Electronic warfare in 2026 is no longer a category that defense-policy analysts describe as a peripheral specialty of the broader military doctrine. On January 13, 2026, the Los Angeles-based counter-UAS specialist Epirus released video footage of its Leonidas VehicleKit (VK) high-power microwave (HPM) platform successfully disabling a fiber-optic-guided first-person-view (FPV) unmanned aerial system during a December 2025 live-fire technology demonstration at a U.S. government testing site — representing the first known instance of weaponized electromagnetic interference defeating a fiber-optic guided drone in the history of contemporary counter-UAS operations. The breakthrough is operationally consequential because fiber-optic FPV drones — connected to their operators through thin fiber-optic cables trailing from on-board spools rather than through traditional radio-frequency control links — had been specifically engineered to bypass the radio-frequency jamming, spoofing, and traditional electronic warfare measures that the broader counter-UAS toolkit had progressively built around. The contemporary Ukrainian theater has progressively been documenting the operational consequences: Ukrainian Deputy Prime Minister and Digital Transformation Minister Mykhailo Fedorov publicly stated that Russian forces are fielding fiber-optic FPV drones with 31 miles of range that represent “a very considerable threat to logistics and personnel,” while an August 2025 U.S. Army analysis characterized fiber-optic FPVs as “posing a significant counter-UAS challenge” that is “extremely difficult to detect and target” through conventional countermeasures. The cumulative electronic warfare developments across the past 18 months have progressively transformed the operational definition of contested airspace across the past several years of accelerating great-power competition in the contemporary Battlefields of the Future operational environment.
The story of electronic warfare in 2026 is the story of how a Russian secretive electronic warfare complex called Tobol — operating from facilities in Kaliningrad, St. Petersburg, Ulan-Ude in Siberia, and multiple additional sites across Russia — has progressively jammed GPS, Galileo, GLONASS, and Starlink satellite navigation and communications signals across the Baltic Sea, Eastern Ukraine, and substantial portions of the Gulf of Finland, producing the persistent signal degradation that the European Union Aviation Safety Agency (EASA) has warned about through multiple Safety Information Bulletins since 2024. The parallel Russian Krasukha-4 broadband jamming platform — mounted on the BAZ-6910 heavy truck chassis and operating across the X-band and Ku-band frequencies used by airborne radar, satellite communications, and surveillance systems — has progressively jammed airborne radar at ranges exceeding 200 kilometers, disrupted low-Earth orbit satellite communications, and in some cases caused permanent damage to targeted electronic systems through sustained high-power emissions. The cumulative Russian EW operational tempo has progressively forced the broader contemporary U.S. and NATO defense procurement framework to accelerate the counter-EW response across multiple programs: the Epirus Leonidas IFPC-HPM (Indirect Fires Protection Capability — High-Power Microwave) program with a $66 million U.S. Army contract awarded January 2023 delivering four operational systems by May 2024 and progressively scaling through additional procurements; the L3Harris Vampire rocket-based counter-drone system operationally deployed in Ukraine; the Anduril Roadrunner-M interceptor drone progressively integrated into the U.S. Marine Corps HALCAS framework; and the broader $600 million Joint Task Force counter-UAS procurement commitment announced April 6, 2026 that the contemporary defense procurement environment has progressively organized around.
Electronic Warfare in 2026: The Current State
The contemporary electronic warfare strategic landscape operates across four parallel technical and operational tracks that the broader counter-UAS research community has progressively characterized.
The first track is the traditional radio-frequency electronic warfare mission category — the dominant historical operational framework for jamming, spoofing, and disrupting adversary electromagnetic systems. The principal contemporary systems include the Russian Tobol ground-based stationary jamming complex operating from Kaliningrad, St. Petersburg, Ulan-Ude, and multiple additional sites; the Russian Krasukha-4 mobile broadband jamming platform on the BAZ-6910 chassis operating against X-band and Ku-band frequencies; the Russian Tirada-2S satellite communications jamming system; the U.S. EA-18G Growler airborne electronic attack aircraft and ALQ-249 Next Generation Jammer (NGJ); the U.S. EC-130H Compass Call airborne command-and-control jamming aircraft; the Chinese J-16D dedicated electronic-attack fighter; and the broader category of national EW systems operating across the contemporary great-power competition environment.
The second track is the counter-UAS directed-energy systems category — the rapidly emerging non-kinetic counter-drone capability operating through high-power microwave (HPM) and high-energy laser (HEL) technologies. The principal contemporary systems include the Epirus Leonidas high-power microwave platform (the dominant contemporary HPM counter-UAS system with operational deployment under the U.S. Army IFPC-HPM program), the Raytheon THOR (Tactical High-power Operational Responder) high-power microwave system, the Lockheed Martin HELIOS high-energy laser system on Arleigh Burke-class destroyers, the Raytheon DE-MSHORAD (Directed Energy — Maneuver Short-Range Air Defense) Stryker-mounted laser, the U.S. Air Force AFRL THOR high-power microwave, and the broader category of directed-energy counter-UAS platforms that the contemporary defense procurement environment has progressively been building.
The third track is the kinetic counter-UAS systems category — the traditional missile, gun, and projectile-based counter-drone capability that has progressively been adapted to address the contemporary high-volume drone threat environment. The principal contemporary systems include the Anduril Roadrunner-M vertical-takeoff autonomous interceptor (reusable if not used, U.S. Marine Corps HALCAS program selection), the Raytheon Coyote interceptor drone family, the L3Harris Vampire (Vehicle-Agnostic Modular Palletized ISR Rocket Equipment) 70mm-rocket-based counter-drone system operationally deployed in Ukraine, the U.S. Army Stryker M-SHORAD (Maneuver Short-Range Air Defense) vehicle, the Russian Pantsir-S1/S2 combined missile-and-gun air defense system, the Russian Tor-M2 air defense system, and the broader category of conventional kinetic counter-UAS platforms.
