Category: Defense

  • Microchip Technology unveils GNSS disciplined oscillator modules

    Microchip Technology unveils GNSS disciplined oscillator modules

    Aerospace and defense applications depend on position, navigation and timing (PNT) technology for mission-critical accuracy and reliability. But integrating PNT into designs requires extensive specialized knowledge.

    To accelerate development, Microchip Technology has introduced a portfolio of GNSS Disciplined Oscillator (GNSSDO) modules that integrate the company’s atomic clock and oscillator technologies, including the Chip-Scale Atomic Clock, Miniature Atomic Clock and Oven-Controlled Quartz Crystal Oscillators.

    The GNSSDO modules process reference signals from GNSS or alternative clock sources and discipline onboard oscillators to reference signals, enabling precise timing, stability and holdover performance based on application requirements. The modules serve military and defense applications including radar, satellite communications, mounted and dismounted radios, vehicle platforms and other critical PNT applications, including GNSS-denied environments.

    A GNSSDO module functions as a PNT subsystem within larger system designs or as a standalone system, providing precise timing critical to high-performance systems. Microchip engineers and manufactures the local oscillators used in the modules. Other Microchip components include 32-bit microcontrollers and SmartFusion 2 field-programmable gate arrays.

    MD-013 ULTRA CLEAN: Microchip’s highest-performance standard GNSSDO module supports multiple GNSS constellations or external reference input. The module uses a high-performance OCXO that enables outputs with ultra-low phase noise and short-term frequency stability. Phase noise performance specifications are minus 119 dBc/Hz at 1 Hz offset and noise floor of minus 165 dBc/Hz. Short-term frequency stability, measured by Allan Deviation, is 3E-13 at 1-second tau, 6E-13 at 10-second tau and 9E-13 at 100-second tau. The module generates 1 PPS TTL, 10 MHz sine wave and 10 MHz square wave outputs disciplined to an embedded 72-channel single-band GNSS receiver, with optional upgrade to configurable L1/L2 or L1/L5 dual-band, multi-GNSS receiver.

    MD-300: Designed for harsh environments in a 1.5 in-by-2.5-in footprint, the MD-300 features an embedded MEMS OCXO or TCXO as the local oscillator, enabling low g-sensitivity, high shock and vibration tolerance and low thermal transient response. Its size, weight, and power performance make it suitable for applicationssuch as drones and manpacks. The module disciplines to embedded GNSS receivers or external references and outputs high-performance 10 MHz and 1 PPS signals.

    LM-010: A PPS disciplined module providing precise timing for Low Earth Orbit applications requiring radiation tolerance with stability and holdover capability. The standard platform module provides 1 PPS TTL and 10 MHz sine wave outputs disciplined to an external reference input. The module contains Microchip’s digitally corrected OCXO or low-power CSAC SA.45.

    The GNSSDO modules use common serial communication protocols and graphical user interfaces for command and control. Software can configure various parameters, including inputs, outputs, auto switching, holdover parameters, GNSS tracking and observables, and reporting messages from the serial interface.

  • Advanced Navigation introduces compact navigation system for military applications

    Advanced Navigation introduces compact navigation system for military applications

    Advanced Navigation has released the Boreas 50 series, marking the company’s smallest fiber-optic gyroscope (FOG) inertial navigation system (INS).

    The new product line consists of two devices, the A50 attitude and heading reference system and the D50 strategic-grade INS. Both units feature north-seeking gyrocompasses designed to determine true north without relying on GPS signals or magnetic references.

    The 50 series weighs 910 g and incorporates Advanced Navigation’s sensor fusion technology, which processes data from multiple sensors to maintain accuracy during GPS outages or interference. The system can detect Earth’s rotation to establish directional orientation within minutes of activation.

    An optional Electronic Counter-Countermeasure capability is available for the D50, designed to detect and counter GPS jamming and spoofing attempts. The feature targets operations in contested electromagnetic environments where adversaries may attempt to disrupt satellite-based navigation.

