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Kamov Ka-50

From Alfawiki
Kamov
IndustryAerospace, Defense
Founded1940s (Kamov Design Bureau)
Headquarters
Arsenyev
,
Russia
ProductsKamov Ka-50 "Black Shark", Kamov Ka-52 "Alligator"


Template:Infobox aircraft

The Kamov Ka-50 "Black Shark" (Russian: Камов Ка-50 «Чёрная акула», romanized: Chyornaya akula, meaning black shark and referring to the English term kitefin shark), designated by NATO as Hokum A, is a Soviet/Russian single-pilot attack helicopter featuring the unique coaxial rotor configuration characteristic of the Kamov design bureau. Conceived during the 1980s, it entered operational service with the Russian military in 1995. Built by Progress in Arsenyev, this helicopter serves as a heavily equipped scout helicopter[1] and is notable for incorporating an ejection seat system, which is uncommon in rotary-wing aircraft.

In the late 1990s, Kamov collaborated with Israel Aerospace Industries to develop a tandem-seat cockpit variant known as the Kamov Ka-50-2 "Erdogan" (Russian: Эрдоган, Turkish: Erdoğan), intended for Turkey's attack helicopter competition. Additionally, Kamov produced a two-seat model called the Kamov Ka-52 "Alligator" (Russian: Аллигатор, NATO reporting name: Hokum B).[2] As of 2023, the unit price for the Ka-52 stands at approximately US$16 million.[3]

Development

The Ka-50 represents the finalized production variant of the V-80Sh-1 prototype. On 14 December 1987, the Soviet Council of Ministers authorized the manufacturing of this attack helicopter. Initial Western awareness of the helicopter's development surfaced in 1984, with the first photographic evidence emerging in 1989. Operational evaluations conducted between 1985 and 1986 revealed that the pilot's workload paralleled that of a fighter-bomber aviator, enabling a single pilot to manage both flight control and navigation responsibilities.

In line with Kamov's design philosophy, the Ka-50 employs a signature coaxial contra-rotating rotor configuration. This eliminates the necessity for a conventional tail rotor, enhancing the helicopter’s maneuverability and aerobatic capabilities—such as executing loops, rolls, and "the funnel" (circle-strafing) maneuvers, where the aircraft maintains continuous visual contact with a target while circling at varying altitudes and speeds. The absence of a tail rotor is advantageous because traditional torque-counteracting tail rotors can consume up to 30% of engine output. Additionally, the compact transmission system presents a reduced target profile against ground-based attacks.

To enhance pilot safety, the Ka-50 is equipped with an uncommon feature for helicopters: an ejection seat developed by NPP Zvezda (translated as Star), specifically the K-37-800 model. Prior to seat ejection, explosive charges sever the rotor blades from the rotor disc and jettison the canopy to clear a safe path for pilot escape.

File:Ka-50 NTW 7 8 93.jpg
Kamov Ka-50 "Black Shark" exhibited

Following successful flight and system validation tests, production was greenlit by the Council in 1990. The designation "Ka-50" was publicly introduced during a UK symposium in March 1992. Its official debut occurred at Mosaeroshow '92 held at Zhukovskiy in August of that year. The subsequent month saw the second production unit showcased overseas at the Farnborough Airshow, featuring a werewolf emblem on its rudder—a design that led to its popular moniker "Werewolf." The fifth prototype, finished in black paint, starred in the film Чёрная акула (Black Shark), which contributed to its enduring nickname.

In November 1993, four production helicopters were delivered to the Army Aviation Combat Training Centre at Torzhok to commence field testing. Official deployment within the Russian Ground Forces was approved by Russia’s president on 28 August 1995. However, following the dissolution of the Soviet Union, defense spending plummeted sharply, limiting deliveries to roughly a dozen Ka-50 units rather than the originally planned several hundred intended to replace the Mil Mi-24.

The single-pilot layout was viewed unfavorably by NATO forces. Early Ka-50 prototypes featured deceptive painted-on windows designed to mislead Western intelligence during initial sightings in the mid-1980s. This ruse led some analysts to mistakenly interpret its primary role as an air superiority platform focused on countering NATO attack helicopters—a concern amplified by NATO’s recent J-CATCH program findings.

Among Russian military aviation assets, the Ka-50 and its variants have been selected primarily as support helicopters for special forces operations, while the Mil Mi-28 serves as the principal army gunship. Production of the Ka-50 resumed in 2006, and by 2009, three helicopters constructed from incomplete airframes dating back to the mid-1990s were delivered to the Russian Air Force.