The fourth track is the fiber-optic FPV drone category — the anti-EW innovation that has progressively rendered radio-frequency jamming operationally ineffective against contemporary precision-strike drone attacks. The principal contemporary fiber-optic FPV platforms include the Russian fiber-optic FPV drones that Ukrainian Deputy PM Fedorov characterized as fielding 31-mile-range capability and that progressively dominate the Russian close-combat drone operational employment; the Ukrainian fiber-optic FPV drones developed by multiple Ukrainian defense-technology firms as the counter-Russian-EW response; and the broader category of fiber-optic-guided UAS platforms that have progressively become “a game-changing tactic in contested environments” as characterized by Epirus CEO Andy Lowery. The cumulative fiber-optic FPV proliferation has progressively forced the broader contemporary counter-UAS framework to develop alternative non-RF defeat mechanisms — paralleling the broader autonomous-systems integration framework that the contemporary defense procurement environment has progressively built, and the broader contemporary quantum sensing and communications race that the great-power competition has progressively been driving across multiple emerging-technology categories.
What Air Denial Actually Means
The contemporary air denial operational concept describes the broader military capability to prevent or substantially degrade adversary aerial operations across contested airspace through the integrated employment of electronic warfare, counter-UAS systems, traditional air defense, and the broader category of capabilities that target adversary aerial systems. The air denial mission category has progressively evolved beyond the traditional anti-aircraft framework — which focused on engaging manned aircraft and conventional missiles — into the contemporary multi-domain framework that addresses the saturated drone environment that has progressively become the defining characteristic of contemporary contested airspace.
The historical evolution of air defense across the past century has progressively expanded the mission scope and the technical complexity of the operational challenge. The World War I air defense doctrine progressively built the foundational anti-aircraft framework around heavy machine guns, light field guns, and the broader category of point-defense systems targeting the relatively small numbers of manned aircraft operating in early military aviation. The World War II air defense doctrine progressively expanded the mission scope to address mass formations of strategic bombers and the emerging guided-munition threat — establishing the operational templates for radar-directed anti-aircraft artillery, the Battle of Britain integrated air defense system, and the broader category of layered air defense frameworks. The Cold War air defense doctrine progressively integrated surface-to-air missiles, fighter-interceptor aircraft, and the broader command-and-control infrastructure that supported the integrated air defense system (IADS) concept. The post-9/11 air defense doctrine progressively addressed the emerging cruise missile and unmanned aerial vehicle threats through the broader homeland-defense framework.
The contemporary air denial environment has progressively rendered the traditional air defense doctrine operationally inadequate across substantial portions of the contested airspace. The proliferation of first-person-view (FPV) attack drones at unit costs of $500-$2,000 per platform has progressively driven the engagement economics into structurally unfavorable territory for conventional air defense systems that rely on multi-hundred-thousand-dollar interceptor missiles. The proliferation of fiber-optic FPV drones has progressively rendered radio-frequency jamming operationally ineffective against the most dangerous contemporary precision-strike drone threats. The proliferation of autonomous drone swarms has progressively saturated the conventional air defense engagement envelope through volume rather than individual platform sophistication. The cumulative threat environment has progressively forced the contemporary air denial doctrine to incorporate layered defense, directed-energy weapons, kinetic interceptors, and electronic warfare in coordinated multi-domain operations that the traditional air defense framework was not designed to execute.
The “saturated skies” strategic concept that has progressively informed the contemporary air denial doctrine characterizes the operational environment in which multiple types of unmanned aerial systems operate continuously across the contested airspace at densities that vastly exceed the historical air-traffic baseline. The contemporary Ukrainian theater progressively demonstrates the saturated-skies environment: approximately 10-15 kilometers of contested kill-zone airspace per linear kilometer of frontline continuously populated by Russian and Ukrainian aerial systems including FPV attack drones, reconnaissance UAVs, signals intelligence platforms, electronic warfare platforms, and traditional manned aircraft when they enter the engagement envelope. The cumulative saturation has progressively rendered the traditional “one-shot, one-kill” air defense doctrine operationally untenable — paralleling the broader contemporary great-power competition environment that has progressively organized around the high-volume, low-cost autonomous-systems operational framework, and the broader contemporary high-altitude airspace persistent-presence environment that has progressively been integrating across multiple altitude bands.
The January 2026 Epirus Leonidas Fiber-Optic Drone Defeat
The most operationally consequential single contemporary counter-UAS technology development is the January 13, 2026 Epirus announcement of the Leonidas VehicleKit (VK) high-power microwave platform successfully disabling a fiber-optic-guided FPV drone during a December 2025 live-fire technology demonstration at a U.S. government testing site. The demonstration — characterized by Epirus as “the first known instance of weaponized electromagnetic interference defeating a fiber-optic guided drone” — represents a fundamental operational milestone in the contemporary counter-UAS technology development.
The technical mechanism that supports the Leonidas defeat of fiber-optic FPV drones operates through a fundamentally different physical principle than the radio-frequency jamming approach. The traditional electronic warfare counter-drone framework operates by disrupting the radio-frequency command-and-control link between the operator and the drone — preventing the operator from steering the drone toward its target through interference with the RF signal. The fiber-optic FPV drone framework specifically defeats this approach by substituting a physical fiber-optic cable connection for the radio-frequency link — making the operator-to-drone communication immune to RF jamming. The Leonidas HPM approach operates by delivering software-defined electromagnetic energy at frequencies and power levels that disable the drone’s on-board electronics directly — fundamentally bypassing the operator-to-drone communication link and instead destroying the drone’s flight-control and propulsion electronics through electromagnetic interference effects.