    “The modern battlefield is no longer defined by only physical boundaries, but by electromagnetic dominance,” said Maximilian Doemling, head of product at Advanced Navigation. “Assuming navigation will ‘just work’ is a mission-critical oversight.”

    Performance Specifications

    The system achieves heading accuracy of 0.5° secant latitude through gyrocompassing, with roll and pitch accuracy of 0.03°. Positional accuracy reaches 0.01 m circular error probable at 50% confidence level when GPS is available.

    The devices meet military standards for shock and vibration testing, addressing requirements for platforms operating in harsh environments. The compact form factor enables integration into space and weight-constrained systems.

    Defense applications for the 50 series span multiple domains. Military pointing platforms, including radar systems, can use the technology for target tracking and identification while mobile or stationary. The system’s rapid stabilization capabilities support accurate targeting despite motion and environmental interference.

    The Boreas 50 series is Advanced Navigation's most compact FOG INS. (Credit: Advanced Navigation)
    The Boreas 50 series is Advanced Navigation’s most compact FOG INS. (Credit: Advanced Navigation)

    Counter-unmanned aircraft system platforms benefit from the precise heading and stabilization features when tracking aerial threats. The north-seeking gyrocompass enables rapid target acquisition and tracking in dynamic operational environments.

    Maritime vessels operating under GPS-denied conditions can maintain navigation capabilities and threat identification through the system’s independent positioning features. The technology aims to preserve tactical advantages when satellite signals are unavailable.

    Intelligence, surveillance and reconnaissance platforms, along with unmanned aircraft systems, can address navigation failures and targeting errors caused by electronic warfare and sensor drift. The compact design accommodates both new and legacy aircraft integration requirements.

    Ground vehicles, whether autonomous or crewed, gain protection against electronic interference that could compromise navigation and situational awareness. The anti-jamming and anti-spoofing capabilities maintain consistent positioning data during operations.

    Advanced Navigation‘s defense division consists of military veterans who collaborate with system integrators, program offices and end-users to develop tailored solutions. The company plans to double its defense team size within the year.

    The firm’s vertically integrated manufacturing approach aims to reduce production lead times compared to industry standards. Products carry a three-year warranty, and the 50 series provides a direct upgrade path for users of the company’s existing Spatial FOG Dual system.

    The technology represents ongoing development in assured positioning, navigation and timing systems as military operations increasingly face electronic warfare threats targeting GPS-dependent systems.

  • Plane carrying EU president hit by alleged Russian GPS jamming

    Plane carrying EU president hit by alleged Russian GPS jamming

    A plane carrying the European Commission President Ursula von der Leyen was targeted by GPS jamming while attempting to land at Plovdiv International Airport in Bulgaria on Aug. 31, according to a European Commission spokesperson.

    Bulgarian authorities suspect Russia was responsible for the interference, European Commission Deputy Chief Spokesperson Arianna Podestà told CNN.

    The Kremlin has denied the allegation. Spokesperson Dmitry Peskov told The Financial Times, which first reported the story, that the information was incorrect.

    The plane landed safely despite the GPS disruption, with pilots reportedly using paper maps to navigate, according to a source familiar with the situation.

    Von der Leyen was traveling as part of a seven-country tour of the European Union’s frontline states to rally support for Ukraine. The incident occurred as her charter flight approached the southern Bulgarian airport during her diplomatic mission to reinforce the bloc’s commitment to defending against Russian aggression.

    Podestà told CNN that the incident highlighted the urgency of von der Leyen’s current trip to frontline member states, where she has witnessed daily threats from Russia and its proxies. The spokesperson noted it remained unclear whether attackers specifically targeted the flight or if it was caught in broader GPS interference operations.

    Expert Insights: Searching for Resilience

    This latest incident comes amid a dramatic surge in GPS jamming and spoofing attacks across the region since Russia’s invasion of Ukraine, creating an increasingly challenging environment for critical navigation systems.

