SAAB Unveils A3-001 Autonomous Fighter as European Counterpart to U.S. Collaborative Combat Aircraft
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Swedish Company Saab has unveiled the A3-001 unmanned fighter jet concept as a European counterpart to the U.S. Air Force’s Collaborative Combat Aircraft (CCA) effort, introducing an autonomous combat-drone concept designed to operate alongside Gripen fighters in heavily contested airspace. The aircraft is intended for suppression of enemy air defenses (SEAD), electronic warfare, and precision strikes against Russian-style air-defense networks, potentially reducing crewed fighters’ exposure during the most dangerous phases of an air campaign.
Presented at the Swedish Armed Forces Air Show at Malmen Air Base in Linköping on August 22, 2026, the A3-001 reflects the same crewed–uncrewed teaming model now shaping future U.S. air combat. Its importance lies in its ability to push sensors, jammers, and weapons deeper into defended airspace while allowing the Gripen to remain the crewed command element of a more distributed combat formation.Related Topic: The Future of Collaborative Combat Aircraft: Built on Versatility and Modularity
Swedish Company Saab unveils the A3-001, a full-scale concept for a future autonomous combat aircraft designed to operate alongside Gripen fighters in contested airspace. (Picture source: SAAB)
The comparison with the United States is increasingly unavoidable because the U.S. Air Force CCA (Collaborative Combat Aircraft) effort has already progressed from prototype development toward production, weapons integration, and operational experimentation. General Atomics is developing the YFQ-42A, while Anduril is developing the YFQ-44A Fury, placing both companies at the center of the first American CCA increment. Their progress gives Saab a clear benchmark as it develops a European alternative built around Gripen, electronic warfare, and operations against dense surface-to-air missile networks.
The A3-001 is not part of the U.S. Air Force program, nor is Saab presenting it as a derivative of an American design. Its significance lies in the fact that Sweden is addressing the same operational problem from a different industrial and doctrinal base: how to increase combat mass, extend the reach of crewed fighters, distribute sensors and weapons across multiple aircraft, reduce risks to pilots in defended airspace, and use autonomy to sustain missions when communications are degraded.
This places Saab within a broader competition that is becoming as much industrial as operational. The United States is already building an ecosystem around autonomous combat aircraft, while Europe remains at an earlier stage in defining comparable capabilities. Saab’s opportunity is to position the A3-001 as a sovereign European solution optimized for existing Gripen users, NATO operations in Northern Europe, and missions against sophisticated air-defense networks.
The American program already sets a high standard for Saab. U.S. CCA development has progressed beyond autonomous flight testing into weapons integration, testing, and realistic operational exercises, meaning that any future A3-derived aircraft will have to prove far more than basic autonomy. It will need to demonstrate survivability, sensor fusion, electronic attack, weapons employment, reliable mission autonomy, and the ability to operate with crewed fighters under combat conditions.
Farnborough 2026 highlighted five of the most important Collaborative Combat Aircraft currently shaping the future of military aviation: the FQ-42A Dark Merlin, BAE Systems Brontanax, Airbus U760 Ravenstorm, Boeing MQ-28 Ghost Bat and Anduril FQ-44A Fury.
Saab describes the A3-001 as a low-observable, highly autonomous uncrewed combat aircraft that can complement the Gripen and future crewed combat-air capabilities. The company identifies electronic warfare, suppression of enemy air defenses, and precision strike as principal missions, indicating that the aircraft is intended for demanding combat roles rather than routine surveillance or remotely controlled operations. Saab also says it intends to fly uncrewed demonstrators with fighter-like characteristics before 2030, while the A3 represents what could follow in the mid-2030s if Sweden chooses to continue development.
The SEAD role is especially important because Russian air defenses remain among the most difficult threats NATO combat aircraft could face in a high-intensity confrontation. Russian-style integrated networks combine long-range surface-to-air missile systems with shorter-range defenses, mobile radars, passive sensors, command posts, and electronic-warfare units, creating overlapping engagement zones designed to restrict the freedom of movement of crewed fighters.
An A3-derived autonomous wingman could move ahead of a Gripen formation to search for emitters, force hostile radars to activate, conduct electronic attacks, or support weapons employment against exposed air-defense nodes. This would let Gripen pilots stay farther from the highest-density missile zones while still receiving targeting and threat information from aircraft operating closer to the enemy, shifting the mission’s highest-risk elements away from the crewed fighter.
