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Date: 08/22/2019 04:16 PMAirAsia X to launch Kuala Lumpur-Tokyo Narita service [email protected]… Thu, 08/22/2019 - 14:16
Malaysian LCC AirAsia X will introduce new direct service from Kuala Lumpur to Tokyo Narita starting Nov. 20.
AirAsia X Malaysia CEO Benyamin Ismail announced the route via social media, writing the new route will allow passengers the ability to access Tokyo “either through Narita Airport or Haneda Airport, giving them more flexibility on flight times and connectivity ... these new services are in response to overwhelming consumer demand and ahead of what will be a big year for Tokyo tourism in 2020.”
The 4X-weekly Tokyo Narita flight will complement AirAsia X’s existing daily flight to Tokyo Haneda and will add 156,000 seats to the route annually. The Haneda flights depart the Malaysian capital in the afternoon while the Narita flight departs at midnight.
“Operating from two airports in Tokyo with different flight times will also entice more fly-thru guests connecting from other cities within our global network, whilst at the same time, providing Malaysians more flight options to travel to Japan’s capital and largest city,” Benyamin added.
The airline did not specify if the route will use the new Airbus A330-900. Its Thai affiliate AirAsia X Thailand operates 3X-daily flights to Narita, with one of the daily flights using an A330-900, of which AirAsia has 66 on order.
“AirAsia recently took delivery of the airline’s first Airbus A330neo aircraft, which flew its maiden flight from Bangkok’s Don Mueang [International Airport] to Narita on Aug. 15,” AirAsia X told ATW. “Future deliveries of additional A330neo aircraft to be based in Bangkok or Kuala Lumpur will be announced in due course.”
Chen Chuanren, [email protected]
Date: 03/15/2017 02:41 AMSelected U.S. Military Contracts for the Week of March 6 - March 10, 2017 [email protected]… Wed, 03/15/2017 - 01:41
Selected U.S. military contracts for March 6, 2017
Blue Storm Associates Inc., doing business as Pemdas Technologies and Innovation, Alexandria, Virginia, was awarded a $49,500,000 order dependent contract for the Atmospheric Sensing and Prediction System. Bids were solicited via the internet with one received. U.S. Army Contracting Command, Research Triangle Park, North Carolina, is the contracting activity (W911NF-17-D-0001).
Selected U.S. military contracts for March 7, 2017
U.S. AIR FORCE
Kelly Aviation Center LP, San Antonio, has been awarded a $1,001,978,024 indefinite-delivery/indefinite-quantity contract for KC-10 engine contractor logistic support. Contractor will provide engine teardown and overhaul, on-wing support/contract field teams, and engine parts and logistics. In addition, the contractor will provide all support required to fulfill this requirement, including but not limited to labor, materials, tools, equipment, parts, and transportation. Air Force Life Cycle Management Center, Tinker AFB, Oklahoma, is the contracting activity (FA8105-17-D-0002).
Avian LLC, Lexington Park, Maryland, is being awarded an $11,402,443 cost-plus-fixed-fee contract to provide support for the Naval Air Warfare Center Aircraft Division’s Integrated System Evaluation Experimentation and Test Department (AIR-5.1). Services provided will include flight test engineering, programmatic, administrative, design, execution, analysis, evaluation, and reporting of tests and experiments of aircraft, unmanned air systems, weapons and weapons systems. The Naval Air Warfare Center Aircraft Division, Patuxent River, Maryland, is the contracting activity (N00421-17-C-0049).
Selected U.S. military contracts for March 8, 2017
Sierra Nevada Corp., Rancho, California, is being awarded a $30,995,905 modification to a previously awarded firm-fixed-price, cost-plus-fixed-fee, indefinite-delivery/indefinite-quantity contract (N00174-09-D-0003) to extend the ordering period and exercise Option Year 6 for the procurement and support of the transmitting set, countermeasures AN/PLT-5, to support explosive ordnance disposal personnel. The AN/PLT-5 is a man-portable system in support of the Joint Service Explosive Ordnance Disposal Counter Radio Controlled Improvised Explosive Device Electronic Warfare program. The Naval Surface Warfare Center Indian Head Explosive Ordnance Disposal Technology Division, Indian Head, Maryland, is the contracting activity.