    European Commission President Ursula von der Leyen’s current tour through Poland, Bulgaria, Finland, Estonia, Lithuania, Latvia and Romania takes her directly through many of the continent’s GPS disruption hot spots. These nations have experienced some of the most severe interference with GNSS, making the timing of her defense-focused diplomatic mission particularly significant.

    According to GPS World Editorial Advisory Board Member Mitch Narins, the current crisis represents the culmination of concerns that have been raised for more than twenty years. “Concerns and warnings regarding interference to GNSS have been raised for over two decades,” Narins explains. “Despite these concerns, attempts to install and upgrade alternative or complementary PNT systems on the ground and in aircraft have failed and resulted solely in increased investment in satellites and their signals, all of which are extremely low-power by design and vulnerable to interference.”

    “Regrettably, the substantial financial resources required to fund these satellite projects have pushed for discontinuance of resilient ground-based alternatives and to consider them ‘cost offsets,’” he notes. The economic incentives have favored satellite constellation expansion over diversification, despite the vulnerabilities of space-based systems.

    When it comes to alternative options, Narins explains, “For the cost of building and launching a single GNSS medium-Earth orbit (MEO) satellite, one could fund the replacement or installation and operation of many resilient ground-based systems for many years.”

    The current approach to PNT systems represents a departure from fundamental systems engineering principles, according to Narins. “When initiating a customer need analysis, a systems engineer does not begin with the solution and work backwards,” he emphasizes.

    Instead, the focus should be on meeting actual requirements: PNT systems must “always” provide the accuracy, availability, integrity and continuity of services necessary to support safety, security and economic well-being across thousands of use cases spanning every critical infrastructure sector.

    “Therefore, resilience must be a critical part of a PNT system’s performance if it is to be considered a potential solution,” Narins said. Rather than pursuing interoperability between GNSS constellations — which still leaves users dependent on inherently weak satellite signals — the industry should have prioritized diverse solutions from the outset.

    He added, “This is not a simple problem with a single, simple solution, but it is time to start thinking about resilience first and leaving the identification of solutions to a proper system engineering process.”

    New Ways to Counter EW Threats

    The dangerous GPS jamming of the plane carrying carrying European Commission President Ursula von der Leyen can be alleviated with advanced technology, according to Michael Biercuk, CEO of Q-CTRL, developers of quantum-based navigation systems:

    “The incident regarding the European Commission President’s plane has raised GPS denial from inconvenience to a strategic security threat. This is why we’ve focused our quantum tech development efforts on building resilient quantum navigation systems truly immune to jamming and spoofing. This technology is not science fiction – it has been validated in flight to outperform the best existing GPS backups by up to 100X. Through our partnerships with Airbus, Lockheed Martin, and others we’re ready to help build resilience for European transport, defense and commerce.”

    Chris Shaw, CEO and co-founder of Advanced Navigation also spoke on the incident, commenting “The answers to the GPS crisis are already here,” said Chris Shaw, CEO and co-founder of Advanced Navigation, which specializes in anti-electronic warfare navigation technology. “The problem isn’t innovation, it’s stagnation. GPS alone can no longer be treated as a reliable source of truth. What’s needed is a resilient architecture — inertial-centered and fused with multiple sensors — that keeps systems operating even when signals are denied or manipulated.

    “The reality is that adversaries are moving at the speed of code, while government procurement still runs at the speed of bureaucracy. That gap is a national security risk. Unless governments adopt a new model of rapid integration and real-time collaboration with industry, they will continue to be outpaced.

    “This isn’t optional. Survivability in GPS-contested environments depends on prompt deployment of inertial navigation. The companies pushing this forward aren’t just keeping up, they’re rewriting the playbook — and the cost of delay is measured in mission failure and compromised sovereignty.

