ANKA III Stealth Drone Carrying Twin SÜPER ŞİMŞEK Wingmen Reveals Türkiye’s Vision for Future Air Warfare.

Türkiye’s ANKA III stealth combat drone has flown carrying two jet-powered SÜPER ŞİMŞEK UAVs beneath its wings, imagery released by Turkish Aerospace Industries (TUSAŞ) on 14 August 2026 shows. The configuration points beyond simple weapons carriage toward an airborne combat node able to launch and coordinate autonomous effectors for distributed strike, electronic warfare and missions inside contested airspace.

Pairing ANKA III’s low-observable design with deployable SÜPER ŞİMŞEK wingmen could allow a single aircraft to generate multiple effects across ISR, electronic warfare and SEAD/DEAD missions. The concept reflects Türkiye’s broader move toward manned-unmanned teaming and collaborative air combat, where survivability and combat mass increasingly depend on networked autonomous systems rather than individual platforms.

Related Topic: Türkiye’s KAAN P1 Taxi Test Reveals Advanced Sensors and Major Fifth Generation Design Refinements

Turkish Aerospace Industries has flown its ANKA III stealth combat drone carrying two SÜPER ŞİMŞEK jet-powered UAVs, highlighting Türkiye’s push toward autonomous wingmen, electronic warfare, and distributed strike operations in contested airspace (Picture Source: TAI)

On 14 August 2026, Turkish Aerospace Industries (TUSAŞ) released striking new flight imagery of the ANKA III prototype carrying two jet-powered SÜPER ŞİMŞEK UAVs beneath its wings, under the message “Gizli Güç!”, “Secret Power.” What appears at first glance to be a new weapons-carriage configuration may in fact reveal something more ambitious: ANKA III is emerging as an airborne combat node capable of carrying, deploying and coordinating autonomous effectors within a wider MUM-T architecture. By combining low observability, electronic warfare, AI-enabled swarm functions and distributed strike, Türkiye is moving toward a layered air-combat model in which one aircraft can generate several operational effects after take-off. For TUSAŞ, the flight showcases a growing mastery of system-level aerospace integration; for NATO, it points to a potentially important new contribution to ISR, EMSO, SEAD/DEAD and collaborative combat operations in contested airspace.

ANKA III as an Airborne Launch and Mission-System Platform

A stealth drone that brings its own wingmen. The importance of the 14 August flight becomes clearer when placed against the programme’s previous milestones. Turkish Aerospace had already displayed an ANKA III with two SÜPER ŞİMŞEK vehicles beneath its wings at SAHA Expo 2026, but the new footage moves the configuration from exhibition-floor integration to demonstrated airborne carriage. Earlier still, on 8 April 2025, ANKA III successfully released a SÜPER ŞİMŞEK in flight at approximately 10,130 feet and 150 knots, validating the ability of the larger UCAV to function as an airborne launch platform for another autonomous aircraft. The distinction is crucial: this is no longer simply a UAV carrying another payload. ANKA III is becoming an airborne deployment node, capable of transporting independent mission systems forward before dispersing them across the battlespace. The twin-carriage configuration also introduces what can be described as mission-phase observability.

External SÜPER ŞİMŞEK carriage inevitably alters ANKA III’s clean low-observable geometry and aerodynamic condition, but that does not make the configuration operationally contradictory. The more significant point is that observability becomes mission-dependent rather than static. ANKA III can transport its autonomous effectors forward, release them at the tactically appropriate point and continue the mission in a cleaner configuration, effectively trading a temporary signature penalty for greater reach, flexibility and distributed combat effects. No public radar-cross-section data exist to quantify the effect of the external stores, yet the architecture itself suggests a concept of mission-phase observability in which signature management is adapted to the stage of the operation. Air launch adds a second advantage: SÜPER ŞİMŞEK begins its independent mission with altitude, forward displacement and initial velocity already supplied by the carrier, giving the smaller UAV a more favourable kinematic starting point than a comparable system launched from the ground.

At the same time, ANKA III is evolving from a low-observable UCAV into a distributed airborne combat-system node. Turkish Aerospace defines the turbofan-powered flying-wing platform with a service ceiling of 40,000 feet, a maximum speed of Mach 0.7 at 30,000 feet and endurance of up to ten hours, but its real value lies in the breadth of its mission architecture. TUSAŞ lists two internal and five external payload stations, Manned-Unmanned Teaming, AI-supported swarm technology, EO/IR and SAR/GMTI-ISAR sensing, EOTS, AESA radar, IRST, COMINT, ELINT, ESM, electronic attack, communications jamming, SATCOM, radio relay and the carriage of air-launched drones. This transforms ANKA III from a platform designed merely to deliver weapons into an aircraft capable of detecting, sensing, jamming, relaying, striking and deploying additional autonomous effectors across multiple stages of the kill chain. In that sense, the mothership is also a sensor, jammer and shooter, with low-observable shaping, payload flexibility and autonomy combining into a mission architecture spanning reconnaissance, surveillance, electronic warfare and attack.