Vector Planning and Services Inc., San Diego, is being awarded a potential $17,910,070 indefinite-delivery/indefinite-quantity, cost-plus-fixed-fee contract to provide cyberspace science, research, engineering, and technology integration. Support includes innovative technology assessment and development; rapid software development and prototyping; enabling capability training; security engineering; and cybersecurity risk management. This is one of four multiple-award contracts. All awardees will have the opportunity to compete for task orders during the ordering period. The Space and Naval Warfare Systems Center Pacific, San Diego, is the contracting activity (N66001-17-D-0117).
Selected U.S. military contracts for March 9, 2017
U.S. MISSILE DEFENSE AGENCY
Lockheed Martin Space Systems Co., Sunnyvale, California, was awarded a $53,052,807 competitive cost-plus-fixed-fee contract for a 36-month period with no options for the Multi-Object Kill Vehicle Technology Risk Reduction (TRR) effort. This contract represents part of the Missile Defense Agency’s technology risk reduction strategy to improve performance and reduce risk for a gimbaled seeker assembly, integrated avionics assembly, component integration and testing, and an advanced seeker. The Missile Defense Agency, Huntsville, Alabama, is the contracting activity (HQ0147-17-C-0002).
ViON Corp., Herndon, California, is being awarded a $34,790,000 indefinite-delivery/indefinite-quantity contract to provide Capacity as a Service support to Space and Naval Warfare Systems Command (Spawar) Headquarters, Spawar System Center Pacific and Spawar System Center Atlantic. The Capacity as a Service acquisition model allows Spawar to more accurately scale, up and down, its information technology (IT) infrastructure to meet evolving mission requirements. Savings are realized through no up-front costs and a “pay as you go” acquisition model, reducing waste usually associated with overbuying of IT equipment to eventually meet an expectation of mission requirement. Under this contract, ViON is responsible for providing on-demand, on-premise computing, networking and storage solutions for a variety of systems and applications for the command’s research, development, testing and evaluation core infrastructures, laboratory and data center environments. This contract includes options, which if exercised, would bring the maximum contract value to $49,990,000. The Space and Naval Warfare Systems Command, San Diego, is the contracting activity (N00039-17-D-0003).
Date: 04/18/2016 07:42 PMProduct Realization Pop Quiz [email protected]… Mon, 04/18/2016 - 17:42
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Date: 07/08/2021 11:17 PMDaher-Socata TBM 850/900 [email protected]… Thu, 07/08/2021 - 21:17
Daher-Socata's TBM 850 and 900 airplanes, powered by the ubiquitous Pratt & Whitney Canada PT6 engine, are amongst the fastest of the current crop of single-engine turboprop airplanes. And while these airplanes do differ somewhat, they have far more in common than not. Both the 850 and 900 are type designated the TBM 700N – the 900 being differentiated by certain modifications – both have a top speed of 270 KIAS (Knots – Indicated Airspeed), both utilize the PT6A-66D engine, both have a maximum seating capacity of five and the same internal cabin space, and both have the same maximum takeoff weight. From a specifications standpoint, the only significant difference is the slightly longer wingpsan and wing area of the 900. Differences do exist in performance, however, with the 900 sporting a shortened takeoff distance over a 50' obstacle and a published range increase of almost 150 nautical miles.
Although the original TBM – the 700 – received its type certification nearly a quarter century ago, the 850 and the 900's type certificates are of far more recent vintage. The first iteration of the 850, which did not feature a glass cockpit, received its type certificate on November 28, 2005. A version that featured Garmin's G1000 avionics system was certified in 2007. The most recent version, the TBM 900, was certified in December 2013.
Date: 06/29/2021 11:17 PMYakovlev Yak-130 [email protected]… Tue, 06/29/2021 - 21:17
Creative Commons (CC BY 2.0)
The Yakovlev Yak 130 is a Russian advanced jet trainer and light attack aircraft. It is powered by two Ivchenko-Progress AI-222-25 turbofan engines supplying 5,500 lbf. (2,500 kgf) of thrust each.