    “Ukraine has shown what’s possible. By demanding real-time software updates and rapid hardware upgrades in close collaboration with industry, its forces are reshaping autonomy, navigation, drone swarms and integrated defense systems at an unprecedented pace — allowing them to outpace adversaries.

    “So why aren’t we applying this model more broadly beyond the battlefield? The solutions exist, with inertial navigation at the core. The real question is whether we’ll act before the cost of delay becomes irreversible.”

    The GPS Collapse isn’t fiction — it’s a warning of what happens when action is delayed.

  • Q-CTRL, Lockheed to Develop Quantum Navigation for DARPA

    Q-CTRL, Lockheed to Develop Quantum Navigation for DARPA

    DARPA selects Q-CTRL to develop next-gen sensors for advanced defense platforms.

    Quantum software company Q-CTRL has been awarded two contracts under DARPA’s Robust Quantum Sensors (RoQS) program. The Defense Advanced Research Projects Agency (DARPA) is an independent research and development agency within the U.S. Department of Defense.

    The contracts, valued at $24.4 million, will augment Q-CTRL’s field-validated quantum sensing technologies for demanding real-world use cases in high-performance military vehicles. 

    Navigational technology that is resilient to denial, jamming, spoofing and other denials in the environment has become increasingly critical to defense applications, from battlefield operations to intelligence and surveillance. With conflict zones expanding, the risks to crewed and uncrewed defense missions are growing daily. Quantum sensing offers a complementary solution to  GPS that is resilient against external interference while filling coverage gaps.

    Quantum sensing offers a complementary solution to  GPS that is resilient against external interference while filling coverage gaps.

    Q-CTRL will develop next-generation quantum sensors for navigation based on their success in field trials of airborne, maritime, and ground-based quantum navigation augmented by their proprietary AI-powered software ruggedization. The technology enables sensors to operate reliably on moving defense platforms subject to challenging real-world conditions, without the need for traditional shielding or isolation.

    Q-CTRL will be joined by Lockheed Martin as a subcontractor on one aspect of the RoQS program, leveraging its expertise in GPS and quantum technology.

    Photo:
    Software-ruggedized quantum magnetometer. (Image: Q-CTRL)

    DARPA established RoQS to accelerate the development, testing and validation of quantum sensors for real-world defense applications, which include maintaining stability against environmental interference, mechanical vibrations and heavy g-forces. 

    Some sectors and organizations are fast-maturing quantum navigation for use on land, sea, in space, and in the air. The aerospace industry is actively exploring the potential for magnetic navigation technologies, with companies like aircraft manufacturer Airbus pursuing their development. 

    Additionally, Q-CTRL’s programs target the complementary missions of geophysical mapping of gravity and magnetic fields, as well as positioning based on matching detected signals to the pre-generated maps. This approach provides huge advantages in navigational missions and delivers new insights into minerals prospecting and underground target detection.

    Photo:
    Software-ruggedized quantum gravimeter. (Image: Q-CTRL)

    Ironstone Opal, the company’s quantum-assured navigation system, recently outperformed a high-end inertial navigation system (INS) in flight for the first time, achieving up to 111x greater positioning accuracy when GPS was unavailable – a significant step forward for real-world applications of quantum sensing to defense missions. In these tests, the company’s proprietary AI-driven, software-level innovation was the key to the removal of platform interference.

    Ironstone Opal’s navigation system was also recently validated in maritime trials on board the Royal Australian Naval vessel, MV Sycamore.

    In March, Lockheed Martin and Q-CTRL were awarded a contract by the U.S. Department of Defense’s Innovation Unit to prototype a quantum-enabled inertial navigation system.

  • Airbus, Shield AI complete first autonomous logistics connector helicopter flight

    Airbus, Shield AI complete first autonomous logistics connector helicopter flight

    Airbus U.S. Space & Defense completed its first autonomous helicopter test flight using Shield AI’s Hivemind autonomy package in Grand Prairie, Texas. The flight represents a significant step forward in developing the MQ-72C Lakota Connector for the U.S. Marine Corps Aerial Logistics Connector program.