The operational value would extend well beyond pilot protection. A formation combining Gripen fighters with multiple autonomous combat drones could generate more radar tracks, electronic signatures, and simultaneous attack vectors than a comparable number of crewed fighters. This could force Russian air-defense operators to choose among activating radars and revealing their positions, expending expensive interceptors against uncrewed aircraft, repositioning mobile systems more frequently, or remaining silent and accepting reduced situational awareness.
This is the core logic of modern SEAD. The objective is not always to destroy every surface-to-air missile battery, but rather to suppress or disrupt the defensive network long enough to create windows in which Gripen aircraft, other NATO fighters, and stand-off weapons can operate at lower risk. An autonomous combat drone that can detect emitters, support electronic attacks, and carry precision weapons could make those windows wider and more frequent.
The U.S. Air Force CCA effort follows the same broader principle by using autonomous aircraft to increase the number of sensors, weapons, and maneuvering assets available to a formation without increasing pilot numbers at the same rate. Saab may differentiate itself by placing greater emphasis on penetration support, SEAD, and electronic warfare in European threat environments, particularly those shaped by Russian long-range air defenses and electronic attack.
The Swedish concept also appears more ambitious than that of a low-cost expendable drone designed primarily to generate mass. Saab describes the A3-001 as a survivable aircraft with low observability and fighter-like characteristics, suggesting a platform intended for repeated combat employment in defended airspace rather than for one-way attack or deception missions. This approach would increase costs, but it could also justify integrating more capable sensors, electronic-warfare equipment, and precision weapons.
The Gripen is central to Saab’s competitive proposition. Rather than developing the A3-001 as a standalone autonomous combat drone, Saab can integrate it into an existing ecosystem of mission systems, data links, electronic warfare, and rapid software updates already associated with Gripen operations. An A3-derived aircraft could therefore act as an extension of the Gripen’s sensors and weapons, allowing the fighter pilot to manage a distributed formation while uncrewed aircraft operate farther forward.
That could become one of Saab’s strongest arguments against U.S. CCA suppliers. The YFQ-42A and YFQ-44A are being developed for integration into the broader U.S. combat architecture, whereas Saab could offer an autonomous combat aircraft optimized specifically for Gripen users and European operational requirements. For countries already operating the Gripen, such an approach could reduce integration risk while increasing national control over mission software, electronic-warfare data, and weapons interfaces.
GlobalEye could further reinforce this architecture by providing wide-area surveillance and threat detection while the Gripen handles tactical command and autonomous combat drones move closer to hostile defenses. This arrangement would distribute sensing, jamming, and weapons delivery across several aircraft rather than concentrating those functions in a single crewed fighter, thereby making the overall force more resilient.
The Saab A3-001 concept features a tailless, low-observable flying-wing design for operations in contested airspace alongside Gripen fighters, emphasizing reduced radar signature and autonomous combat missions. (Picture source SAAB)
The Baltic and Nordic theaters provide a particularly strong case for this model. Russian air-defense systems deployed in and around the region can influence large sections of operational airspace, while short distances compress warning times and increase the importance of rapid sensor-to-shooter coordination. A Gripen formation supported by autonomous combat aircraft could push electronic attack and sensing farther forward without exposing the entire crewed force to the same threat envelope.
Electronic warfare could become one of the A3-001’s most valuable missions. An autonomous aircraft operating closer to hostile radars could potentially deliver more effective jamming or deception than a crewed fighter forced to remain at greater range, while also collecting real-time information on changes in radar behavior, emitter locations, and electronic activity. That information could be shared with Gripen and other NATO aircraft to improve targeting and shorten response times against mobile air-defense units.
Autonomy becomes critical once these aircraft enter an environment dominated by Russian electronic warfare. Continuous communications cannot be guaranteed because data links may be jammed, interrupted, or intercepted. An effective autonomous combat drone must therefore be able to continue key mission functions without constant pilot input. It would need to manage sensors, alter routes, react to threats, and preserve mission objectives even when communication with the controlling fighter becomes intermittent.
The U.S. Air Force is already investing heavily in this problem through mission-autonomy software and open architectures intended to support different software packages across multiple CCA designs. Saab will need to demonstrate comparable software maturity if the A3-001 is to become a credible European competitor. However, the Gripen gives the company a useful foundation because rapid mission-system development and electronic-warfare adaptation are already central to the fighter’s design philosophy.