SÜPER ŞİMŞEK and the Expansion of Distributed Air Effects

SÜPER ŞİMŞEK forms the expendable, configurable and deliberately ambiguous outer layer of the ANKA III architecture, one airframe capable of presenting several different threat identities. The 4-metre UAV has a maximum take-off weight of 200 kg, a 50 kg payload capacity, a 35,000-foot service ceiling, a maximum speed of Mach 0.85, 80 minutes of endurance, a 150 km line-of-sight datalink range and a published operating range of 900 km. More important than those figures is the breadth of mission equipment available to the platform: active and passive radar-cross-section augmentation, infrared-signature enhancement, an instantaneous-frequency-measurement receiver, jammer, situational-awareness camera, CRPA anti-jam antenna, countermeasure dispensing and destructive payloads with interchangeable seeker heads. Fully autonomous flight, airborne-carrier launch, pre- and in-flight mission updating and AI-supported swarm operations further transform SÜPER ŞİMŞEK from a conventional target system into a multi-role autonomous effector designed to change function according to the tactical problem it is sent to solve.

That flexibility gives SÜPER ŞİMŞEK a particularly unusual role against an Integrated Air Defence System. The aircraft can imitate a larger radar target, contribute to air-defence deception and suppression, perform radar jamming and electronic-warfare missions, or employ an integrated 35 kg warhead in a one-way attack configuration. The distinction between its 50 kg overall payload capacity and the specific 35 kg warhead configuration is important: SÜPER ŞİMŞEK is not one weapon but a common airborne vehicle capable of generating different tactical effects. To an opposing IADS, one track could represent a signature-enhanced decoy, another an electronic-support asset, another a jammer and another a kinetic threat. This creates what may be the system’s most disruptive quality: uncertainty becomes part of the weapon effect. Every additional contact demands classification, prioritisation and engagement decisions, consuming sensor attention and compressing the defender’s decision cycle. Türkiye is consequently not merely multiplying airborne platforms; it is multiplying the tactical questions an opposing air-defence network must answer simultaneously.

This is where the ANKA III–SÜPER ŞİMŞEK combination acquires particular significance for SEAD/DEAD and electromagnetic-spectrum operations. A modern IADS is an interconnected combat system built around surveillance and fire-control radars, passive sensors, communications networks, command-and-control nodes and disciplined electromagnetic behaviour. SÜPER ŞİMŞEK’s configurable signatures and EW payloads could push deception, electronic support, jamming or kinetic effects deeper toward that network while ANKA III remains the higher-value low-observable sensing, coordination, electronic-warfare and strike node. The concept has also moved beyond carriage trials: on 18 March 2026, Türkiye announced that multiple SÜPER ŞİMŞEK vehicles had entered Turkish Air Force inventory, bringing the aircraft into the force-structure domain even though its full range of future operational configurations remains undisclosed. The resulting architecture could allow ANKA III to remain farther from the most exposed portions of an engagement while expendable stand-in effectors assume greater tactical risk, creating a more difficult cost-exchange equation for hostile air defences. Survivability is consequently generated not by stealth alone, but through signature management, electronic warfare, deception, autonomous dispersion and expendable mass operating together. Türkiye is not only multiplying airborne effects; it is multiplying the complexity imposed on the opposing decision cycle.

From MUM-T to a Hierarchical Combat-Air Architecture

From loyal wingman to loyal wingman carrying its own wingmen, Türkiye is now revealing the outlines of what can be described as “nested autonomy.” At World Defense Show 2026, Turkish Aerospace publicly presented an Autonomous Wingman Flight concept pairing a piloted KAAN with two ANKA III UCAVs, with the crewed fighter depicted supervising communication, targeting, guidance and engagement functions. TAI said communication, firing and guidance links between KAAN and ANKA III are intended to become operational before KAAN enters Turkish Air Force service, with swarm-management and coordinated-engagement logic being prepared in parallel. When the demonstrated SÜPER ŞİMŞEK carriage is placed beneath that prospective concept, an unusual three-tier combat hierarchy begins to emerge: a human-led mission-command layer centred on KAAN, a collaborative low-observable UCAV layer built around ANKA III, and a forward layer of smaller autonomous and potentially expendable effectors represented by SÜPER ŞİMŞEK. Seen as a force architecture, the concept begins to resemble a “Russian-doll air force”: KAAN could eventually coordinate ANKA III-class UCAVs, while those aircraft could themselves deploy smaller autonomous effectors such as SÜPER ŞİMŞEK after take-off. The more exclusive implication is that Türkiye may be moving beyond conventional MUM-T toward a hierarchical combat-air network in which autonomy is distributed across several classes of aircraft rather than concentrated in a single loyal-wingman platform.

