and "two fuselages side-by-side" developments. There

1139-554: The aeroelastic wing." Soviet interest in buying the 747s continued until the end of détente in the late 1970s. At the peak of détente , on March 11, 1974, a Lockheed L-1011 TriStar arrived in Moscow for three days of sales presentations and demonstrations. The TriStar matched the Il-86 in size and performance and had development potential. Negotiations to buy 30 TriStars of the L-1011-385-250 version and licence-produce up to 100

1206-499: The leading edge rearwards to the winglets. Fixed floats under the wings stabilize the L-4 on water; it is operable with waves to 400 mm (15 in) high. The most unusual feature of the L-4 is the empennage arrangement: it has twin fins , mounted on the fuselage and extended forward with long, curved dorsal fillets, separated at the base by the full fuselage width and leaning slightly outwards. The fins carry conventional rudders and

1273-735: The В-47 , taken on strength by the US Air Force ... brought forth a veritable storm of critical opinions from [Soviet] aviation scientists. Responsible TsAGI officials and industry leaders robustly called that aircraft 'utter nonsense' (similar opinions were expressed of the Boeing 747)." Similar controversies were known in Western aeronautical circles but this Soviet approach showed a typical streak of dogmatism which held that problems had immutable, "scientifically correct" solutions. However, not all Soviet aviation engineers were so fixed in their ideas, and

1340-550: The 60th anniversary of the October Revolution on November 7, 1977. ) In-house testing involved speeds up to Mach 0.93 and bank angles up to 11 degrees greater than specified. Initial certification flying by pilots independent of Ilyushin ended on June 6, 1977. State acceptance trials began on April 24, 1979, and ended on December 24, 1980. Certification by Gosaviaregistr SSSR [the USSR State Aviation Registry]

1407-509: The Antonov bureau, V. G. Anisyenko: "The MAP leadership wanted to have a uniform large engine also capable of civil aviation applications, such as the Il-86. The most suitable analogue from this viewpoint was considered to be the Rolls-Royce RB.211-22 . To purchase it, in 1976 a MAP procurement party went to Great Britain, headed by engine construction deputy minister Dondukov ... Our ultimate task

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1474-449: The Il-86 had been designed meant that they had typically five-member flight crews. The design and entry into service in 1972 of the Tu-154 , an airliner built to high technology principles (more automation, less human input), showed that Soviet science lagged behind in the development of avionics which would remove the need for navigators and radio operators. A programme of avionics development

1541-566: The Junkers 0022 engine. The new engine eventually generated about 15,000 horsepower (11.2 megawatts ) and it was also used in the large Antonov An-22 Soviet Air Force transport. Kuznetsov also produced the Kuznetsov NK-8 turbofan engine in the 90 kN (20,000 lb f ) class that powered the Ilyushin Il-62 and Tupolev Tu-154 airliners . This engine was next upgraded to become

1608-497: The L-4 was in June 2005. The most recent variant, the more powerful L-44 flew in 2009. By mid-2008 sales, probably including L-6s from AeroVolga, had reached 14. Data from Jane's All the World's Aircraft 2012/13 General characteristics Performance Kuznetsov Design Bureau The Kuznetsov Design Bureau ( Russian : СНТК им. Н. Д. Кузнецова , also known as OKB-276 )

1675-714: The NK-33 heritage engines built in early 1970s. Kuznetsov rocket engines include: Ilyushin Il-86 The Ilyushin Il-86 ( Russian : Илью́шин Ил-86 ; NATO reporting name : Camber ) is a short- to medium- range wide-body jet airliner that served as the USSR 's first wide-bodied aircraft. Designed and tested by the Ilyushin design bureau in the 1970s, it was certified by the Soviet aircraft industry, manufactured and marketed by

1742-455: The Polish aircraft industry in the project. The Soviets tried to import technology to solve the issues with the powerplant, avionics and manufacturing capacity. The attempts took two directions. First was wholesale technology transfer similar to the Li-2 deal of the 1930s. This would have delayed Il-86 development, since the programme would have been demoted to a reserve status. The second direction