Ka-50N "Night Shark" and Ka-50Sh

Since the initial Ka-50 order in 1987, it was evident that the original model's limited night operational capabilities required enhancement to fulfill night attack roles. Initially, the Ka-50N was planned to incorporate the Merkury Low-Light TV (LLTV) system. However, due to funding shortages, this system was delayed and suffered from performance and reliability shortcomings. Consequently, attention shifted towards integrating forward looking infrared (FLIR) technology. In 1993, Kamov developed a design featuring the Shkval-N sighting system equipped with an infrared sensor. Various configurations were tested: some retained the original Shkval supplemented by thermal imaging, while others replaced it entirely with the Samshit day-and-night system, which is also employed on the Ka-52. The imaging devices trialed included those produced by French manufacturers SAGEM and Thomson. Due to slow progress in domestic imaging solutions, Kamov had to temporarily rely on foreign alternatives.

Testing culminated in two primary versions: the Ka-50N "Night Shark" (Russian: Ночная акула, meaning "velvet belly lanternshark") and the Ka-50Sh (Russian: Шар, romanized: Shar, translating to "ball," referencing its spherical FLIR turret). The first Ka-50Sh, which was the eighth pre-production unit designated Bort 018, conducted its maiden flight on 4 March 1997. Both Kamov and Black Shark insignias adorned its endplate fins and vertical stabilizer. This variant incorporated the Samshit-50 system housed within a 640 mm (25 in) diameter spherical turret beneath the nose, while relocating the Shkval system to the nose cone area. Neither night-attack model of the Ka-50 proceeded into full-scale production.

Ka-50-2 "Erdogan"

In 1997, Kamov partnered with Israel Aerospace Industries (IAI) to submit the Ka-50-2 Erdoğan for a Turkish competition aimed at acquiring combat helicopters valued at $4 billion for an initial order of 145 units, later reduced to 50.

The Ka-50-2 featured a tandem-seat cockpit configuration distinct from the original Ka-50. It incorporated advanced Israeli-made "glass cockpit" avionics and replaced the fixed cannon with a turret-mounted folding 30 mm gun designed to fold for landing clearance. Equipped with combat-proven avionics and sophisticated anti-tank guided missiles, this variant offered enhanced operational effectiveness. The helicopter utilized IAI’s adaptable modular avionics suite, allowing customization to meet Turkish Land Forces (TLF) requirements while providing future upgrade potential.

Flight tests were conducted by IAI and Kamov using IAI’s Core Avionics suite. These trials showcased the helicopter’s glass cockpit featuring multifunctional displays and Control and Display Units (CDUs) managed by centralized mission computers. Additionally, evaluations covered flight navigation systems and operation of the Helicopter Multi-Mission Optronic Stabilized Payload (HMOSP) targeting apparatus. Demonstrations included night operations employing Night Vision Goggles (NVG) alongside day/night targeting capabilities.

Ultimately, Turkey selected an upgraded version of the Bell AH-1 SuperCobra over contenders such as the Erdoğan, Eurocopter Tiger, AH-64 Apache, Denel Rooivalk, and A129 Mangusta. The contract was awarded to the A129 in 2007.

Ka-52 "Alligator"

File:Ka-52 at MAKS-2009.jpg
Ka-52 "061", Zhukovski, 2009

During the early 1980s, as the V-80 (prototype of the Ka-50) and Mi-28 underwent comparative evaluations, Kamov's design bureau proposed creating a specialized helicopter for battlefield reconnaissance, target designation, and coordination of group attack helicopter missions, based on the Ka-60. However, economic difficulties in the late 1980s impeded progress on this initiative. Consequently, Kamov's Chief Designer opted to adapt the Ka-50 by incorporating reconnaissance and target designation systems. This modified "Black Shark" required an additional crew member to manage the optoelectronic and radar reconnaissance equipment. To enhance crew collaboration, a side-by-side seating configuration was selected, resulting in a two-seat variant named Ka-52.[4]

File:Kamov Ka-52.jpg
Production Ka-52 at Torzhok Air Base

Compared to the original Ka-50, the Ka-52 features a redesigned radome housing a nose-mounted radar system for targeting purposes, giving it a more rounded nose profile. It is equipped with a spherical turret beneath the nose containing a day-and-night TV/thermal imaging system; some units also include an additional mast-mounted radar for aerial threats and a secondary sighting device situated above the cockpit. The side-mounted cannon from the Ka-50 is retained on the Ka-52.[5] The helicopter has six wing hardpoints, an increase from the four found on the Ka-50. To maintain weight and performance comparable to its predecessor, armor protection and cannon ammunition capacity were reduced. This resulted in some degraded flight characteristics: climb rate decreased from 10 to 8 m/s, and maximum positive load factor dropped to 3.0 g. Most of these issues were addressed by fitting the new VK-2500 engine.[6] The Ka-52 is certified for operations during day and night as well as under adverse weather conditions.[7]