The technical specifications of the Leonidas platform reflect the underlying software-defined phased-array architecture that the contemporary directed-energy counter-UAS development has progressively built around. The system uses high-power solid-state microwave energy to disable electronics, emitting steerable electromagnetic pulses thousands of times per second through a digitally beamformed phased-array antenna. The platform operates in both fixed and mobile configurations, with an operational range “sweet spot” of approximately two kilometers and the capability to engage targets across multiple altitudes through the long-pulse microwave energy transmission. The phased-array architecture enables the system to discriminate a single target among many or engage a wide area simultaneously in broad-beam mode — supporting both targeted engagement and the broader drone-swarm defeat operational mission.
The drone-swarm defeat demonstration — conducted on August 26, 2025 at a U.S. government testing site — progressively validated the operational capability of the Leonidas platform against high-volume targets. The demonstration tested the Leonidas against 61 drones across five operationally relevant flight scenarios, with the system disabling 61 of 61 drones (100 percent success rate). The event was capped off by the defeat of a 49-drone swarm consisting of two threat-representative drone types through one instant and low-collateral pulse of high-energy electromagnetic interference. The cumulative demonstration progressively validated the “one-to-many” defeat capability that distinguishes high-power microwave systems from the kinetic and RF-jamming counter-UAS frameworks that the contemporary U.S. defense procurement environment has progressively been building beyond.
The operational deployment of the Leonidas platform has progressively scaled through multiple U.S. Army procurement actions. The January 2023 Army Rapid Capabilities and Critical Technologies Office (RCCTO) $66 million contract for four IFPC-HPM systems delivered the first system in November 2023 and all four systems in May 2024 — marking the first material-released directed-energy weapon system specifically designed to counter groups and swarms of drones. The Army purchased two additional Leonidas systems in July 2025, with the company on track to deliver those systems through 2026. The March 24, 2026 unveiling of the Leonidas Autonomous Ground Vehicle (AGV) — combining the Leonidas HPM platform with General Dynamics Land Systems truck integration and Kodiak AI autonomous-driving system (the Kodiak Driver) — progressively extends the Leonidas platform into the fully autonomous mobile counter-UAS mission profile, paralleling the broader contemporary autonomous-systems integration framework that the contemporary defense procurement environment has progressively built across multiple operational domains.
Russia’s Tobol and the Baltic GPS Jamming Campaign
The most extensively documented contemporary state-level electronic warfare operation is the Russian Tobol jamming campaign — a multi-year operational effort that has progressively disrupted GPS, Galileo, GLONASS, and Starlink satellite navigation and communications signals across the Baltic Sea, Eastern Ukraine, and substantial portions of the Gulf of Finland through the deployment of Russian ground-based stationary jamming complexes. The Tobol system — originally developed in the late 2000s and early 2010s and first documented through Western OSINT analysis around 2013-2014 — represents one of the most operationally consequential contemporary electronic warfare systems.
The system architecture of Tobol operates through stationary high-power jamming complexes at multiple sites across Russia. The publicly documented Tobol sites include Ulan-Ude in Siberia, Kaliningrad on the Baltic coast, St. Petersburg, and multiple additional locations spread across the broader Russian territory. The system uses circular antenna arrays visible through satellite imagery that have progressively been characterized by OSINT analysts including Erik Kannike of Estonia-based SensusQ. The Tobol system was originally slated for U.S. inspection under the New START treaty in 2015-2016, though the geopolitical deterioration progressively scuttled those inspection plans — leaving Western intelligence analysis dependent on satellite imagery and OSINT rather than direct technical access.
The operational employment of Tobol has progressively expanded across multiple operational categories. The Washington Post April 2023 report — citing a classified U.S. intelligence assessment — characterized Russian use of Tobol to disrupt Starlink transmissions in Ukraine, supporting Russian counter-Ukrainian military operations through degradation of the satellite communications infrastructure that Ukrainian forces depend on. The cumulative Tobol operational tempo has progressively expanded to include jamming of GPS, Galileo, and GLONASS signals over the Baltic Sea and Gulf of Finland regions — producing the persistent signal degradation that has progressively affected commercial aviation, maritime navigation, and military operations across the broader European theater. The European Union Aviation Safety Agency (EASA) issued multiple Safety Information Bulletins beginning in 2024 warning operators of persistent signal degradation in the Baltic region, particularly in airspace proximate to Kaliningrad and the Russian coast.
The strategic shift from jamming to spoofing across 2025 represents one of the most consequential contemporary developments in the Tobol operational employment. Jaroslaw Cydejko — adjunct assistant professor at Gdynia Maritime University — has progressively characterized the shift, citing his research group’s observations that “in 2025, the interference has shifted from blocking the signals primarily to falsifying them”. The transition from jamming (which blocks signal reception) to spoofing (which introduces false signals) represents a substantially more sophisticated electronic warfare capability — enabling Russian operators to manipulate the apparent positions of GPS-using platforms rather than merely deny GPS access. The cumulative spoofing capability has progressively complicated the contemporary navigation environment for commercial aviation, maritime vessels, military operations, and the broader civilian infrastructure dependent on satellite navigation services.