That software adaptability will be particularly important in SEAD missions because Russian air defenses do not operate according to fixed patterns. Mobile radars can shut down, relocate, and reappear elsewhere, while electronic-warfare units can disrupt navigation and communications. An effective autonomous combat aircraft must therefore support dynamic targeting by detecting changing emitters, classifying threats, and coordinating with Gripen and other sensors as the defensive network evolves.
Low observability would reinforce that role. Saab has not disclosed detailed radar-signature data or figures for payload, range, or performance, and the A3-001 remains a concept rather than an operational design. Nevertheless, its emphasis on reduced observability shows that survivability against modern radar-guided defenses is a core requirement. A smaller radar signature could reduce detection and engagement ranges, giving the aircraft more time to approach hostile systems.
The industrial competition is equally significant. The United States already has two first-generation CCA aircraft, multiple autonomy suppliers, and a procurement base large enough to accelerate development and potentially reduce unit costs. Saab cannot easily match that scale, so its competitive advantage will likely depend on integration, sovereignty, and specialization rather than production volume alone.
Europe currently has no operational equivalent to the U.S. Air Force CCA ecosystem. If European companies do not move quickly enough, NATO countries seeking autonomous combat aircraft may increasingly turn to U.S. suppliers. Saab can counter this trend by positioning the A3-001 as a sovereign European solution designed around an existing European fighter and optimized for missions directly relevant to the continent’s security environment.
As examined in [Army Recognition coverage of the U.S. Air Force Collaborative Combat Aircraft program](INTERNAL-LINK), Washington is already moving the CCA concept from experimentation toward future force structure. Saab’s A3-001 now gives Europe a potentially competing approach built around Gripen teaming, SEAD, electronic warfare, and operations against Russian air defenses rather than one that simply reproduces the American model.
The competitive timeline nevertheless favors the United States. The U.S. Air Force has already advanced autonomous combat aircraft through flight testing and operational experimentation, while Saab says it intends to fly fighter-like uncrewed demonstrators before 2030. This gives American programs a maturity advantage, but it also lets Sweden absorb lessons from U.S. experience in autonomy, logistics, weapons integration, and crewed–uncrewed command before committing to an operational design.
The difference in industrial scale may push Saab toward a more specialized solution. Rather than trying to compete with the United States in terms of autonomous combat-aircraft numbers, Sweden could emphasize high-value missions such as SEAD and electronic warfare, in which survivability, mission-system quality, and Gripen integration may matter more than fleet size alone. That would make the A3-001 particularly relevant to NATO planning against Russia because it addresses one of the most difficult problems in any European air campaign: suppressing layered air defenses without accepting excessive losses among crewed fighters.
As detailed in [Army Recognition reporting on Gripen E modernization](INTERNAL-LINK), the future combat value of the Gripen will increasingly depend on how effectively Saab expands the fighter’s reach through networked sensors, weapons, and autonomous systems. The A3-001 offers a route to increase that reach without requiring Sweden to replace its crewed fighter fleet immediately, potentially transforming the Gripen from a highly networked fighter into the command element of a larger crewed–uncrewed force.
For U.S. readers, the significance is that the U.S. Air Force CCA initiative is now generating a visible European competitive response. General Atomics and Anduril are defining the American model through the YFQ-42A and YFQ-44A, while Saab is positioning the A3-001 as a European autonomous combat drone built around the Gripen and optimized for SEAD, electronic warfare, and penetration of Russian air defenses.
If Saab can validate fighter-like performance, autonomy, low observability, and mission-system integration before 2030, Sweden could enter the mid-2030s with one of Europe’s most credible answers to the U.S. Air Force CCA family. The resulting competition would extend beyond a comparison between individual aircraft, pitting an American model built around rapid fielding, modular autonomy, and large-scale combat mass against a Swedish approach centered on the Gripen, distributed operations, electronic warfare, and survivable penetration of heavily defended European airspace.
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• Land Defense News• Naval Defense News• Defense Aerospace NewsWritten by Alain Servaes – Chief Editor, Army Recognition GroupAlain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years in defense journalism, he provides expert analysis on military equipment, NATO operations, and the global defense industry.