Construction of the initial Ka-52 airframe commenced in mid-1996.[4] Serial manufacturing began in autumn 2008.[8] As of September 2010, the 696th Instructor and Research Helicopter Regiment stationed at Torzhok (air base) operated eight helicopters in various stages of capability and modification for research and development purposes.[9] In December 2010, four newly produced Ka-52s were delivered to the Air Base[10] of the 344th Centre for Combat Training and Aircrew Conversion.[11]

File:Russian Air Force Kamov Ka-52 cockpit (19604206626).jpg
Cockpit of Russian Aerospace Forces Kamov Ka-52

The initial stage of official testing (ГСИ) concluded in December 2008, after which approval was granted to produce an experimental batch for phase two (ГСИ), which included live-fire trials and target acquisition evaluations.[12]

By late 2008, serial production of the Ka-52 was underway at the Progress Arsenyev Aviation Company facility in Arsenyev, Primorsky Krai.[13][14] Following completion of state trials, the Ka-52 was officially inducted into service in May 2011, with initial operational units joining the Russian Air Force that same month. According to earlier State Defense Procurement Plans, by 2012 the Russian Armed Forces were scheduled to receive two experimental and twenty-four serial production Ka-52 helicopters.[15] A second extensive contract signed in 2011 valued at 120 billion rubles aimed to equip the Russian Aerospace Forces with a total of 146 Ka-52 helicopters by 2020. In February 2018, the Russian Ministry of Defence announced plans to acquire an additional 114 updated version Ka-52s as part of the new State Armament Program spanning from 2018 to 2027.[16]

Ka-52 "Nile Crocodile"

In 2015, Egypt finalized an agreement to acquire 46 Ka-52 helicopters, with the contract scheduled for completion by 2020. Russian Helicopters commenced manufacturing the initial export units in early 2017, doubling production capacity to satisfy increased demand. The first shipment, consisting of three Ka-52 attack helicopters, was delivered to Egypt in July 2017, followed by another three in August. By the end of that year, Egypt had taken delivery of 19 Ka-52s; however, these early models encountered challenges involving engine performance, night vision capabilities, navigation systems, and various avionics components. On 6 December 2018, during the EDEX, it was officially announced that the Ka-52 had been inducted into service with the Egyptian Air Force.

The Egyptian iteration of the Ka-52 Alligator is a customized variant of the standard model operated by the Russian Aerospace Forces. It incorporates anti-corrosion materials and features a strengthened fuselage framework. Additionally, it is equipped with redesigned landing gear and wheels tailored to accommodate its augmented takeoff weight. The helicopter's avionics suite has been modernized, and a new cooling system was installed to ensure optimal performance in high-temperature environments. Dmitry Rogozin, Russia’s Deputy Prime Minister responsible for defense and space industries, suggested naming this variant the "Nile Crocodile."

This helicopter is outfitted with the advanced OES-52 electro-optical observation and laser targeting system, which replaces the conventional GOES-451 sensor located beneath the nose. Developed starting in 2011 through a joint effort between Kamov and French company Sagem, this system is based on Sagem’s STRIX sighting technology, offering enhanced detection and target identification ranges.

The Ka-52 Nile Crocodile also integrates the Arbalet-52 dual-band coherent pulse radar. This radar provides Earth mapping capabilities up to 32 km and can detect ground targets at distances up to 25 km as well as aerial targets within 15 km.

For defensive measures against guided missile threats, these helicopters utilize the President-S airborne protection system. This suite includes radar and laser warning receivers, missile approach warning sensors, chaff and flare dispensers, along with electronic countermeasures and directional infrared countermeasure (DIRCM) jammers. The Egyptian Ka-52s are fitted with two unique DIRCM units mounted on either side of the fuselage that differ from the standard L370-5 models. Furthermore, the laser-warning system found on Russian versions has been replaced by an L-150 Pastel radar warning receiver in the Egyptian variant.

Regarding armament, Egypt intends to equip its Ka-52s with Russian anti-tank guided missiles. The Air Force has selected two missile types: the laser-guided Vikhr and the radar-guided Ataka beam-riding missiles.