In the early 1990s the Russian air force sought to procure a new advanced jet trainer to replace the Czech Aero Vodochody L-39 Albatros. At the time of the dissolution of the Soviet Union, approximately 1,000 L-39s were in Soviet Air Force service. After the Czech Republic ceased delivering new L-39s and spares, and with the Soviet fleet over a decade into its service life, a replacement would be necessary by the mid-2000s.
L-39 replacement initiatives began even before this need became apparent, however. In June 1990 the Soviet State Military Industrial Commission issued a resolution ordering the development of a new trainer. The requirement was finalized in October of that year. It described a two-engine aircraft with a 170km/h (91.8 kt) landing speed, a 1,350 nmi (2,500 km) ferry range, a 0.6-0.7 thrust-to-weight ratio and an austere runway capability. Deliveries were to commence by 1994.
Preliminary design studies were submitted by Mikoyan-Gurevich, Sukhoi, Yakovlev and Myasishchev, with Mikoyan and Yakovlev selected by the new Russian Ministry of Defense (MoD) in January 1992 to proceed with prototype development. The dissolution of the Soviet Union substantially delayed the timetable for the program. While Mikoyan moved ahead with its MiG Advanced Trainer (MiG-AT), Yakovlev started on its Yak-UTS. The MiG-AT first flew in March 1996 and had a low straight wing with engines mounted on either side of the fuselage at the wing root and a mid-mounted, lightly swept tailplane. It was intended to be inexpensive to operate and to offer improved fuel efficiency compared to the L-39.
The Yakovlev proposal was less conventional, incorporating a high delta wing with a conventional tail and composite materials. In 1992, unable to secure enough funding from the Russian government, Yakovlev signed an agreement with Aermacchi to cooperate on designing a trainer. The project was dubbed Yak/AEM-130. Aermacchi had been working for some time on an “AT-X” jet trainer to market to European air forces, and from 1988 to 1991 had worked with Dornier on studies for such an aircraft. This had resulted in the AT-X12 and then the AT-2000 Mako, a tailed-delta design. Aermacchi’s early design work comported well with concepts for the Yak-130, whose configuration was approved by the Russian Ministry of Defense (MoD) in 1993. The Yak-130D demonstrator first flew in April 1996. Note that Mikoyan also secured foreign cooperation on its proposal, incorporating Turbomeca Larzac 04 engines and Thomson avionics into the MiG-AT design.
In 1994 the first Yak-130 demonstrator was completed and dubbed the Yak-130D. It was airlifted to the Le Bourget airshow in June 1995, where it was put on static display. The demonstrator carried RD-35 engines manufactured by Klimov under a 1994 license agreement with Povazske Strojarne, the Slovak company with the rights to the DV-2 engine the RD-35 was derived from. The Yak-130D first flew in April 1996, a month after the first flight of the MiG-AT. Many of the test flights it conducted in the following years were carried out at Aermacchi facilities in Italy.
The divergent requirements of the Russian and European trainer markets ultimately resulted in the dissolution of the Aermacchi-Yakovlev partnership at the end of 1999. Competing industrial imperatives made the partnership untenable; Russia sought to minimize the presence of foreign components in the design, while Aermacchi could not hope to produce or market an aircraft made predominantly in Russia. When the cooperation agreement ended, the parties agreed that both would have the right to produce their own derivatives of the basic Yak/AEM-130 design, and Yakovlev secured a $77 million ($118 million in 2019 USD) payment from Aermacchi in exchange for providing full documentation of the design. This funding was critical for the continuation of the program. Aermacchi quickly unveiled an aircraft it dubbed the M-346 Master, which is aerodynamically very similar to the Yak-130 and shares its design lineage because of the development partnership.
In April 2002, the Yak-130 was declared the winner of the MoD’s trainer competition. The same year the Yak-130D’s flight test regime concluded, and the prototype was mothballed in 2004. In April 2004, the first production-standard Yak-130 flew. Flight trials for the production aircraft then took place over the next five years, first at Yakovlev and then with the Russian air force, with three aircraft eventually involved. A contract was signed between Yakovlev and the Russian MoD in May 2005 to procure 12 low-rate initial production (LRIP) aircraft. On July 26, 2006, the third prototype aircraft crashed with no loss of life, and the program was delayed as changes were made to the flight control software. In November 2007 the Yak-130 received a preliminary certificate from the military, and production of the 12 LRIP aircraft began.