    The test utilized an H145 helicopter to refine mission technology, accelerate development timelines and reduce costs and technical risks. Engineers integrated Hivemind into the aircraft in less than two months, showcasing the system’s modular and platform-agnostic design.

    During the test, Shield AI’s Hivemind autonomy software controlled the H145 directly while collaborating with Airbus’ Helionix system. The integrated software managed the aircraft’s mission systems, executing automated takeoff, landing and other test procedures without pilot input.

    The tested software will be incorporated into the future MQ-72C helicopter design to meet Marine Corps requirements for the ALC program. The MQ-72C Logistics Connector is being developed as an unmanned version of the UH-72 Lakota, a multi-mission platform used across various operations.

    Shield AI‘s software expands the platform’s capabilities through autonomous operations across logistics and operational scenarios. Future test activities and demonstrations will scale the MQ-72C’s autonomy level, leading toward unmanned operations in contested logistics environments.

    Airbus U.S. plans to apply mission autonomy software to add autonomous capabilities to other helicopter variants beyond the MQ-72C. The company is in the second year of the Aerial Logistics Connector Middle Tier of Acquisition Rapid Prototyping Program, which provides aircraft prototypes for operational demonstrations and experiments.

    In May 2024, Naval Air Systems Command awarded Airbus U.S. Space & Defense a Phase I Other Transaction Authority through the Naval Aviation Systems Consortium for its unmanned UH-72 Logistics Connector concept.

    The Aerial Logistics Connector initiative is among several Defense Department programs designed to deliver logistical support in distributed environments during conflicts with peer or near-peer adversaries.

  • Rohde & Schwarz demonstrates counter-drone technology at Defense Expo

    Rohde & Schwarz demonstrates counter-drone technology at Defense Expo

    Rohde & Schwarz has demonstrated its latest advancements in counter-drone technology at CUAS Expo 2025 at Thorney Island. The display featured an integrated system that included the ARDRONIS Wi-Fi detection solution and ARDRONIS Locate Advanced localization solution, along with the newly released ARDRONIS Effect configured as a multiband jammer.

    At the event, Rohde & Schwarz showcased how its comprehensive counter-drone system detects, identifies and neutralizes rogue drones regardless of their operating frequency. The demonstration showed the system’s ability to manage non-cooperative and non-compliant devices operating outside established regulations.

    ARDRONIS Effect in the Multiband Jammer configuration was a key highlight, demonstrating its unique wideband architecture which enables it to simultaneously jam multiple frequency bands, providing unparalleled protection against a diverse range of drone threats. Unlike traditional jamming solutions, ARDRONIS Effect in the Multiband Jammer configuration doesn’t rely on pre-defined frequencies, making it highly effective against drones operating on unconventional or rapidly changing frequencies.

    ARDRONIS Locate Advanced complemented the jammer by providing precise drone detection and localization, allowing attendees to witness the system’s ability to quickly identify the location of drones and enable informed response decisions. The integrated system delivered a comprehensive view of situational awareness and robust protection capabilities.

    Rohde & Schwarz said it received interest from attendees at CUAS Expo 2025 and had conversations about customer requirements. The company is following up with agencies and CUAS system integrators to discuss potential deployments of the ARDRONIS system.

    “Discussions with attendees underscored the growing concern surrounding non-compliant drone activity and the need for adaptable, wideband solutions like ours,” said Christopher Mantle, business development manager for UK Land EW and Communications at Rohde & Schwarz.

  • Australian Defence selects Adtran optical cesium clock for PNT research

    Australian Defence selects Adtran optical cesium clock for PNT research

    Australia’s Defence Science and Technology Group (DSTG), part of the Australian government’s Department of Defence, has selected Adtran’s Oscilloquartz high-performance optically pumped cesium clock to support research at its Adelaide facility.