Ka-52K "Katran"

File:Russian Navy, Kamov, Ka-52K (21444723505).jpg
Ka-52K "Katran" operated by the Russian Navy

The Mistral-class amphibious assault ships, initially commissioned by the Russian Defense Ministry,Template:Fix/category[citation needed] were intended to host rotary-wing aircraft organized into aviation units. Each aviation unit was designed to comprise eight attack helicopters alongside eight assault/transport helicopters. The Ka-52K "Katran" (Russian: Катран, meaning 'mud shark'), a naval adaptation of the Ka-52, was chosen as the primary ship-based attack helicopter for Russian Naval Aviation. Its design includes foldable rotor blades and wings, as well as strengthened landing gear. Due to its shorter wingspan compared to the land version, the Ka-52K is equipped with four weapons pylons instead of six found on the terrestrial Ka-52. Plans exist to upgrade the Ka-52K with a radar system offering extended range relative to the Ka-52’s radar. Additionally, the helicopter is intended to deploy Kh-35 and Kh-38 missiles; however, integration of these weapons into its mission systems has yet to be completed.[17] Russian Naval Aviation requires a minimum of 40 Ka-52Ks, with the first expected to enter squadron service around early 2015, aligning with the delivery timeline of the initial carrier.[18]

Following Russia's annexation of Crimea, the Mistral deal was cancelled and these vessels were subsequently sold to Egypt.[19][20] Subsequently, Egypt procured 46 Ka-52 helicopters delivered between 2017 and 2019. These aircraft have been deployed aboard the Mistral ships originally constructed for Russia; however, the Egyptian fleet consists of standard land-based Ka-52 models rather than the navalized Ka-52K variant.[21]

Meanwhile, Russia’s first of four ordered Ka-52Ks took flight on 7 March 2015; an option for an additional 28 helicopters was also available to the Navy.[22] By 2017, four pre-production Ka-52Ks were operational and undergoing evaluation within Russian Naval Aviation.[23][24] After some uncertainty regarding its deployment, prospects for the Ka-52K within Russia’s naval forces have become more definitive. In July 2020, construction began on two new Project 23900 amphibious assault ships at the Zalyv Shipbuilding yard, each capable of accommodating up to eighteen helicopters including Ka-52Ks.[25] By September 2020, the Ka-52K had successfully completed all required testing and was prepared for mass production.[26]

Reports from the SCMP indicate that China is evaluating acquiring 36 units of the Ka-52K to operate from its Type 075 helicopter carrier, fulfilling a heavy attack helicopter role. This procurement would supply the carrier with potent offensive capabilities that it currently lacks.[27]

Ka-52M

Unveiled by the Russian Ministry of Defence in 2018, the enhanced variant known as the Ka-52M is set for procurement with a planned acquisition of 114 units. Alongside new deliveries, existing Ka-52 helicopters will undergo modernization to meet Ka-52M specifications. The initial contract covering 30 Ka-52Ms was finalized in August 2021. A subsequent agreement was signed in August 2022. Key improvements featured in the Ka-52M include an upgraded GOES-451M electro-optical targeting system offering extended detection range, reinforced landing gear wheels, and refined cockpit ergonomics optimized for night-vision goggle operation. The helicopter’s arsenal has been expanded to incorporate the LMUR missile. Various new radar systems are currently under evaluation for integration into the Ka-52M platform. Additionally, a new self-defense suite will replace the existing L370-5 Vitebsk system. The Ka-52M is also configured to operate within an advanced battlefield command and control network. On 9 January 2023, the Russian armed forces received their first batch of 10 upgraded Ka-52M helicopters. Furthermore, the state defense order for these helicopters was doubled during 2023.

Design

File:Kamov Ka-52, Russia - Air Force AN1676203.jpg
Kamov Ka-52

The Ka-50 and its two-seat counterpart, the Ka-52, represent high-performance attack helicopters capable of operating effectively both during day and night. Engineered for exceptional survivability and firepower, these helicopters are designed to neutralize aerial threats as well as heavily armored ground targets equipped with air defense systems. Their compact size, speed, and maneuverability were prioritized to enhance both their combat effectiveness and ability to evade enemy fire.

Maneuverability

The helicopter's hovering service ceiling reaches up to 4,000 meters, with a vertical climb rate of 10 meters per second at an altitude of 2,500 meters. Its coaxial rotor system, equipped with polymer blades, features reduced inertia—approximately 50% to 75% of that found in conventional single-rotor helicopters with tail rotors—across both vertical and lateral axes. The absence of a tail rotor enables the aircraft to execute flat turns at any velocity. With a maximum vertical load factor of 3.5 g combined with low inertia, the Ka-50 exhibits exceptional agility.