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Swedish Company Saab has unveiled the A3-001 unmanned fighter jet concept as a European counterpart to the U.S. Air Force’s Collaborative Combat Aircraft (CCA) effort, introducing an autonomous combat-drone concept designed to operate alongside Gripen fighters in heavily contested airspace. The aircraft is intended for suppression of enemy air defenses (SEAD), electronic warfare, and precision strikes against Russian-style air-defense networks, potentially reducing crewed fighters’ exposure during the most dangerous phases of an air campaign.
Presented at the Swedish Armed Forces Air Show at Malmen Air Base in Linköping on August 22, 2026, the A3-001 reflects the same crewed–uncrewed teaming model now shaping future U.S. air combat. Its importance lies in its ability to push sensors, jammers, and weapons deeper into defended airspace while allowing the Gripen to remain the crewed command element of a more distributed combat formation.
Related Topic: The Future of Collaborative Combat Aircraft: Built on Versatility and Modularity
Swedish Company Saab unveils the A3-001, a full-scale concept for a future autonomous combat aircraft designed to operate alongside Gripen fighters in contested airspace. (Picture source: SAAB)
The comparison with the United States is increasingly unavoidable because the U.S. Air Force CCA (Collaborative Combat Aircraft) effort has already progressed from prototype development toward production, weapons integration, and operational experimentation. General Atomics is developing the YFQ-42A, while Anduril is developing the YFQ-44A Fury, placing both companies at the center of the first American CCA increment. Their progress gives Saab a clear benchmark as it develops a European alternative built around Gripen, electronic warfare, and operations against dense surface-to-air missile networks.
The A3-001 is not part of the U.S. Air Force program, nor is Saab presenting it as a derivative of an American design. Its significance lies in the fact that Sweden is addressing the same operational problem from a different industrial and doctrinal base: how to increase combat mass, extend the reach of crewed fighters, distribute sensors and weapons across multiple aircraft, reduce risks to pilots in defended airspace, and use autonomy to sustain missions when communications are degraded.
This places Saab within a broader competition that is becoming as much industrial as operational. The United States is already building an ecosystem around autonomous combat aircraft, while Europe remains at an earlier stage in defining comparable capabilities. Saab’s opportunity is to position the A3-001 as a sovereign European solution optimized for existing Gripen users, NATO operations in Northern Europe, and missions against sophisticated air-defense networks.
The American program already sets a high standard for Saab. U.S. CCA development has progressed beyond autonomous flight testing into weapons integration, testing, and realistic operational exercises, meaning that any future A3-derived aircraft will have to prove far more than basic autonomy. It will need to demonstrate survivability, sensor fusion, electronic attack, weapons employment, reliable mission autonomy, and the ability to operate with crewed fighters under combat conditions.
Farnborough 2026 highlighted five of the most important Collaborative Combat Aircraft currently shaping the future of military aviation: the FQ-42A Dark Merlin, BAE Systems Brontanax, Airbus U760 Ravenstorm, Boeing MQ-28 Ghost Bat and Anduril FQ-44A Fury.
Saab describes the A3-001 as a low-observable, highly autonomous uncrewed combat aircraft that can complement the Gripen and future crewed combat-air capabilities. The company identifies electronic warfare, suppression of enemy air defenses, and precision strike as principal missions, indicating that the aircraft is intended for demanding combat roles rather than routine surveillance or remotely controlled operations. Saab also says it intends to fly uncrewed demonstrators with fighter-like characteristics before 2030, while the A3 represents what could follow in the mid-2030s if Sweden chooses to continue development.
The SEAD role is especially important because Russian air defenses remain among the most difficult threats NATO combat aircraft could face in a high-intensity confrontation. Russian-style integrated networks combine long-range surface-to-air missile systems with shorter-range defenses, mobile radars, passive sensors, command posts, and electronic-warfare units, creating overlapping engagement zones designed to restrict the freedom of movement of crewed fighters.
An A3-derived autonomous wingman could move ahead of a Gripen formation to search for emitters, force hostile radars to activate, conduct electronic attacks, or support weapons employment against exposed air-defense nodes. This would let Gripen pilots stay farther from the highest-density missile zones while still receiving targeting and threat information from aircraft operating closer to the enemy, shifting the mission’s highest-risk elements away from the crewed fighter.