The diplomatic response to the Tobol jamming campaign has progressively been ineffective across multiple bilateral and multilateral frameworks. Individual Baltic nations and the European Union have progressively attempted to get Russia to stop the jamming through diplomatic protests and international forums, but the cumulative effort has produced no operational reduction in the Russian jamming intensity. Russia has progressively characterized the Tobol jamming as “part of homeland defense” — providing the rhetorical framework for continuing the operations indefinitely. The cumulative diplomatic failure has progressively forced European nations to pursue alternative terrestrial navigation systems including the United Kingdom’s eLoran (Enhanced Long Range Navigation) system operating since 2014, the German DLR maritime PNT alternative program targeting pre-operational service to national maritime authorities by 2026, and the broader category of GPS-alternative navigation infrastructure that the contemporary arms-control framework breakdown has progressively forced into operational deployment.
Krasukha-4 and the Russian EW Architecture
The most operationally significant contemporary Russian mobile electronic warfare platform is the Krasukha-4 broadband jamming system — mounted on the BAZ-6910 heavy truck chassis and progressively deployed across the Russian theater of operations including substantial deployment in Ukraine since 2022. The Krasukha-4 — operating across the X-band and Ku-band frequencies used by airborne radar, satellite communications, and surveillance systems — represents one of the most operationally capable Russian mobile EW platforms.
The technical specifications of the Krasukha-4 reflect the underlying broadband jamming architecture that the Russian electronic warfare doctrine has progressively built around. The platform can jam airborne radar at ranges exceeding 200 kilometers — providing the operational reach to engage AWACS aircraft, ISR platforms, and the broader category of standoff airborne sensors. The platform can disrupt low-Earth orbit satellite communications — providing the operational capability to interfere with the proliferating LEO communications constellations including Starlink, OneWeb, and the broader commercial satellite communications infrastructure. In some operational employments, the Krasukha-4 has reportedly caused permanent damage to targeted electronic systems through sustained high-power emissions — moving beyond the traditional “soft kill” denial framework into the “hard kill” operational category that the contemporary directed-energy framework has progressively characterized.
The broader Russian EW architecture that complements the Krasukha-4 includes multiple specialized platforms operating across different operational missions. The Murmansk-BN is a long-range HF/VHF jamming system targeting strategic communications. The Leer-3 is a cellular network jamming and signals intelligence platform operating across the 2G/3G/4G mobile network frequencies. The Borisoglebsk-2 is a modular electronic warfare system operating across multiple frequency bands. The Tirada-2S is a satellite communications jamming system specifically targeting commercial and military satellite uplinks. The Pole-21 is a ground-based jamming system targeting GPS, GLONASS, and other GNSS signals at the tactical level. The cumulative Russian EW architecture represents one of the most operationally capable contemporary state-level electronic warfare frameworks, paralleling the broader contemporary great-power competition environment that has progressively organized around emerging strategic capabilities.
The Ukrainian operational adaptation to the Russian EW threat has progressively built one of the most operationally innovative contemporary counter-EW frameworks. The Ukrainian Pokrova layered EW system — combined with the broader Ukrainian defense-technology ecosystem including Kvertus, Bukovel-AD countering, and multiple smaller specialized platforms — has progressively built the operational response to the Russian EW dominance. Approximately 70 percent of Ukrainian FPV drone losses in some sectors are attributed to Russian electronic warfare effects rather than to kinetic engagement — demonstrating the operational consequence of the contemporary EW environment. The cumulative Ukrainian counter-EW adaptation has progressively informed the broader Western defense procurement environment, paralleling the broader contemporary autonomous-systems integration framework that the contemporary defense planning framework has progressively built around.
Fiber-Optic FPV Drones: The Anti-EW Innovation
The most operationally significant contemporary anti-electronic-warfare innovation is the fiber-optic FPV drone — a class of first-person-view attack drone that substitutes a physical fiber-optic cable connection for the traditional radio-frequency command-and-control link between operator and drone. The fiber-optic FPV innovation has progressively emerged from the Ukrainian theater operational experience and has subsequently been adopted by Russian forces as the operational counter to the increasingly effective Ukrainian electronic warfare capabilities.
The technical mechanism of the fiber-optic FPV operates through a deliberate architectural simplification. The drone carries a spool of thin fiber-optic cable — typically 10 to 50 kilometers of fiber depending on the platform variant — that progressively unspools during flight, maintaining a continuous physical connection between the drone and the operator’s control station. The fiber provides high-bandwidth, low-latency communication for both control signals (operator to drone) and video signals (drone to operator), supporting the precision-strike mission profile that the FPV operational doctrine has progressively built around. The complete absence of radio-frequency emissions during flight makes the drone immune to radio-frequency jamming and spoofing — fundamentally bypassing the broader EW countermeasures framework.
The operational employment of fiber-optic FPVs has progressively expanded across both the Russian and Ukrainian forces since approximately late 2023. The Russian fiber-optic FPV deployment has progressively scaled to include platforms operating at ranges exceeding 31 miles (50 kilometers) — fundamentally transforming the operational threat envelope for Ukrainian logistics, command-and-control, and reserve forces operating at substantial standoff from the immediate frontline. The Ukrainian fiber-optic FPV deployment has progressively built the operational counter-response, with multiple Ukrainian defense-technology firms developing equivalent platforms supporting Ukrainian precision-strike operations against Russian positions. The photographic documentation from Ukrainian frontline cities like Lyman progressively shows streets and structures draped with the fiber-optic cables from both Russian and Ukrainian FPV operations — providing the visual evidence of the cumulative operational scale.
The August 2025 U.S. Army analysis of fiber-optic FPV drones progressively characterized the operational implications for U.S. counter-UAS doctrine. The analysis concluded that fiber-optic FPVs “pose a significant counter-UAS challenge” and are “extremely difficult to detect and target” through conventional countermeasures. The traditional counter-UAS toolkit — RF jamming, GPS spoofing, signal-direction-finding, and the broader category of electronic warfare counter-drone approaches — operates fundamentally on the assumption that drones emit detectable radio-frequency signatures. The fiber-optic FPV’s complete absence of RF emissions during flight defeats the entire traditional counter-UAS framework, requiring the development of alternative non-RF defeat mechanisms that the contemporary directed-energy counter-UAS development has progressively been building around.