No public demonstration has yet shown KAAN, ANKA III and SÜPER ŞİMŞEK operating simultaneously as one integrated combat chain, so the complete hierarchy should be treated as an emerging architecture rather than a proven operational formation. Yet its individual building blocks are increasingly tangible. This is also why KAAN P1’s recent development is directly relevant. Army Recognition’s 2 August 2026 analysis of the P1 taxi campaign identified revised intake and forward-fuselage geometry, a redesigned nose and visible provisions associated with indigenous infrared, electro-optical and electronic-warfare systems, indicating movement toward deeper mission-system integration. KAAN and ANKA III increasingly suggest a common Turkish design philosophy: future combat aircraft should operate not only as weapons carriers but as sensor, EW, C2 and effect-generating nodes inside a distributed force. In such an architecture, KAAN could concentrate human command and high-end mission management; ANKA III could distribute sensors, risk and weapons across the battlespace; and SÜPER ŞİMŞEK could extend configurable and potentially expendable effects still farther forward. The concept goes beyond basic MUM-T toward a hierarchy of aircraft with different levels of autonomy operating inside a common combat network.

Strategic Implications for Türkiye and NATO Airpower

The strategic effect becomes far greater if ANKA III moves from prototype quantities into a fleet measured in dozens, and this is where Türkiye’s achievement acquires direct NATO significance. Army Recognition reported in January 2026, citing Turkish Aerospace CEO Dr. Mehmet Demiroğlu, that the Turkish Air Force is expected to place an initial ANKA III order exceeding 50 aircraft; the report also noted that the programme had completed its critical design review, its configuration had been frozen and production-related activity had begun, while no procurement contract had yet been publicly announced. A fleet of that scale changes the discussion from isolated demonstrations to force generation: readiness cycles, mission specialisation, distributed operations, electronic-attack packages, persistent ISR coverage, autonomous formations and repeatable MUM-T operations become realistic planning considerations. SÜPER ŞİMŞEK adds what can more precisely be described as airborne node multiplication. An ANKA III that leaves a Turkish runway as one airborne platform does not necessarily remain a single mission node throughout its flight. Once two carried UAVs separate, that single departure can generate several geographically distributed aircraft, potentially configured for different sensing, deception, EW or strike-support roles.

A future KAAN-led formation incorporating several ANKA IIIs could, if the planned architectures mature and are integrated, expand that distributed force still further after entering the operating area. For NATO, this offers potential value in SEAD/DEAD support, EMSO capacity, distributed ISR, collaborative combat aviation and attritable stand-in effects, while providing options to reduce the exposure of crewed aircraft during selected high-risk missions. Alliance utility would still depend on secure C2, coalition mission planning, identification, tactical-data exchange, cryptographic protection, mission-data compatibility and integration with NATO command structures. The wider significance is industrial as much as operational.

Turkish Aerospace is simultaneously advancing a fifth-generation fighter, a low-observable UCAV and a high-subsonic autonomous tactical UAV while developing the interfaces through which those aircraft could cooperate. That demands competence extending beyond aerodynamics and structures into flight-control software, autonomy, datalinks, sensor integration, store integration, safe separation, electronic warfare, mission computing, simulation and system-level validation. TUSAŞ is no longer simply building aircraft; it is increasingly designing the relationships between aircraft. That may become one of the company’s most important contributions to Türkiye’s future airpower and to NATO’s broader transition toward collaborative combat aviation.

Seen in isolation, the 14 August footage shows an ANKA III flying with two SÜPER ŞİMŞEK aircraft beneath its wings. Seen against Turkish Aerospace’s wider development path, it reveals something far more consequential: Türkiye is learning how to make one airborne platform become several, how to distribute sensors and effects after take-off, and how to connect crewed and uncrewed aircraft into a progressively autonomous combat architecture. ANKA III’s combination of low observability, internal and external carriage, ISR, electronic warfare, MUM-T and AI-supported swarm capability gives it the attributes required to become a central unmanned layer of that architecture; SÜPER ŞİMŞEK provides the fast, configurable and potentially expendable outer layer; and KAAN could eventually provide the human-led fifth-generation command and combat node above them.

The “Secret Power” displayed by Turkish Aerospace is not simply attached beneath ANKA III’s wings. It is the system-of-systems being assembled around those wings, a distinctly Turkish approach to distributed airpower that demonstrates the growing sophistication of the country’s aerospace industry and could give NATO an additional sovereign, scalable and networked source of advanced combat-air capability.

Written by Teoman S. Nicanci – Defense Analyst, Army Recognition Group

Teoman S. Nicanci holds degrees in Political Science, Comparative and International Politics, and International Relations and Diplomacy from leading Belgian universities, with research focused on Russian strategic behavior, defense technology, and modern warfare. He is a defense analyst at Army Recognition, specializing in the global defense industry, military armament, and emerging defense technologies.

Explore More Defense News

• Land Defense News
• Naval Defense News
• Defense Aerospace News