Flight tests were completed in December 2009, four years after the 2005 conclusion of static airframe tests. The first few serial production aircraft were manufactured at the Sokol aircraft manufacturing facility in Nizhny Novgorod, but the Irkutsk Aviation Plant became the sole assembler of the Yak-130 after entering the program in 2006. In February 2010 the Yak-130 entered Russian air force service.
The Yak-130’s overall aerodynamic and structural configuration changed somewhat from that of the Yak-130D. It remained a tailed delta aircraft with a stabilator and a swept vertical tail, but its fuselage was shortened by 16 in (41 cm), its wing area was reduced and its midsection was shrunk. This permitted significant weight reductions, increasing the thrust-to-weight ratio while retaining the principal features of the original design. The airframe also is built predominantly of light alloys, with carbon fiber composites extensively used for the control surfaces. To accommodate a radar, the nosecone also was enlarged.
The wing is swept 31-deg. and fitted with leading-edge flaps. On the trailing edge, the wing is fitted with ailerons and fowler flaps. Both the wing and the horizontal stabilizer feature a dogtooth to induce vortices over the wing. This redirects spanwise airflow at high angles of attack, providing lift augmentation.
Because of the Yak-130’s small size and its limited capabilities compared to two-seat derivatives of fighters like the MiG-29UB or Su-27UB, the Yak-130 is a less costly solution for transitioning pilots to combat aircraft. In a similar vein, many other air forces have adopted aircraft such as the Leonardo M-346 or KAI T-50 to fill the niche previously occupied by two-seater variants of their frontline fighter aircraft. To enhance its training capability, the Yak-130 includes an integrated virtual training system that permits live engagements against virtual targets. The system also includes a recording system for after-action reports and analysis.
The two-person crew is seated in a tandem cockpit, with the student pilot in the front. The front and rear seats have 16-deg. and 6-deg. look-down visibility, respectively. For emergency egress, the aircraft is fitted with two K-36L-3,5Ya zero-zero ejection seats. The seats are designed to eject through the canopy, which is fitted with an explosive cord. The seats are rated for ejections at up to 567 kt (1,050 km/h) and at altitudes up to 4,265 ft (1,300 m). Life support is provided by an on-board oxygen-generating system (OBOGS) and an air-conditioning system aft of the cockpit. Because of the OBOGS, the aircraft is not dependent on airfield infrastructure to restore its oxygen supply between flights.
A self-test system is built into the aircraft for ease of maintenance, and it also assists in conducting pre-flight checks to reduce the minimum time required to put the aircraft in the air. Irkut states that a given Yak-130 airframe can remain in operation for up to 30 years, and it offers an integrated logistics support package for its customers. The Yak-130 has a tricycle landing gear with low-pressure tires for high flotation over unpaved runways.
Though the Yak-130D had analog flight controls, the Yak-130 features KSU-130 quadruple-redundant fly-by-wire flight controls. These controls feature adjustable flight envelope restrictions allowing the Yak-130 to simulate aircraft with disparate maneuvering characteristics and to operate in a restricted envelope for earlier phases of pilot training. Leading-edge root extensions and leading-edge flaps allow flight at up to a 40-deg. angle of attack. For safety, the aircraft is equipped with an automated spin recovery system and flight envelope protections.
The Yak-130 is powered by two Ivchenko-Progress AI-222-25 engines producing 5,500 lbf. (2,500 kgf) of thrust each. The engines were produced jointly by Ukraine’s Motor Sich and Russia’s MMPP Salyut until 2015, when Salyut declared it was now fully capable of independently building the engine. Air intakes are covered by doors during taxiing, takeoff and landing to reduce the risk of foreign object debris (FOD) ingestion from unimproved runways. When operating in this mode, auxiliary intake doors open in the top of the wing root, thereby getting oxygen to the engine with a dramatically lessened risk of FOD ingestion. This is similar to the intake door system designed for the MiG-29.
A TA14-130 auxiliary power unit (APU) supplied by Aerosila is used to start engines and generate AC power. The APU can be activated in-air to restart the engines if necessary, and it exhausts to the starboard side of the aircraft.