The strategic implications of fiber-optic FPV proliferation extend across multiple dimensions of the contemporary military planning environment. The proliferation renders the traditional RF-jamming counter-UAS approach operationally ineffective against the most dangerous contemporary precision-strike drone threats. The proliferation forces the broader counter-UAS framework to invest in alternative defeat mechanisms including directed-energy systems, kinetic interceptors, and broader detection capabilities. The proliferation substantially reduces the operational effectiveness of expensive RF-jamming systems that the contemporary U.S. and allied defense procurement frameworks have progressively built around. The cumulative implications progressively position the fiber-optic FPV as one of the most operationally consequential contemporary innovations in the broader contemporary great-power competition environment that the cumulative strategic-planning framework has progressively been organized around.
High-Power Microwave: The Counter-Fiber-Optic Response
The most operationally innovative contemporary counter-UAS technology category is the high-power microwave (HPM) directed-energy weapon — operating through weaponized electromagnetic interference that disables drone electronics directly rather than through interference with the drone’s communication link. The HPM technology category fundamentally bypasses the fiber-optic FPV innovation by defeating the drone’s flight-control and propulsion electronics through electromagnetic damage rather than by attempting to disrupt the operator-to-drone communication channel.
The technical principle that supports HPM counter-UAS operations operates through the broader category of non-ionizing electromagnetic radiation effects on electronic systems. The HPM weapon emits high-power microwave energy in the form of steerable electromagnetic pulses that progressively damage the drone’s on-board electronics through induced currents in the drone’s wiring, circuitry, and microchip junctions. The damage mechanism operates regardless of the drone’s communication architecture — whether the drone uses RF control, fiber-optic control, autonomous AI control, or any other communication framework — because the damage mechanism targets the electronic systems themselves rather than the communication link. The cumulative HPM mechanism progressively positions the technology as one of the few contemporary counter-UAS approaches that effectively addresses the fiber-optic FPV threat.
The principal contemporary HPM counter-UAS systems operating in the U.S. defense procurement environment include the Epirus Leonidas platform (the dominant operational HPM counter-UAS system with the IFPC-HPM Army program operational deployment), the Raytheon THOR (Tactical High-power Operational Responder) system, the U.S. Air Force AFRL THOR demonstrator, the Lockheed Martin HPM counter-UAS development efforts, and the broader category of military and commercial HPM systems progressively entering operational service. The cumulative HPM portfolio progressively positions the U.S. counter-UAS framework as the most advanced contemporary directed-energy counter-drone capability — paralleling the broader contemporary defense technology environment that has progressively been organized around emerging strategic capabilities, and depending on the broader strategic-materials and rare-earth-elements supply chain that the contemporary U.S. defense procurement environment has progressively been working to secure for high-power microwave generation systems.
The operational limitations of HPM counter-UAS systems progressively constrain the operational employment envelope despite the technical capability advantages. The contemporary Leonidas platform operates with an effective range “sweet spot” of approximately two kilometers — substantially shorter than the kinetic counter-UAS engagement envelope and the traditional air defense missile envelope. The HPM systems require substantial electrical power generation to support the high-power microwave emission — typically requiring vehicle-mounted or fixed-site power infrastructure rather than the lightweight man-portable employment that some counter-UAS missions require. The HPM systems can produce collateral effects on friendly electronic systems within the emission envelope — requiring careful operational employment to avoid disabling friendly drones, electronics, or other systems that the operator did not intend to engage. The cumulative operational limitations have progressively driven the layered defense doctrine that the contemporary counter-UAS framework has progressively built around — combining HPM systems with kinetic interceptors, RF jamming, and the broader category of complementary counter-UAS capabilities.
Anduril Roadrunner and the Kinetic Counter-UAS Framework
The most operationally significant contemporary kinetic counter-UAS platform is the Anduril Roadrunner-M vertical-takeoff autonomous interceptor — a reusable counter-drone interceptor platform that the U.S. Marine Corps HALCAS (Harvest Hawk Light Counter Aerial System) program selected for operational deployment. The Roadrunner platform — developed by Anduril Industries as part of the broader Anduril defense systems portfolio — represents one of the most operationally innovative contemporary kinetic counter-UAS approaches.
The operational concept of the Roadrunner-M operates through a fundamentally different framework than the traditional missile-based counter-UAS approach. The platform is a vertical-takeoff autonomous jet-powered interceptor that can launch in seconds in response to a detected drone threat, autonomously navigate to engage the target, and either destroy the target through kinetic intercept or return safely to base if the engagement is aborted. The reusability if not used characteristic represents a substantial operational economic advantage over traditional missile interceptors that are expended on each engagement regardless of outcome — supporting the broader cost-imposition mechanism that the contemporary counter-UAS framework has progressively built around.
The integration capability of the Roadrunner platform progressively extends the operational employment envelope through interoperability with other Anduril systems and external counter-UAS platforms. The platform integrates with the broader Anduril Lattice command-and-control framework — supporting coordinated multi-platform counter-UAS operations across distributed sensor networks. The platform has been progressively integrated with the Epirus Leonidas HPM system in development demonstrations — supporting layered counter-UAS engagement combining the Leonidas HPM area-defeat capability with the Roadrunner kinetic-intercept point-defense capability. The cumulative integration capability progressively positions the Roadrunner as one of the central nodes in the contemporary U.S. layered counter-UAS framework, paralleling the broader contemporary defense systems integration environment that the contemporary defense procurement framework has progressively been built around.