1809-548: The Soviets then led the world in titanium technology). According to Sutter's account, both sides left the meeting well satisfied with the exchange of information. It seems (again according to Sutter's account of the aftermath) that this meeting may have made a real difference to Soviet aircraft design, but Boeing's contribution could naturally not be acknowledged publicly by the Soviet side. Ilyushin therefore had to stress that it had been

1876-620: The Soviets) 2,600 m (8,500  ft ) runways. In the second half of the 1960s, OKB-240 (as the Ilyushin bureau was formally known) was restoring positions lost (with Yakovlev, in favour of Tupolev and Antonov) during the Khrushchev era and was well placed to secure design of the aerobus . When the Soviet cabinet's defence industry committee promoted the Aeroflot specification on September 8, 1969, to

1943-637: The USSR ceased to exist called for 40 more aircraft to be manufactured by 1995, but the manufacturing facility closed in early 1992. All-metal low-wing land monoplane with four wing-mounted low-bypass turbofan engines. Cantilever three-spar structure of modified trapezoid planform. Centre section integral with fuselage. Inboard sections, outboard sections and detachable leading and trailing edges. High-lift devices comprise full-span six-segment leading edge slats (contiguous at engine pylons) at up to 17.5% of chord (drooping to 35°), two-segment fixed-vane double-slotted trailing edge flaps occupying some 75% of

2010-675: The USSR for planned long-range Il-86s. By analogy with other aircraft programmes, a third direction in the efforts to acquire foreign technology may have involved illicit action along the lines of the reverse engineering of the Tu-4 from the B-29 and the copying of the Rolls-Royce Nene jet engine as the Klimov VK-1 . Oblique reference to this comes in an account of the An-124 by the then-powerplant head of

2077-445: The USSR. Developed during the rule of Leonid Brezhnev , the Il-86 was marked by the economic and technological stagnation of the era : it used engines more typical of the late 1960s, spent a decade in development, and failed to enter service in time for the Moscow Olympics , as was originally intended. The type was used by Aeroflot and successor post-Soviet airlines and only three of the total 106 constructed were exported. At

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2144-496: The Voronezh factory was instructed to retain wing manufacture. After certification in 1980, annual Il-86 outputs were: 1980, 1; 1981, 0; 1982, 11; 1983, 12; 1984, 8; 1985, 9 (including the four for 8 ADON); 1986, 11; 1987, 10; 1988, 10; 1989, 9; 1990, 11 (including the three for export to China), 1991, 3. Of the 106 examples built, one never flew (being used for static tests) and three were exported. The five-year plan in force when

2211-766: The about 125 kN (28,000 lb f ) Kuznetsov NK-86 engine that powered the Ilyushin Il-86 aircraft. This Bureau also produced the Kuznetsov NK-144 afterburning turbofan engine. This engine powered the early models of the Tupolev Tu-144 SST . The Kuznetsov Design Bureau also produced the Kuznetsov NK-87 turbofan engine that was used on the Lun-class ekranoplan . (Only one such aircraft has ever been produced.) Kuznetsov's most powerful aviation engine

2278-428: The aircraft. This was eventually called "the luggage at hand system" ( Russian : "система «багаж с собой»" ; transliterated : "sistyema bagazh s soboy" ). Soviet aviation journalist Kim Bakshmi described it (at its ultimate) thus: "One arrives five minutes prior to departure, buys oneself a ticket on board the aircraft, hangs one's coat next to the seat and places one's bag or suitcase nearby.". Taking suitcases into

2345-414: The airliner's configuration, problems with its powerplant, prolonged avionics development and the low priority of civil as opposed to military aircraft. In its earlier stages, the Il-86 programme was also held back by hopes of US airliner imports. Certificating the Il-86 to the very demanding set of Soviet and Comecon standards called NLGS-2 also delayed progress; it was the first Soviet aircraft to undergo

2412-494: The beginning of 2012, only four Il-86s remained in service, all with the Russian Air Force . By the end of 2020 the number in active service was reduced to three. In the mid-1960s, the United States and Western Europe planned airliners seating twice the then-maximum of some 200 passengers. They were known as airbuses at the time. The Soviet leadership wanted to match them with an aerobus ( Russian : аэробус ). Alongside