    The OSA 3300 HP will serve as a time and frequency reference for positioning, navigation and timing (PNT) research. Delivered in collaboration with local partner CoverTel, the deployment marks the first integration of optical cesium technology within Australian defense research.

    “DSTG’s selection of our optical cesium reflects a broader shift toward autonomous, long-term synchronization solutions,” said Stuart Broome, GM of EMEA and APAC sales at Adtran. “Defense organizations around the world are reassessing how they ensure timing resilience, particularly as reliance on GNSS becomes more of a risk.”

    The OSA 3300 HP will give national infrastructure precision and adaptability, supporting DSTG’s research into new strategies for assured PNT. DSTG selected the OSA 3300 HP to support advanced PNT research within its Sensors and Effectors division.

    Using optical pumping technology that measures 100 times more atoms than traditional magnetic cesium clocks, the device delivers outstanding frequency stability and precision, Adtran said. Its all-digital design ensures consistent performance, while its 10-year operational lifespan offers long-term value.

    With its compact form factor, robust construction and advanced atomic technology, the OSA 3300 HP provides the reliability needed to support Australia’s evolving synchronization requirements and critical scientific initiatives.

    The clock will help DSTG explore new approaches to synchronization and build greater resilience into the Australian Defence Force’s long-term PNT capabilities, especially in contested environments where GNSS jamming and spoofing are prevalent. It will lay the groundwork for systems that rely on precise, dependable timing — from secure defense communications to advanced sensing and navigation.

  • JAVAD GNSS, Inertial Labs partner to deliver advanced GNSS+INS navigation platform

    JAVAD GNSS, Inertial Labs partner to deliver advanced GNSS+INS navigation platform

    JAVAD GNSS, a global provider of high-precision GNSS solutions, and Inertial Labs, a VIAVI Solutions Company, have entered a strategic partnership to integrate Inertial Labs’ IMU-P modules with JAVAD’s advanced OEM GNSS receivers. This collaboration introduces a new GNSS+INS platform designed to deliver accuracy, stability and resilience, even in environments where GNSS signals are weak or unavailable.

    Central to this advancement is the JAVAD TR-3Si receiver, engineered for compatibility with professional IMU modules. Combined with the advanced IMU-P units, the system is positioned to offer high levels of precision and reliability, supporting mission-critical requirements in aerospace, defense, autonomous vehicles, UAVs, robotics, precision agriculture and other demanding sectors.

    Inertial Labs’ IMU-P modules can perform in dynamic settings, providing continuous orientation and acceleration data for sensor fusion. The integration of this inertial technology with JAVAD’s established GNSS systems enhances navigation accuracy and efficiency in both GNSS-accessible and GNSS-denied environments.

    JAVAD GNSS is expanding its support for IMU modules and is expected to release further updates on this initiative.

  • Anduril enters South Korean market, partners with Korean Air on UAS production

    Anduril enters South Korean market, partners with Korean Air on UAS production

    Anduril Industries is expanding into South Korea, opening a new office in Seoul. The company has also appointed a new local country leader and is forming partnerships with Korean companies to develop defense technologies for the region.

    The move coincides with a two-day visit to the Republic of Korea by company founder Palmer Luckey, who is meeting with government officials and industry leaders.

    The Seoul office is Anduril’s first in South Korea. John Kim has been appointed vice president and head of Anduril Korea. Kim previously led Boeing Korea’s defense business and served as the company’s interim president. He brings extensive experience working with the U.S. military and South Korea’s defense sector. The company plans to expand its local team and expects to double its headcount within 12 months.

    South Korea’s Ministry of Defense has prioritized artificial intelligence, autonomous systems, and networked weapons as part of a modernization effort coordinated by the Joint Chiefs of Staff. Military planners say current defense systems are insufficient to deter or prevail in future conflicts.

    As part of the expansion, Anduril will sign a contract with Korean Air’s Aerospace Business Division to co-develop unmanned aerial systems, license production of additional Anduril products for the Indo-Pacific market and explore the possibility of building a manufacturing and production facility in South Korea. The agreement is expected to establish a cooperative defense technology framework in the region.