Fuel is stored in three internal fuel tanks—one in the fuselage aft of the cockpit and one in each wing. Altogether this represents 3,747 lb. (1,700 kg) of fuel capacity, though in normal operation the Yak-130 typically carries around half of this maximum. Two PTB-450 drop tanks can be carried underwing, each with a capacity of 992 lb. (450 kg) of fuel.
The Yak-130 features a K-130.01 full glass digital avionics suite. The suite is built around two BTsVM90-604 computers and a three-channel multiplex databus. Data from the system is displayed primarily on three MFTsi-0333M 6x8-in., full-color multifunctional displays for each pilot station. The forward station also includes an ILS-2-02 head-up display (HUD) with a PUI-130 up-front control panel (UFCP). This UFCP also is included in the rear station despite the lack of the HUD.
For navigation, the Yak-130 carries an RPKB/Sagem LINS-100RS-02 inertial navigation system with an A737 global navigation satellite system (GNSS) receiver. The LINS-100RS-02 is designed around a ring laser gyroscope to provide enhanced accuracy over traditional inertial navigation systems (INS). It also carries a VNIIRA RSBN-85 tactical air navigation (TACAN) system, an ARK-40 automatic direction finder and an A-053-06 radio altimeter. For combat purposes, the aircraft carries the SUO-130 weapons management system and the Izdeliye 4280 identification friend or foe (IFF) system.
The Yak-130 can carry a podded variant of the Platan IRST. The Platan also is carried on the Su-34, but in that configuration is integrated directly into the Su-34’s fuselage.
For self-protection, the Yak-130 can carry two electronic countermeasures (ECM) pods. It also can carry wingtip-mounted UV-26M 26mm flare dispensers, each of which can carry 32 flares.
The Yak-130 has six underwing weapons pylons, two wingtip missile/pod rails and one underbelly pylon for a gun pod. It can carry a maximum of 6,614 lb. (3,000 kg) of payload. Possible weapons stores for the Yak-130 include:
The aircraft also supports a helmet-mounted cueing system (HMCS) for carriage of the R-73E.
The Yak-130D was the demonstrator built for the early flight-test phase of the Yak-130 program. Besides the previously mentioned differences in aerodynamic configuration from the demonstrator to the production aircraft, the Yak-130D has analog instrumentation with one small MFD in lieu of the glass cockpit used on the final Yak-130 design. It also lacks wingtip missile rails and the OBOGS.
Yak-130 is the designation for the base variant of the aircraft. At the izdeliye level, there are three subvariants of the Yak-130: the Yak-130.01, manufactured at the Sokol facility in Nizhny Novgorod; the Yak-130.11, manufactured at Irkutsk; and the Yak-130.12, the export variant of the aircraft.
The Yak-131, Yak-133 and Yak-135 were a series of modification proposals developed throughout the late 1990s and early 2000s to develop mission-specific Yak-130 variants. Of these variants, the Yak-131 was to incorporate a radar and expanded weapons options, the Yak-133 was to be a single-seat ground-attack aircraft and the Yak-135 was to be a supersonic single-seat light fighter. Derivatives of the Yak-133 design also were considered, namely the Yak-133IB fighter-bomber, the Yak-133R reconnaissance aircraft and the Yak-133P escort jammer. None of these designs ever progressed to concrete prototyping or production work. Yakovlev has instead taken an incremental approach to expanding the capabilities of the Yak-130 platform.
Yakovlev also considered developing a family of unmanned aerial vehicles (UAVs) out of the Yak-130 airframe. These were to have a maximum takeoff weight of around 22,046 lb. (10,000 kg) and would have included the Proryv-U strike aircraft capable of flying at 594 kt (1,100 km/h) with a 6,614 lb. (3,000 kg) weapons load, the Proryv-R reconnaissance variant and the Proryv-RLD early warning variant. The Proryv-R and Proryv-RLD were to feature high-aspect-ratio, unswept wings.
This designation is applied to a developmental aircraft integrating upgraded avionics, a strengthened undercarriage, plumbing for a removable in-flight refueling (IFR) probe and the LD-130 laser rangefinder described in the “Upgrades” section. The IFR probe is designed to meet the MIL-A-87166 standard. MIL-A-87166 is a deprecated standard for aerial refueling systems that was maintained by the U.S. Air Force prior to its cancellation in 1996.