2479-559: The built-in airstairs. Fluid is to the NGZh, rather than AMG, formula. Pizhma-1 navigational system with OMEGA inputs. GPS transceivers and a TCAS fitted retroactively during the 1990s. Pizhma-1 can be used throughout the flight from departure terminal area to landing and taxi to stand. Pizhma-1 has full-time roll and yaw dampers. Airfield approach aids enable instrument landing system -coupled approaches to ICAO Category II weather minima. Other radio aids include VOR and DME receivers,

2546-530: The cabin, as in trains, was studied, but necessitated a 3 m fuselage extension with a 350-seat capacity. To avoid this, passengers were to deposit their luggage in underfloor compartments as they entered the airliner. Ideas similar to the "luggage at hand system" were briefly addressed in the West. Airbus studied such an arrangement in the mid-1970s. Lockheed implemented it into the L-1011 TriStar in 1973 at

2613-424: The clean-winged, rear-engined, T-tailed configuration for airliners. The BAC Three-Eleven and BAC / CASA / MBB Europlane projects had similar configurations. The configuration of heavy jet aircraft was a politically sensitive issue in the USSR. Aircraft designer Leonid Selyakov states this of the underwing-engine US-pioneered layout which gradually became standard for jet airliners: "The configuration of

2680-514: The configuration issue figured prominently in a remarkable meeting held discreetly in Paris in the late 1960s between Boeing engineers (notably Joe Sutter , chief project engineer for the 747, and Bob Withington, a senior engineer who was deeply involved in the SST program) and some of their Soviet counterparts. This meeting had been approved at the highest levels of both governments because each side had something

2747-608: The design assignment. A modern six-window flightdeck followed, in place of the 18-to-20 window glazing of the Il-18 , Il-62 and Il-76. The main problem facing the Il-86 project was the lack of a suitable engine. It was never resolved. By the close of the 1960s, the US and the UK had turbofans with bypass ratios of 4 or 5 to 1. The first Soviet large turbofan, the Lotarev D-18T , did not appear before

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2814-408: The designation of "Il-86" showed the "self-loading" concept with integral boarding stairs, below-deck luggage stores, and below-deck midships galley . It had a twin-aisle interior with nine-abreast seating in a "3–3–3" layout. Ilyushin considered it politic to make the interior wider than any planned airliner except the Boeing 747. The 6.07 m (19.9 ft) fuselage diameter was partly dictated by

2881-559: The entire wing, and also to work on Il-86 developments (“Now we are preparing to manufacture units for the next model of the Il wide-body plane,” according to Belczak). From May 1977, the Polish factory manufactured entire empennages including tailplanes and the fin , all control surfaces , high-lift devices and engine pylons for the Il-86, representing "about 16 per cent of these aircraft." Amid labour and political unrest in Poland from 1980 onwards,

2948-461: The first in the world to use podded engines suspended from pylons beneath and ahead of the wing, on the experimental Ilyushin Il-22 four-engined jet bomber of 1946 (first use of this designation). Having thus presented the Il-86's ultimate configuration as indigenously Soviet, the bureau could at last show it in public in 1973, six years after publication of the aerobus specification and four years after

3015-464: The highest-performance rocket engines ever built. The engines were to propel the N1 lunar rocket , which in the end was never successfully launched. As of 2011, the aging NK-33 remains the most efficient (in terms of thrust-to-mass ratio) LOX/Kerosene rocket engine ever created. The Orbital Sciences Antares light-to-medium-lift launcher has two modified NK-33 in its first stage, a solid second stage and

3082-620: The horizontal axis. Pneumatic starters start the engines (airborne relights use the windmill effect). The forward-facing ejectors blow away detritus during taxi. International Standard Atmosphere hourly fuel consumption per engine is 7.7 t (16,975 lb) at maximum continuous rated thrust, 6 t/13,230 lb at nominal maximum thrust, 5.1 t (11,243 lb) at 85% thrust, 4.2 t/9260 lb at 70%, 3.6 t (7,937 lb) at 60%, 2.45 t (5,400 lb) at 40% and 1 t (2,205 lb) at idle. Overall hourly fuel consumption at long-range cruise and 190 t (419,000 lb)