    “Anduril is committed to helping the Republic of Korea in its mission to develop a technologically advanced, highly networked armed force with fewer but more precise platforms,” Kim said. “Our new office and team expansion is further demonstration of this ongoing commitment.”

    Founded in 2017, Anduril employs more than 6,000 people and is valued at over $30 billion. The company has delivered advanced defense capabilities to the U.S. Department of Defense, the Australian Defence Force and the U.K. Ministry of Defence. The new Seoul office will expand Anduril’s growing footprint in the Indo-Pacific.

  • Russian electronic warfare base linked to GPS jamming across Baltic region

    Russian electronic warfare base linked to GPS jamming across Baltic region

    The Estonian news portal Delfi reports that a covert Russian military installation in the Królewiec region, just east of Poland’s border, is believed to be responsible for GPS interference affecting the Baltic states and the Gulf of Finland.

    According to confidential sources, the facility’s primary mission is to monitor satellites and NATO communications, with the goal of undermining allied intelligence operations. Documents obtained by Delfi indicate that the base, located in Pioniersk, is part of Russia’s “Tobol” electronic warfare network.

    The Tobol system is described as a network of surveillance, defense and command sites designed both to shield Russian satellite communications and navigation systems from NATO attacks and to disrupt NATO intelligence. The Królewiec facility, which focuses on satellite monitoring, was officially established in 2009 by the Russian Ministry of Defence. Similar installations are located across Russia, including near Moscow, Penza, Cheboksary and in Ulan-Ude, Siberia.

    In July, Estonian authorities detected new jamming equipment near the eastern border by Narva and along the Narew Gulf coast. Experts believe these measures are intended to protect Russian facilities from potential Ukrainian drone strikes.

    The Finnish newspaper Ilta-Sanomat, reports that Russia has been developing navigation jamming technology since the 1980s, initially as a counter to GPS-guided weapons. Those capabilities have since expanded in response to Western military equipment supplied to Ukraine.

    Since the start of Russia’s full-scale invasion of Ukraine in 2022, incidents of GPS interference have increased in countries bordering Russia. Aviation and maritime navigation have been particularly affected, with pilots and ship crews reporting inaccurate or lost positioning data.

  • GöKHUN tactical UAS developed for missions on land, sea

    GöKHUN tactical UAS developed for missions on land, sea

    The GöKHUN unmanned aerial system (UAS) from Turkish company ESEN is a tactical vertical take-off and landing (VTOL) drone system that does not require a runway, offering maximum flexibility in operational use.

    Developed for versatile missions on land or at sea, GöKHUN combines the compact mobility of a NATO Class I UAV with the performance data of a Class II tactical system. The GöKHUN UAS uses the modern SP 210 FI GS 2-stroke engine from Sky Power International.

    With a take-off weight of up to 110 kg and a maximum fuel and payload capacity of 26 kg, the GöKHUN can remain in the air for up to 16 hours with a minimum payload. Even with a demanding sensor load of 12 kg, it can achieve a flight duration of around nine hours, making it suitable for long-endurance reconnaissance and surveillance missions.

    The GöKHUN’s cruising speed is between 96 and 158 km/h. The maximum range with direct line-of-sight is over 150 km, with the system reaching a service ceiling of approximately 5,500 m.

    GöKHUN can take off and land in an area measuring 10 x 10 meters, regardless of topographical conditions and without any infrastructure. This also allows it to be deployed in remote or difficult-to-access regions and on ships.

    The GöKHUN was designed for complex intelligence, surveillance and reconnaissance (ISR) missions. In addition, the system is suitable for a wide range of other applications such as environmental monitoring, disaster relief, border surveillance, anti-smuggling operations and precision agriculture. With its integrated vision-based navigation system GöRDES, the drone is independent of GNSS signals and can be reliably controlled even in GPS-denied environments.