Called “Легкий ударный самолет” (Logkiy Udarnyi Samolyot) in Russian, the LUS is a concept to develop a dedicated light attack aircraft out of the Yak-130. The LUS would include further avionics upgrades, an OEPrNK electrooptical targeting system and a nose radar. The radar is likely to be either the Phazotron FK-130 Kopyo-50, NIIP Bars-130 or the Leonardo Grifo-200 and the new targeting system will enable the integration of both the Kh-38M air-to-ground missile and Kh-31 antishipping/antiradiation missiles.
At MAKS 2015 Irkutsk unveiled a modified Yak-130 with a nose-mounted LD-130 laser rangefinder and target designator. The LD-130 also integrates an electrooptical system for target acquisition. Because this system is not gimbaled and appears to have a limited frontal field of regard, its utility against ground targets is inferior to those of podded systems such as the Lockheed Martin AN/AAQ-33 Sniper Advanced Targeting Pod. It is apparently intended mostly as an aiming aid for the podded cannon.
Following the exclusion of Motor Sich from AI-222-25 production for the Yak-130, Salyut has sought to independently develop and build a new engine for the aircraft. It has dubbed the notional engine the SM-100. Aside from achieving industrial independence for the Yak-130 program, Salyut intends to raise the thrust to 6,614 lbf. (3,000 kgf) by incorporating an afterburner.
The aircraft Irkutsk displayed at MAKS 2015 also carried wingtip-mounted Talisman-NT electronic warfare pods manufactured by the Belarusian company Defense Initiatives. These pods provide self-protection in the frontal and rear arcs against active and semi-active radar homing and infrared homing surface-to-air and air-to-air missiles (SAMs and AAMs). Talisman-NT also is effective against command-guided SAMs, and it appears to integrate with the existing podded chaff/flare dispenser and EW system designed for the Yak-130.
The protection arcs cover 90 deg. horizontally and 60 deg. vertically from the nose and tail. Threat warning is provided by radar warning receivers and a missile approach warning system that display threat information on one of the cockpit MFDs. The system can react to threats autonomously. It is apparently designed to jam threat radar systems, prematurely detonate the radio proximity fuses of approaching missiles and automatically launch flares against incoming IR-guided missiles. Finally, the system can pass target data to antiradiation missiles. The manufacturer claims 10 W of output power (1,400 W input) over the 2.0-18.0 GHz radio band.
Algeria placed an order in March 2006 for 16 Yak-130s to be delivered from 2008 to 2009. After three years of delays, the first aircraft were delivered in November 2011 and the remainder arrived in 2012. They have export-standard identification friend-or-foe equipment, and their cockpit instrumentation is scaled in imperial units. All labels on the aircraft are in French. These aircraft also were ordered with UV-26M wingtip flare dispensers. The contract reportedly included a significant option for additional aircraft.
Bangladesh placed an order for 16 Yak-130s in 2013. It anticipated delivery of the aircraft in 2015 and 2016; by the end of 2015 six had been inducted and the remaining 10 followed in 2016 as expected.
On July 11, 2017, a Bangladeshi Air Force Yak-130 crashed at Lohagora, Chittagong, due to a fault in the flight control system. Another accident followed on Dec. 27, 2017, when two more Yak-130s suffered a midair collision. Accordingly, only 13 remain in service in 2021.
In December 2012 the Belarusian MoD ordered four Yak-130s with delivery expected in 2015. The four aircraft were inducted into Belarusian Air Force service on April 27, 2015. In August 2015, Belarus ordered a further four aircraft, which were delivered in 2016. Four more were contracted in 2018 and delivered by July 2019. The 12 aircraft are used primarily for light attack in Belarusian service and are teamed with Su-25s. On May 19, 2021, a Belarusian Yak-130 was lost in a crash.
From 2016 Iran considered ordering up to 24 Yak-130s from Russia as part of a wider arms deal, but as of June 2020 nothing had materialized to this end.
A $300 million contract for 10 Yak-130s was signed in August 2017. The first four of these aircraft were delivered in December 2018 by an Il-76. This delivery marked the reintroduction of an aerial combat capability Laos had lost in the 2000s with the retirement of its MiG-21s.