3149-652: The main deck, a midships galley linked with the main deck by an electric lift, two freight holds (fore and aft of the passenger facilities), an avionics bay and two technical bays. The entire accommodation is pressurised and air-conditioned with "earphones for music or on-board cinema." Cantilevered trapezoid planform swept-back surfaces. Two-segment elevators and rudder. Tailplane area 96.5 m (1,039 sq ft); incidence adjustable between 2° and 12° by electric motors commanded by yoke trim thumbwheels and console trim wheels. Fin area 56.06 m (603.4 sq ft). Landing gear of near-conventional layout, with

3216-406: The mid-1980s. The Soloviev D-30 , originally intended for the Il-86, was the most advanced Soviet civil aeroengine . It had a bypass ratio of 2.4 to 1 and aerodynamic clamshell thrust reversers . It failed to attain the required thrust, however: "only after the lapse of three years that were spent on preparing the advanced development project did it become clear that these engines would not provide

3283-467: The necessary take-off performance." The less-advanced Kuznetsov NK-8 series engine, adopted on March 26, 1975, had a bypass ratio of 1.15 to 1 and drag-inducing grilles over its cascade thrust reversers. Both these engines had high specific fuel consumptions and were noisy . Being ultimate developments of smaller engines, they could not offer growth to future Il-86s. The appropriate/intermediate technology principles to which most Soviet airliners before

3350-476: The need for additional airport capacity. Many Soviet airports also had surfaces too weak for "aerobuses". The Soviet solution again favoured adapting aircraft to existing conditions, rather than reconstructing airports. The aerobus thus had to match the ground loadings of existing airliners. This called for complex multi-wheel landing gear . The Soviet solution to the airport capacity issue involved passengers loading and unloading their own luggage into and from

3417-543: The need to provide standing room in the underfloor luggage compartments. The Il-86 had the second-widest fuselage of any airliner until the Boeing 777 . On this basis, on 9 March 1972, the bureau was asked to proceed with detailed design. The difference between the 1971 model and the eventual Il-86 was in configuration: the model had looked like an Il-62. At that time, the Central Aero and Hydrodynamics Institute ( TsAGI ) favoured

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3484-419: The other wanted very badly: the Soviets wanted to know exactly why Boeing had put the 747 engines in under-wing pods instead of at the rear of the fuselage, while Withington and the Boeing engineers had a long list of questions about the processing and use of titanium in airframes (at the time Boeing badly needed this for their proposed Boeing 2707 SST, at Mach 3 too fast and hot for Concorde-style aluminium, and

3551-469: The propaganda motive, the USSR genuinely needed an aerobus . Aeroflot expected over 100 million passengers a year within a decade (the 100th million annual passenger was indeed carried on 29 December 1976. ) First to respond was OKB-153 , the bureau led by Oleg Antonov . It proposed a 724-seat version of the An-22 airlifter. The project was promoted until 1969, ultimately with a 605-passenger interior (383 on

3618-588: The request of Pacific Southwest Airlines (who used the baggage compartment as an entertainment lounge) and possibly also to suit potential Soviet buyers (see below). In October 1967, the Soviet government approved a Ministry of Civil Aviation (Aeroflot) specification for an aerobus . This called for 350 seats and a range of 3,600 km (1,900  nmis ) with a 40- tonne payload or 5,800 km/3,100 nmi with seats taken but no freight. The airliner had to operate from smaller airports (classified as Klass "B" and "V" [Russian: класс "Б", "В"] or "Class B/C" by

3685-415: The same layout and all are largely built of composite materials . They are high-wing monoplanes with twin engines mounted close to the fuselage , on top of the wing. The wings have straight taper on both edges and almost square tips . The L-4 has a pair of flaps on each wing. Its hull has two steps and there are small winglets at waterlevel just aft of the trailing edge . The cabin extends from below

3752-456: The single tailplane is mounted upon the fin tips, extending well beyond them. Tailplane and single piece elevator together are trapezoidal ; there is a trim tab at the centre of the elevator. The reason for the design is that the spine serves as a walkway to access the plane from behind, when moored at shore. The L-4 has a conventional undercarriage for land use, all three wheels and the water rudder being retractable. The first flight of