The broader kinetic counter-UAS framework that complements the Roadrunner includes multiple parallel platforms operating across different engagement profiles. The Raytheon Coyote interceptor drone family provides the medium-range kinetic counter-UAS capability operating from ground-based and naval platforms. The L3Harris Vampire (Vehicle-Agnostic Modular Palletized ISR Rocket Equipment) uses 70mm rockets with proximity fuze to engage drones at short-to-medium range — with operational deployment in Ukraine providing combat validation of the system’s effectiveness against the Russian drone threat. The Stryker M-SHORAD (Maneuver Short-Range Air Defense) provides the integrated short-range air defense capability for U.S. Army maneuver formations. The U.S. Army $600 million Joint Task Force counter-UAS procurement commitment announced April 6, 2026 progressively expands the broader kinetic counter-UAS procurement framework. The cumulative kinetic counter-UAS framework represents one of the most operationally significant contemporary defense procurement transformations.
GPS Spoofing and the European Civil Aviation Crisis
The most consequential contemporary civilian impact of state-level electronic warfare is the European civil aviation GPS jamming and spoofing crisis that has progressively expanded across the Baltic region since 2022. The combination of Russian Tobol jamming, Krasukha-4 broadband interference, and the broader Russian EW architecture has progressively produced persistent signal degradation across substantial portions of European airspace — fundamentally complicating the contemporary commercial aviation operational framework.
The operational impact on commercial aviation operates through multiple dimensions of the broader air traffic management framework. The European Union Aviation Safety Agency (EASA) has issued multiple Safety Information Bulletins beginning in 2024 warning aviation operators of persistent GPS signal degradation in the Baltic region, particularly in airspace proximate to Kaliningrad and the Russian Baltic coast. The signal degradation progressively affects GPS-based instrument approaches, automatic dependent surveillance-broadcast (ADS-B) position reporting, terrain awareness warning systems (TAWS), and the broader category of GPS-dependent aviation safety systems. The cumulative impact has progressively forced commercial airlines to revert to traditional navigation methods including VOR/DME and inertial navigation systems that the modern aviation operational doctrine had progressively been moving away from.
The scale of the jamming impact has progressively expanded across multiple European countries. Estonia, Finland, Lithuania, Poland, Sweden, and other Baltic-region nations have reported persistent GPS disturbances affecting both civil aviation and maritime navigation. The March 29, 2025 jamming event from Baltiysk, Kaliningrad — documented by Gdynia Maritime University, the University of Colorado, and the Maritime Office at Gdynia — represented one of the operationally significant single events in the cumulative campaign. The 2025 transition from jamming to spoofing that the Gdynia Maritime University research group documented progressively complicated the operational response, with falsified position signals being substantially more difficult to detect and mitigate than the traditional jamming approach that simply blocks signal reception.
The alternative navigation infrastructure that the contemporary European response has progressively been building represents one of the most consequential contemporary navigation-infrastructure investments. The United Kingdom eLoran (Enhanced Long Range Navigation) system — operating in low frequencies of 90 to 100 kHz since 2014 — represents the first operational land-based terrestrial alternative to GPS. The German DLR maritime PNT alternative program is targeting pre-operational service to Finnish and Estonian national maritime authorities by 2026 — progressively building the eastern Baltic alternative navigation coverage. The South Korean eLoran equivalent development is progressively addressing the parallel North Korean jamming threat. The cumulative international response to the GPS jamming and spoofing campaign progressively positions terrestrial navigation infrastructure as a meaningful strategic investment category, paralleling the broader contemporary great-power competition environment that has progressively forced infrastructure-resilience investments across multiple operational domains.
The strategic implications of the GPS jamming and spoofing crisis extend beyond the immediate civil aviation impact into the broader question of resilient critical infrastructure. The contemporary global economy depends on GPS for precision agriculture, telecommunications network timing, financial transaction timing, emergency services dispatch, autonomous vehicle navigation, container shipping logistics, and the broader category of GPS-dependent civilian infrastructure that the persistent jamming campaign progressively degrades. The cumulative strategic vulnerability has progressively forced the U.S., European, and allied governments to evaluate the resilience of the broader GPS-dependent critical infrastructure framework — with the cumulative investment in alternative terrestrial navigation systems representing one of the most consequential contemporary infrastructure-resilience initiatives.
Layered Air Defense: The Israeli Doctrine Adaptation
The most operationally validated contemporary layered air defense doctrine is the Israeli multi-layered air defense framework — operating through the integrated combination of Iron Dome (short-range rocket defense), David’s Sling (medium-range air defense), Arrow 2 and Arrow 3 (long-range and exoatmospheric ballistic missile defense), and various counter-UAS systems including the Drone Dome and broader counter-drone framework. The Israeli operational experience — particularly across the October 7, 2023 Hamas attack and the subsequent multi-front conflict environment — has progressively validated the operational doctrine that the contemporary counter-UAS framework has progressively been adapting.
The layered defense principle that the Israeli doctrine operates through has progressively become the central organizing concept for contemporary counter-UAS operations. The principle recognizes that no single counter-UAS technology can address the full range of contemporary drone threats across all engagement profiles. The principle requires the integrated employment of multiple complementary technologies — including kinetic interceptors for high-value or unambiguous threats, directed-energy systems for high-volume or low-cost threats, radio-frequency jamming for RF-dependent threats, broader sensor networks for early detection, and the command-and-control infrastructure that coordinates the multi-system employment. The cumulative layered framework progressively addresses the operational complexity that no single technology can match.