    All safety-relevant systems such as navigation, flight control, data transmission and power supply are designed with double or triple redundancy. If the connection to the ground station is lost, the UAV returns autonomously to its starting point. In addition, GNSS interference protection ensures robust operation even under electronic interference.

    The GöKHUN is also designed for mobility and speed. Two technicians can have the system up and run in around 15 minutes, and it can be transported in two standard vehicles. Thanks to its modular design, the system is easy to maintain and can also be easily adapted to different deployment scenarios. A particularly outstanding feature is its ability to operate two different payloads simultaneously, for example EO/IR sensors for day and night operation or different communication and reconnaissance systems. It is controlled via an integrated ground station with a data terminal, which can also be transferred to other carrier vehicles during an operation.

    The system’s high environmental resistance, with an operating temperature range of −30°C to +55°C, and its ability to fly stably at wind speeds of up to 40 knots underlines its robustness. With its ITAR-free design, GöKHUN meets international export requirements and complies with NATO standards AEP-83/84. The system can be easily integrated into existing tactical networks, making it attractive to international partners.

    Overall, GöKHUN combines tactical range, modular architecture, simple logistics and operational independence. With its high endurance, vertical take-off capability and safe mission execution in complex environments, the system is ideal for modern applications in security-critical but also in civil areas, whether for border surveillance, disaster relief or as an ISR platform at sea. Its independence from GNSS signals and flexible payload configuration make the GöKHUN UAS a state-of-the-art solution in the field of unmanned aerial reconnaissance.

  • STM unveils defense innovations BOYGA-B and TUNGA at IDEF 2025

    STM unveils defense innovations BOYGA-B and TUNGA at IDEF 2025

    STM unveiled two of its latest innovations at IDEF 2025: the BOYGA-B rotary-wing UAV, capable of carrying multiple munitions, and the TUNGA Smart Munition System. IDEF, the International Defense Industry Fair, is a globally recognized trade fair in the defense industry, ths year hosted by Türkiye in Istanbul July 22-27.

    The BOYGA-B Ammunition Drop UAV is engineered for tactical missions such as reconnaissance, surveillance, target detection and precision munition deployment. The system can carry smart munitions as well as two 81 mm UAV munitions.

    The TUNGA Smart Munition System, developed for anti-personnel missions, has a modular design, image-based or GNSS-based guidance, and proximity-fuze detonation capability. Both new systems are designed to meet the evolving needs of modern combat environments.

    BOYGA-B Ammunition Drop UAV

    BOYGA-B is a high-precision rotary-wing UAV designed for reconnaissance, surveillance, target engagement and precision munition deployment in tactical operations. It can operate in GNSS-denied or jammed environments with its CRPA antenna and KERKES integration. The system can carry up to 8 kg of munitions and precisely release them onto targets using its integrated drop mechanism.

    Key Features

    • GNSS-denied operation via CRPA and KERKES
    • Flight time: 35 minutes
    • Range: Minimum 5 km
    • Operable by a single soldier
    • Target detection and tracking
    • Real-time EO/IR image transmission
    • Autonomous munition release and mission abort

    Payload Options

    • 2× 81 mm UAV Munitions
    • 1× TUNGA Smart Munition
    • 1× Kargu FPV Drone

    TUNGA Smart Munition System

    TUNGA is a glide-type guided munition developed by STM for anti-personnel missions. Equipped with a 1750 g warhead, TUNGA can be precisely guided to its target using EO/thermal imaging and onboard image processing. It offers safe operation with self-destruct functions and can be deployed from BOYGA-B or other compatible platforms.

    Key Features:

    • GNSS or image-based guidance
    • Self-destruct options
    • Modular design for different mission profiles
    • Low visibility with EO/thermal imaging
    • Proximity-fuse detonation

    Technical Specifications

    • Length: 540 mm
    • Warhead: 1750 g
    • Endurance: 30 minutes
    • Operational altitude: 300–800 m