3819-419: The span (deploying to 40°) and five-segment spoilers (outboards used as spoilerons at high speeds, inboards used as lift dumpers on the ground). Two-segment outboard ailerons for low speed roll control. Boundary layer fences over pylons. Engines suspended from the wing on pylons act as anti-flutter weights. Trim range is 16–33% of mean aerodynamic chord. Circular-section structure of frames and stringers with

3886-496: The type lasting three days. At the 1971 Paris Salon, Ilyushin bureau head Genrikh Novozhilov and Boeing's Joe Sutter are claimed to have arranged an informal technology trade-off . Over supper in a Paris restaurant, the Soviet side ceded information on titanium technology to the Americans, while the latter, "sketching on the tablecloth," ceded information on pylon-mounted podded engines and "the structural and aerodynamic amity of

3953-480: The upper deck and 223 on the lower). It did not go ahead due to fears that it would be old-fashioned and because the Kyiv -based bureau was close to the deposed Nikita Khrushchev . Many airports had terminals too small for "aerobuses". In the West, the solution to this involved constructing greater airport capacity. By contrast, Soviet aviation research institutes addressed ways of increasing passenger throughput without

4020-563: The verge of bankruptcy. In 2009 the Russian government decided to consolidate a number of engine-making companies in the Samara region under a new legal entity. This was named JSC Kuznetsov , after the design bureau. The Kuznetzov Bureau first became notable for producing the monstrous Kuznetsov NK-12 turboprop engine that powered the Tupolev Tu-95 bomber beginning in 1952 as a development of

4087-479: Was a Russian design bureau for aircraft engines , administrated in Soviet times by Nikolai Dmitriyevich Kuznetsov . It was also known as (G)NPO Trud (or NPO Kuznetsov ) and Kuybyshev Engine Design Bureau ( KKBM ). NPO Trud was replaced in 1994 by a Joint Stock Company (JSC), Kuznetsov R & E C . By the early 2000s the lack of funding caused by the poor economic situation in Russia had brought Kuznetsov to

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4154-624: Was also a project to "civilianise" the Il-76 . From March 1970 the bureau developed all-new designs under the Il-86 designation. Instead of the " appropriate technology " approach of the Il-62, these designs were to have powered controls, complex high-lift devices and advanced automation which would reduce the number of flightdeck crew. An early avanproyekt was shown to the Soviet leadership at an exhibition of civil aviation innovations at Vnukovo-2 Airport near Moscow on May 17, 1971. A scale model with

4221-474: Was granted under certificate number 10–86. The Il-86 entered Aeroflot service on 26 December the same year. The service-entry deadline of summer 1980, announced by Minister of Civil Aviation Boris Bugayev in 1977 had passed, however, and the Il-86 missed the Moscow Olympics in the summer of 1980. Overall development of the Il-86 occupied over a decade. The length of this period was due to the sensitivity of

4288-516: Was mounted to enable the Il-86 to operate in most weather with a three-member flight crew, matching Western technology of the time. The shortage of manufacturing facilities for the Il-86 was a problem from the outset: "The rapid modernisation of the Soviet Air Force ... has left limited scope for the expansion of commercial production ... the lack of production capacity is being remedied partly by ... international cooperation." This meant involving

4355-411: Was tasked with building more than half of each Il-86 and performing final assembly. Three aircraft were assembled at Voronezh by 1979. The first (flown on October 25, 1977) was built largely by hand, subsequent machines making increasing use of production equipment. These aircraft were used in certification and development flying before handover to Aeroflot. Voronezh factory production engineers conducted

4422-495: Was to copy the RB.211-22, for which purpose we had to buy not fewer than eight examples ... The English ... would only sell us the engine in quantities ... to power no fewer than 100 aircraft. As a result, we did not get a sample ... " The design process at Ilyushin was managed by Sergey Ilyushin's successor as head of the bureau, Heinrich Novozhilov. The timescale announced in 1973 envisaged first flight in 1976 and service entry in time for

4489-408: Was to import individual systems and items. This would have speeded Il-86 development. The fact that Il-86 development was protracted indicates that for long periods the programme was pursued as backup insurance in case wholesale technology transfer failed. Before the Boeing 747 had flown, a Ministry of Civil Aviation delegation visited the United States for a series of detailed sales presentations on

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