The contemporary U.S. counter-UAS adaptation of the layered defense doctrine has progressively been built around the integration of multiple complementary platforms. The Epirus Leonidas HPM system provides the broad-beam area-defeat capability against drone swarms. The Anduril Roadrunner-M provides the precision kinetic-intercept capability against high-value individual threats. The L3Harris Vampire provides the cost-effective rocket-based counter-drone capability. The traditional Stryker M-SHORAD provides the integrated short-range air defense for U.S. Army maneuver formations. The broader Joint Counter-small UAS Office (JCO) — established in 2020 as the lead Pentagon organization for counter-UAS — progressively coordinates the multi-system integration across the broader U.S. defense framework. The cumulative U.S. layered counter-UAS framework represents one of the most operationally significant contemporary defense-modernization initiatives, paralleling the broader history of U.S. military specialized-detection programs that have progressively informed the contemporary multi-domain operational doctrine.
The 2026 World Cup counter-UAS preparation has progressively driven additional U.S. counter-UAS procurement and operational planning. The multiple high-profile sporting events scheduled for 2026 — including the FIFA World Cup co-hosted by the United States, Canada, and Mexico — have progressively required the integration of counter-UAS capabilities into the broader event-security framework. The cumulative event-security counter-UAS preparation progressively informs the broader homeland-defense counter-UAS framework that the contemporary intelligence and surveillance operational framework has progressively been integrating.
The EU “Drone Wall” initiative represents the parallel European response to the broader contemporary aerial threat environment. European Union ministers have progressively been meeting to coordinate the multi-national counter-drone framework that the broader European territory requires — addressing the cumulative threat from Russian fiber-optic FPVs, the broader proliferation of commercial drones with weaponization potential, and the broader category of emerging aerial threats. The cumulative European response progressively positions counter-UAS as a strategic priority comparable to traditional air defense investments.
What Electronic Warfare in 2026 Actually Demonstrates
The cumulative weight of the contemporary electronic warfare 2026 strategic context — the January 13 2026 Epirus Leonidas VehicleKit high-power microwave platform first known instance of weaponized electromagnetic interference defeating a fiber-optic guided FPV drone during the December 2025 live-fire technology demonstration at a U.S. government testing site, the August 26 2025 Leonidas demonstration defeating 61 of 61 drones across five operationally relevant flight scenarios including the 49-drone swarm defeat through one instant pulse of high-energy electromagnetic interference, the January 2023 Army Rapid Capabilities and Critical Technologies Office RCCTO $66 million Epirus contract for four IFPC-HPM systems with first system delivery November 2023 and all four systems May 2024 marking the first material-released directed-energy weapon system specifically designed to counter groups and swarms of drones, the July 2025 Army purchase of two additional Leonidas systems and the July 2025 unveiling of the latest version doubling operational range and lethality, the March 24 2026 Epirus + General Dynamics Land Systems + Kodiak AI Leonidas Autonomous Ground Vehicle (AGV) unveiling combining the Leonidas HPM with Kodiak Driver autonomous-driving system, the Leonidas software-defined phased-array architecture using high-power solid-state microwave energy with steerable electromagnetic pulses thousands of times per second and operational range “sweet spot” of approximately two kilometers, the Anduril Roadrunner-M vertical-takeoff autonomous reusable interceptor with U.S. Marine Corps HALCAS Harvest Hawk Light Counter Aerial System program selection and Anduril Lattice command-and-control integration, the L3Harris Vampire Vehicle-Agnostic Modular Palletized ISR Rocket Equipment 70mm-rocket-based counter-drone system operationally deployed in Ukraine, the Raytheon Coyote interceptor drone family and the broader kinetic counter-UAS framework, the April 6 2026 Joint Task Force $600 million counter-UAS procurement commitment, the Russian Tobol stationary jamming complex operating from Kaliningrad, St. Petersburg, Ulan-Ude in Siberia, and multiple additional sites across Russia targeting GPS, Galileo, GLONASS, and Starlink signals across the Baltic Sea, Eastern Ukraine, and Gulf of Finland with the New START 2015-2016 inspection scuttled by geopolitical deterioration and the April 2023 Washington Post classified U.S. intelligence assessment of Russian Tobol use against Starlink in Ukraine, the European Union Aviation Safety Agency EASA multiple Safety Information Bulletins beginning in 2024 on Baltic GPS interference, the 2025 transition from jamming to spoofing documented by Gdynia Maritime University adjunct assistant professor Jaroslaw Cydejko and the broader research group observations, the March 29 2025 Baltiysk Kaliningrad jamming event documented by Gdynia Maritime University with the University of Colorado and Maritime Office at Gdynia, the Russian Krasukha-4 broadband jamming platform on BAZ-6910 chassis operating across X-band and Ku-band frequencies with 200+ kilometer range against airborne radar and capable of permanent damage through sustained high-power emissions, the broader Russian EW architecture including Murmansk-BN, Leer-3, Borisoglebsk-2, Tirada-2S, and Pole-21 platforms, the Russian fiber-optic FPV drones with 31-mile / 50-kilometer range that Ukrainian Deputy Prime Minister and Digital Transformation Minister Mykhailo Fedorov characterized as “a very considerable threat to logistics and personnel,” the August 2025 U.S. Army analysis of fiber-optic FPV drones as “posing a significant counter-UAS challenge” that is “extremely difficult to detect and target,” the photographic documentation of Lyman Ukraine streets draped with fiber-optic cables from both Russian and Ukrainian FPV operations, the approximately 70 percent of Ukrainian FPV drone losses in some sectors attributed to Russian electronic warfare effects, the Ukrainian Pokrova layered EW system combined with Kvertus and broader counter-EW ecosystem, the United Kingdom eLoran Enhanced Long Range Navigation system operating at 90-100 kHz since 2014, the German DLR maritime PNT alternative program targeting Finnish and Estonian national maritime authorities by 2026, the South Korean eLoran equivalent against North Korean jamming, the Israeli multi-layered air defense framework with Iron Dome, David’s Sling, Arrow 2, Arrow 3, and Drone Dome integration, the U.S. Joint Counter-small UAS Office JCO established in 2020 as the lead Pentagon counter-UAS organization, the 2026 FIFA World Cup counter-UAS preparation by the United States, Canada, and Mexico, the European Union “Drone Wall” initiative coordinating multi-national counter-drone framework, and the broader contemporary great-power strategic competition framework integrating electronic warfare across multiple operational categories — represents a strategic context that is, in its operational density and policy consequence, one of the most significant transformations of the contested-airspace operational environment in the history of military aviation.