Navigation Systems

The helicopter’s avionics suite incorporates an inertial navigation system (INS), autopilot capabilities, and a head-up display (HUD). Sensor equipment includes forward-looking infrared (FLIR) and terrain-following radar.

Additionally, the Kamov Ka-50 is equipped with an electronic radio and an integrated sighting-piloting-navigation system, facilitating operations during both daytime and nighttime under VFR and IFR conditions. This advanced avionics package features a precise target designation system paired with digital coded communication, enabling real-time sharing of accurate enemy location data among helicopters operating over extended distances as well as with ground command centers. The Ka-52 variant further includes a "Phazotron" cockpit radio-locator that supports navigation in challenging weather and nocturnal missions. Data from this radio-locator is displayed on the cockpit’s multifunctional screens. For combat scenarios, both crew members utilize helmet-mounted range-finders and night vision devices to enhance situational awareness during night flights.

Protection and Survivability

To enhance its defensive capabilities, the Ka-50 is outfitted with a radar warning receiver, an electronic warfare suite, and dispensers for chaff and flares. Each wingtip houses aerodynamic pods containing two dispensers loaded with 32 countermeasures of 26 mm caliber each. This countermeasure system operates by detecting infrared or electronic signals and responding accordingly.

The cockpit benefits from comprehensive armor plating designed to shield the pilot from 12.7 mm armor-piercing rounds as well as fragments from 23 mm projectiles. The rotor blades are engineered to endure multiple hits from ground-based automatic weapons.

Additional survivability features encompass armored protection for critical aircraft components, along with crashworthy landing gear and seating arrangements. The lack of a tail rotor contributes to increased durability since the tail boom does not bear structural loads; this was demonstrated during testing when a Ka-50 lost its tail section yet successfully returned to base without incident.

Notably, the Ka-50 is the first operational helicopter worldwide equipped with an emergency ejection system that permits pilot escape at any altitude or speed. Prior to ejection, the rotor blades are detached through explosive bolts to safeguard the crew. This K-37-800 rocket-assisted ejection mechanism is produced by NPP Zvezda.

Armament

File:Схема вооружения ка-52.jpg
Armament layout of the Ka-52

The helicopter is equipped with a single Shipunov 2A42 autocannon featuring selective fire capability and a dual-feed system, enabling a firing rate ranging from 200 to 800 rounds per minute. Positioned close to the aircraft's center of gravity to enhance precision, it carries an ammunition load of 460 rounds, which can be high-explosive fragmentation, incendiary, or armor-piercing types. The pilot has the ability to switch between ammunition types during flight. The integrated 30 mm cannon is mounted semi-rigidly on the side of the helicopter, allowing only minimal movement in elevation and azimuth. This semi-rigid installation enhances firing accuracy, extending its effective range and improving hit probability at medium distances compared to a fully rotating turret.

The fire control system facilitates real-time sharing of targeting data among helicopters, permitting one unit to engage a target identified by another. Additionally, it can receive targeting information from ground-based forward observers equipped with portable laser designation devices.

Weaponry can be installed on four external hardpoints beneath the stub wings, plus two additional pylons located at the wingtips, supporting a combined payload exceeding 2,000 kg depending on configuration. These pylons are capable of tilting downward by up to 10 degrees. When necessary, auxiliary fuel tanks may be attached to a dedicated suspension point.

For anti-tank operations, the helicopter carries twelve Vikhr laser-guided missiles (also known as Vortex or whirlwind), which have an effective range of approximately 8 km. The laser guidance system is reportedly highly resistant to jamming and includes automatic target tracking that allows the helicopter to perform evasive maneuvers immediately after missile launch. Alternatively, it can be armed with Ataka laser-guided anti-tank missiles. Prior to firing these laser-guided weapons, the helicopter typically hovers several hundred feet above ground level to illuminate the target with a laser designator, momentarily increasing its exposure.

In addition to missiles, the Ka-50/52 can carry various rocket pods such as the S-13 and S-8 rocket. There is potential for upgrading these unguided rockets to laser-guided munitions through the proposed Ugroza precision-guidance system.