A contract was signed with Libya in January 2010 for the procurement of six aircraft. The civil conflict that began during the Arab Spring in February 2011 and culminated in the October 2011 downfall of the Gaddafi regime ensured that the contract would never be fulfilled.
Irkutsk has offered the Yak-130 for the Royal Malaysian Air Force’s light combat aircraft competition, under which Malaysia hopes to acquire at least 36 aircraft. To meet Malaysia’s requirements, Russia is offering the aircraft with the NIIP Tikhomirov Bars-130, a downsized derivative of the Bars-M radar used on Malaysia’s Su-30MKM. It also will carry enhanced countermeasures, with UV-26M pods at the wingtips and two underwing ECM pods incorporating infrared and radar warning receivers.
The Yak-130’s commonality in manufacturing and maintenance with the Su-30MKM may make the aircraft more attractive against its competitors, the KAI FA-50, the BAE Hawk, the Sino-Pakistani JF-17 Thunder, the Chinese L-15 Hongdu, the Czech L-39NG, the HAL LCA Tejas and the Leonardo M-346FA. Irkutsk also is offering to provide the aircraft as knockdown and semi-knockdown kits as an industrial offset.
In 2015 Myanmar placed an order for 14 Yak-130s. Six were delivered in 2017 and eight followed in 2019 for a total of 14 in service.
In April 2015 the head of Nicaragua’s armed forces indicated that Nicaragua would acquire six new light attack aircraft in the coming years. He mentioned the EMB-314 Super Tucano, the Yak-130 and the MiG-130. Despite the wide range of capabilities apparently under consideration in June 2017 the Nicaraguan newspaper La Prensa reported that the government had selected the Yak-130. It is clear that the government has a preference for the Yak-130 but it is unlikely that a firm agreement has been or can be reached on procurement due to Nicaragua’s limited fiscal resources.
In December 2011 the Russian MoD signed a contract with Irkut Corporation for the procurement of 55 Yak-130s, which were to be delivered by 2015. These aircraft would complement the twelve low-rate initial production (LRIP) aircraft already procured under a May 2005 contract with Sokol. Only the LRIP aircraft were built at the Sokol plant in Nizhny Novgorod. In December 2013, the MoD ordered 12 more aircraft for a new aerobatic display team. The same month, 10 aircraft were ordered for the Russian Navy. Irkut was awarded another contract in 2018 for 30 Yak-130s. Sometime in 2019 the MoD is believed to have ordered an undisclosed number of additional aircraft. Finally, in August 2020 the Russian MoD announced another contract for 25 Yak-130s.
In total, Aviation Week believes 151 aircraft have been ordered. As of May 2021, 111 had been delivered, with five more to follow by the end of the year.
On May 29, 2010, a Yak-130 crashed due to the flight envelope protection system reacting to incorrect maintenance parameters set by the ground crew. The aircraft was grounded while the flight control software was rewritten. Another crash occurred in April 2014, with one pilot killed. Because of these crashes, 109 Yak-130s are in Russian Air Force service in 2021. The four remaining trials aircraft remain with Yakovlev, and the Yak-130D was donated to the Monino Central Air Force Museum.
In December 2011 Syria signed a contract for the procurement of 36 Yak-130s. For political and financial reasons related to the catastrophic civil war that began that year after the Syrian state responded to Arab Spring protests with force. The contract was never canceled, and efforts were made into 2014 to begin deliveries of the aircraft, but they have not materialized as of May 2021. In June 2019 Syrian Arab Air Force (SyAAF) pilots reportedly were dispatched to Russia to receive training on the Yak-130, but it is not clear whether this was related to the procurement contract or was intended to train Syrian pilots for other aircraft as part of Russian efforts to support the beleaguered Syrian military.
In January 2020 Vietnam signed a $350 million contract to procure 12 Yak-130s to replace its L-39 jet trainers. The new aircraft will join the 915th Training Aviation Regiment of the Vietnam Peoples Air Force.
the 915th Training Aviation Regiment of the Vietnam Peoples Air Force.
Some of these aviation news pages are compiled with a RSS feed from several news sources. As such, we can not take any responsibility for the correctness of these items.