The electronic warfare of 2026 is no longer theoretical. The Epirus Leonidas has defeated fiber-optic FPV drones. The Russian Tobol is jamming Baltic GPS signals. The Krasukha-4 is jamming airborne radar at 200+ kilometer ranges. The Russian fiber-optic FPVs are operating at 50-kilometer ranges. The Ukrainian fiber-optic FPVs are progressively building the counter-response. The 70 percent Ukrainian FPV drone loss to Russian EW in some sectors progressively forces the counter-EW investment. The Anduril Roadrunner-M is operationally selected. The L3Harris Vampire is operationally deployed in Ukraine. The Joint Task Force has committed $600 million to counter-UAS procurement. The Leonidas Autonomous Ground Vehicle is operationally available. The European GPS-alternative infrastructure is progressively being deployed. The Israeli layered air defense doctrine has been operationally validated. The 2026 World Cup counter-UAS preparation is operationally underway. The EU Drone Wall initiative is operationally coordinating. The cumulative state of the electronic warfare strategic environment in 2026 has progressively transitioned from theoretical to operational across the past several years of accelerating great-power competition in the contested-airspace domain.
The structural questions that the next several years of electronic warfare development will be addressing include whether the Epirus Leonidas IFPC-HPM program can be operationally scaled to address the full range of contemporary drone threats across multiple theater deployments, whether the Anduril Roadrunner-M and broader kinetic counter-UAS platforms can be cost-effectively integrated into the layered defense framework, whether the European GPS-alternative terrestrial navigation infrastructure can be operationally deployed at sufficient scale to mitigate the broader civil aviation impact of Russian jamming, whether the Russian Tobol jamming campaign can be diplomatically addressed through bilateral or multilateral frameworks despite the consistent Russian rhetorical framing as “homeland defense,” whether the Russian fiber-optic FPV proliferation can be operationally countered by the cumulative U.S. and Western directed-energy counter-UAS development before the Russian fiber-optic FPV doctrine produces decisive operational consequences in the Ukrainian theater or in subsequent operational scenarios, whether the broader great-power strategic competition will produce operational scenarios in which the cumulative electronic warfare capabilities are operationally employed beyond the Ukrainian theater into broader regional conflicts including the Indo-Pacific scenario, whether the cumulative international humanitarian law framework governing GPS jamming and spoofing operations affecting civil aviation will be updated to address the unique operational characteristics of contemporary electronic warfare that the existing international conventions were not designed to handle, and whether the broader contemporary arms-control framework breakdown that the great-power competition has progressively produced will be extended into the electronic warfare mission categories through new international agreements or whether the cumulative collapse will continue across all major operational domains.
A Russian Tobol electronic warfare facility operates from Kaliningrad on the Baltic coast. It jams GPS, Galileo, and GLONASS signals across the Baltic Sea, eastern Ukraine, and substantial portions of the Gulf of Finland. The European Union Aviation Safety Agency issues persistent Safety Information Bulletins. Estonia, Finland, Lithuania, Poland, and Sweden report persistent GPS disturbances. Commercial aviation reverts to traditional navigation. The 2025 transition from jamming to spoofing complicates the operational response. The Krasukha-4 mobile broadband jammer operates from Russian positions in Ukraine, jamming airborne radar at 200+ kilometer ranges. Russian fiber-optic FPV drones operate at 50-kilometer ranges against Ukrainian logistics targets. Ukrainian fiber-optic FPV drones operate at equivalent ranges against Russian positions. The streets of Lyman, Ukraine are draped with fiber-optic cables from both sides. Approximately 70 percent of Ukrainian FPV drone losses in some sectors are attributed to Russian electronic warfare effects. The Epirus Leonidas defeats fiber-optic FPV drones through electromagnetic interference targeting the drone electronics directly. The 49-drone swarm defeat in August 2025 validates the one-to-many defeat capability. The U.S. Army has deployed four IFPC-HPM systems with two more in production. The Anduril Roadrunner-M is operationally selected for the U.S. Marine Corps. The L3Harris Vampire is operationally deployed in Ukraine. The Joint Task Force has committed $600 million to counter-UAS procurement. The cumulative state of the electronic warfare strategic environment in 2026 represents one of the most consequential transformations of the contested-airspace operational environment in the history of military aviation — a transformation that has been progressively built around the recognition that the saturated skies of contemporary contested airspace require a fundamentally different operational doctrine than the traditional air defense framework that historical military aviation has organized around, with the cumulative integration of directed-energy weapons, kinetic interceptors, electronic warfare, fiber-optic FPV drones, GPS jamming and spoofing, and the broader category of multi-domain operations progressively rendering the traditional doctrine operationally obsolete across multiple theater operations, multiple platform categories, and multiple international competitor capabilities as the broader contemporary strategic environment progressively accelerates toward the multi-decade operational deployment that the technology and policy frameworks have been progressively preparing the cumulative air denial infrastructure to support.