Second Chechen War

During the Second Chechen War, the Ka-50 was actively engaged in Russian military operations against separatist forces in the Chechen Republic. In December 2000, two production Ka-50 helicopters were deployed to the region, accompanied by a Ka-29 tasked with reconnaissance and target marking. The Ka-50 employed live weaponry against hostile forces for the first time on 6 January 2001. Subsequently, on 9 January, while entering a mountainous gorge near the settlement of Komsomolskoye, a lone Ka-50, supported by an Mi-24, utilized S-8 unguided rockets to obliterate a Chechen insurgent ammunition depot. On 6 February, operating in a forested mountainous zone south of Tsentoroj village, a strike team consisting of two Ka-50s and one Ka-29 detected and destroyed a fortified insurgent camp at a distance of 3 km using two "9K121 Vikhr" guided missiles. Another mission on 14 February involved a similar formation conducting a "hunting" operation around Oak-Yurt and Hatun, locating and eliminating eight targets under challenging conditions. These sorties assessed the helicopter’s airframe durability, onboard systems, and weaponry. The successful execution in rugged terrain validated the advanced design elements of the Ka-50, highlighting its power and agility.

Syrian Civil War

In 2015, Ka-52 helicopters were observed supporting the Russian military intervention in the Syrian Civil War. Reports indicate their roles included defending the Russian facility in Latakia, escorting search and rescue helicopters, and aiding Russian special operations units.

On 5 May 2018, a Ka-52 reportedly crashed near Mayadin due to technical malfunction according to some accounts.

The Ka-52 saw brief deployment during the Fall of the Assad regime in December 2024.Template:Fix/category[citation needed]

Russo-Ukrainian War

Russian invasion of Ukraine
File:Ка-52 в боях за аэропорт Антонов.png
Cockpit perspective from a Ka-52 during the Battle of Antonov Airport
File:Ка-52 helicopter pilot POV in Kiev region with attack and landing.webm
Video showing cockpit view of a Ka-52 engaged in the Battle of Antonov Airport

At the outset of the Russian invasion of Ukraine on 24 February 2022, at least one Russian Ka-52 sustained damage but managed to land independently. On 2 March, another Ka-52 was struck by a surface-to-air missile resulting in a crash landing. Ukrainian forces reported downing Ka-52 RF-13409 near Novomykolaivka close to Kherson on 12 March. Four days later, Ukraine claimed to have destroyed Ka-52 RF-13411 at an undisclosed location, releasing footage of the wreckage. On 5 April, social media circulated video footage suggesting a hovering Ka-52 was shot down by a Ukrainian Stugna-P anti-tank guided missile. Ukrainian troops announced another Ka-52 kill on 15 April with accompanying wreckage footage; reports indicated crew fatalities. On 1 May, additional footage showed another Ka-52 destroyed by a Stugna-P missile.

On 4 June, the Ukrainian 128th Mountain Brigade claimed to have shot down a Russian Ka-52 in northern areas using MANPADS. A further incident on 27 June involved damage to a helicopter caused by British-made Martlet MANPADS forcing it to land. Ukrainian air defense reported damaging a Ka-52 operating over Donetsk Oblast on 15 August.

Several Ka-52s have reportedly experienced wing vibrations during intensive attack missions months into the conflict. This issue has been attributed to factors such as structural fatigue, design shortcomings, insufficient maintenance, and poor operational oversight. Ukrainian intelligence asserted that despite claims of resistance to rounds up to 12.7mm caliber, the Ka-52 can be disabled by fire from a 7.62mm machine gun.

The helicopter has been heavily utilized by Russian forces during the 2023 Ukrainian counteroffensive, benefiting partially from Ukraine’s limited short-range air defense (SHORAD) capabilities. Thanks to its coaxial rotor configuration, the Ka-52 can continue flying even after losing its tail assembly—a fact demonstrated in video footage released on 19 June 2023 showing one operating without its tail section. The UK Ministry of Defence observed increased deployment of Ka-52s near an airfield close to Berdiansk, noting that Russia likely gained temporary tactical advantages in southern Ukraine through attack helicopters armed with extended-range missiles against ground targets.

By late July 2023, UK defense assessments indicated that Russia had lost approximately 40 Ka-52 helicopters since hostilities began. On 27 July, UK officials described the Ka-52 HOKUM as among Russia’s most impactful weapon systems in that sector. Equipped with the LMUR missile capable of striking targets up to 15 km away, these helicopters can engage beyond Ukrainian air defense reach.

On 7 August 2023, reports confirmed that another Russian Ka-52 was downed over Robotyne, marking it as the fortieth loss according to Oryx’s open-source data compilation.

Ukrainian forces claimed shooting down two Ka-52s on 17 August—one near Robotyne via MANPAD supplied to the 47th Mechanized Brigade, and another near Bakhmut attributed to Ukrainian Air Force action. The missile system responsible for the Robotyne shootdown was identified as the Swedish-made RBS 70. While equipped with countermeasures against infrared and laser-guided threats, the Ka-52 lacks radar jamming capabilities and typically operates alongside Mi-28 helicopters which provide such electronic protection.

Despite international sanctions, Russia has continued producing new Ka-52 units.

On 18 October, five additional Ka-52s were destroyed at Berdiansk airport by Ukrainian tactical missile strikes as verified through satellite imagery by Oryx. During the Wagner Group rebellion, one Ka-52 was also reported lost. In contrast, another helicopter successfully evaded an incoming missile launched from a Wagner-operated 9K35 Strela-10 system by deploying flares as decoys.

On 19 July 2024, sources within Russia indicated that a Ka-52 was downed by a hit from a BM-27 Uragan rocket; both crew members perished though exact timing and location remain undisclosed. This incident followed cockpit footage showing an Uragan rocket narrowly missing another Ka-52.

During the Ukrainian incursion into Kursk on 7 August 2024, Ukrainian forces destroyed a Ka-52 along with its two-person crew. Concerns have been raised about this helicopter’s capacity to carry up to twelve 9K121 Vikhr air-to-surface missiles capable of penetrating tank armor at ranges between five and eleven kilometers.

In September 2024, Ukrainian troops shot down a Ka-52 using an RBS‑70 man-portable air-defense system within Kursk region territory. As of early September that year, Oryx documented losses totaling sixty-one Ka-52 helicopters throughout the conflict.

On 23 March 2025, Ukrainian special operations forces executed an attack involving HIMARS rockets that destroyed two KA-52s alongside two Mi-8 helicopters at an advanced deployment site in Ivnyansky Raion within Belgorod Oblast.

The KA‑52 has also demonstrated effectiveness against Ukrainian kamikaze drones by employing its onboard 30mm cannon and Igla-V missiles.

According to Oryx’s open-source verification as of late March 2025, sixty-four Ka‑52s have been either destroyed or damaged—comprising fifty-one destroyed and thirteen damaged units—in this ongoing conflict.

Other

The helicopter has taken part in various training exercises, such as "Boundary 2004," held at the Edelweiss training facility in Kyrgyzstan in August 2004. During this event, the "Shark" showcased its capabilities by performing operations at elevated altitudes and in air temperatures exceeding 30 °C. A Ka-50 provided cover for troop landings before engaging ground targets with its cannons and rockets.

In May 2008, India released a request for proposals to acquire 22 attack helicopters for the Indian Air Force. By October 2008, the leading contenders for this contract were the Ka-50, Mil Mi-28, and Eurocopter Tiger. However, this tender was ultimately cancelled, and India later issued a new tender with updated requirements. Russia once again submitted bids featuring the Mi-28N and Ka-52 models.

The Russian Air Force inducted 12 Ka-52 helicopters into active service in 2011, with production reaching a total of 65 units at that time. Deployment included 20 Ka-52s stationed at the 575th Airbase in Chernigovsky District, Eastern Military District, 16 at the 393rd "Sevastopol" Airbase in Korenovsk, Southern Military District, and 12 assigned to the newly established 15th Army Aviation Brigade within the Western Military District based at Ostrov airport. Additionally, eight helicopters were located at the Torzhok 344th Centre for Combat Training and Flight Personnel Training. JSC "Kamov" retained five test aircraft, while two units were lost due to accidents. The Ka-52 was also publicly exhibited during the 2013 Paris Air Show.

By 2013, AAC "Progress" had fulfilled its contract with the Russian Ministry of Defense signed in 2009 and was preparing to commence a subsequent long-term agreement to deliver 143 Ka-52 helicopters valued at approximately 120 billion rubles (around US$3.5 billion).

In June 2015, Sergei Kornev, leading Rosoboronexport's delegation, announced that Russia had finalized its initial export contracts for the Ka-52 Alligator attack helicopter. Speaking at an airshow near Paris, he confirmed the existence of export versions and active contracts but did not disclose specific details regarding quantities or clients.

As of 2022, negotiations were underway with the Algerian Air Force for the purchase of 12 Ka-52Es. The helicopter was showcased at Aïn Oussera Air Base in September 2015.

Reports from June 2001 suggested that North Macedonia procured two Ka-52 or Ka-50 helicopters from Russia for its North Macedonia Air Brigade. Nevertheless, this claim was officially denied by Macedonia’s Ministry of Defense.

Variants

File:Russian Air Force Kamov Ka-52 (19442404770).jpg
Kamov Ka-52 operated by the Russian Aerospace Forces
Kamov V-80
Initial prototype developed for the Ka-50.[28]
Kamov Ka-50
Single-seat combat helicopter model.[28]
Kamov Ka-50Sh
Enhanced Ka-50 variant optimized for night assault missions.[29]
Kamov Ka-50-2 "Erdogan"
Two-seat tandem cockpit version offered to Turkey.[30]
Kamov Ka-52 "Alligator"
Significantly modernized model featuring a side-by-side two-seat cockpit, used by the Russian Aerospace Forces.[31]
Kamov Ka-52E
Export configuration supplied to Egypt.[32]
Kamov Ka-52K "Katran"
Naval adaptation equipped with folding rotor blades, strengthened landing gear, shortened wingspan for shipboard deployment, and intended capability to deploy Kh-35 and Kh-38 missiles.[17]
Kamov Ka-52M
Modernized Ka-52 featuring an upgraded targeting turret with extended range, reinforced landing gear wheels, and improved cockpit ergonomics,[33] commonly referred to as the "Super Alligator".Template:Fix/category[citation needed]

Operators

Template:EGY
  • Egyptian Air Force[34] – Operating 46 Ka-52 helicopters as of 2022.[35]
    • 549 Air Wing
      • 39 Squadron (Wadi al Jandali)
      • 40 Squadron (Wadi al Jandali)
      • 41 Squadron (Wadi al Jandali)
File:Flag of Russia.svg Russia

Specifications (Ka-50)

File:Kamov Ka-50 Hokum graphic.gif
Three-view diagram of the Ka-50

Template:Aircraft specs

See also

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Notes

  1. ↑ Cite error: Invalid <ref> tag; no text was provided for refs named scout
  2. ↑ Hewson, R. The Vital Guide to Military Aircraft, p. 58. England: Airlife Publishing Ltd, 2001.
  3. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  4. ↑ 4.0 4.1 Cite error: Invalid <ref> tag; no text was provided for refs named Andrey_Fomin
  5. ↑ Ka-52 product page Archived 7 November 2010 at the Wayback Machine. Kamov.
  6. ↑ Cite error: Invalid <ref> tag; no text was provided for refs named Russian Helicopters
  7. ↑ "Ka-52". Archived 20 January 2012 at the Wayback Machine kamov.net.
  8. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  9. ↑ Cite error: Invalid <ref> tag; no text was provided for refs named Alexander_Mladenov
  10. ↑ Sergy Aleksandrov. April 2011. "Four new Ka-52s delivered to Torzhok". Air Forces Monthly. Issue 277, p. 29.
  11. ↑ "More Ka-52s for Russian AF". Combat Aircraft. Vol. 12, No. 4, p. 16.
  12. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  13. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  14. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  15. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  16. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  17. ↑ 17.0 17.1 Butowski 2022, pp. 79–80
  18. ↑ Mladenov, Alexander. "Force Report: Russian Navy". Air Forces Monthly. Issue 286, p. 80, January 2012.
  19. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  20. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  21. ↑ Butowski 2022, p. 74
  22. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  23. ↑ 23.0 23.1 Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  24. ↑ 24.0 24.1 Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  25. ↑ Butowski 2022, pp. 82–83
  26. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  27. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  28. ↑ 28.0 28.1 Cite error: Invalid <ref> tag; no text was provided for refs named butowski p9
  29. ↑ Butowski 2022, p. 28
  30. ↑ Butowski 2022, p. 35
  31. ↑ Butowski 2022, p. 45
  32. ↑ Butowski 2022, pp. 74–75
  33. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  34. ↑ 34.0 34.1 Cite error: Invalid <ref> tag; no text was provided for refs named World Air Forces 2018
  35. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  36. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  37. ↑ Scramble.nl Russian Aerospace Forces Archived 21 May 2022 at the Wayback Machine, accessed November 2023.
  38. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  39. ↑ Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).

Bibliography

  • Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  • Donald, David, and Daniel J. March. "Ka-50/52, Kamov's 'Hokum' family". Modern Battlefield Warplanes. AIRtime Publishing, 2004. ISBN 1-880588-76-5.
  • Lua error in Module:Citation/CS1/Configuration at line 2123: attempt to index field '?' (a nil value).
  • Mladenov, Alexander "Gator On The Rise: Kamov's Hokum Attack Helicopter Story 1977-2015" Helion & Company, 2017 ISBN 9781911096450

External links

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