The operational value would extend well beyond pilot protection. A formation combining Gripen fighters with multiple autonomous combat drones could generate more radar tracks, electronic signatures, and simultaneous attack vectors than a comparable number of crewed fighters. This could force Russian air-defense operators to choose among activating radars and revealing their positions, expending expensive interceptors against uncrewed aircraft, repositioning mobile systems more frequently, or remaining silent and accepting reduced situational awareness.
This is the core logic of modern SEAD. The objective is not always to destroy every surface-to-air missile battery, but rather to suppress or disrupt the defensive network long enough to create windows in which Gripen aircraft, other NATO fighters, and stand-off weapons can operate at lower risk. An autonomous combat drone that can detect emitters, support electronic attacks, and carry precision weapons could make those windows wider and more frequent.
The U.S. Air Force CCA effort follows the same broader principle by using autonomous aircraft to increase the number of sensors, weapons, and maneuvering assets available to a formation without increasing pilot numbers at the same rate. Saab may differentiate itself by placing greater emphasis on penetration support, SEAD, and electronic warfare in European threat environments, particularly those shaped by Russian long-range air defenses and electronic attack.
The Swedish concept also appears more ambitious than that of a low-cost expendable drone designed primarily to generate mass. Saab describes the A3-001 as a survivable aircraft with low observability and fighter-like characteristics, suggesting a platform intended for repeated combat employment in defended airspace rather than for one-way attack or deception missions. This approach would increase costs, but it could also justify integrating more capable sensors, electronic-warfare equipment, and precision weapons.
The Gripen is central to Saab’s competitive proposition. Rather than developing the A3-001 as a standalone autonomous combat drone, Saab can integrate it into an existing ecosystem of mission systems, data links, electronic warfare, and rapid software updates already associated with Gripen operations. An A3-derived aircraft could therefore act as an extension of the Gripen’s sensors and weapons, allowing the fighter pilot to manage a distributed formation while uncrewed aircraft operate farther forward.
That could become one of Saab’s strongest arguments against U.S. CCA suppliers. The YFQ-42A and YFQ-44A are being developed for integration into the broader U.S. combat architecture, whereas Saab could offer an autonomous combat aircraft optimized specifically for Gripen users and European operational requirements. For countries already operating the Gripen, such an approach could reduce integration risk while increasing national control over mission software, electronic-warfare data, and weapons interfaces.
GlobalEye could further reinforce this architecture by providing wide-area surveillance and threat detection while the Gripen handles tactical command and autonomous combat drones move closer to hostile defenses. This arrangement would distribute sensing, jamming, and weapons delivery across several aircraft rather than concentrating those functions in a single crewed fighter, thereby making the overall force more resilient.
The Saab A3-001 concept features a tailless, low-observable flying-wing design for operations in contested airspace alongside Gripen fighters, emphasizing reduced radar signature and autonomous combat missions. (Picture source SAAB)
The Baltic and Nordic theaters provide a particularly strong case for this model. Russian air-defense systems deployed in and around the region can influence large sections of operational airspace, while short distances compress warning times and increase the importance of rapid sensor-to-shooter coordination. A Gripen formation supported by autonomous combat aircraft could push electronic attack and sensing farther forward without exposing the entire crewed force to the same threat envelope.
Electronic warfare could become one of the A3-001’s most valuable missions. An autonomous aircraft operating closer to hostile radars could potentially deliver more effective jamming or deception than a crewed fighter forced to remain at greater range, while also collecting real-time information on changes in radar behavior, emitter locations, and electronic activity. That information could be shared with Gripen and other NATO aircraft to improve targeting and shorten response times against mobile air-defense units.
Autonomy becomes critical once these aircraft enter an environment dominated by Russian electronic warfare. Continuous communications cannot be guaranteed because data links may be jammed, interrupted, or intercepted. An effective autonomous combat drone must therefore be able to continue key mission functions without constant pilot input. It would need to manage sensors, alter routes, react to threats, and preserve mission objectives even when communication with the controlling fighter becomes intermittent.
The U.S. Air Force is already investing heavily in this problem through mission-autonomy software and open architectures intended to support different software packages across multiple CCA designs. Saab will need to demonstrate comparable software maturity if the A3-001 is to become a credible European competitor. However, the Gripen gives the company a useful foundation because rapid mission-system development and electronic-warfare adaptation are already central to the fighter’s design philosophy.
That software adaptability will be particularly important in SEAD missions because Russian air defenses do not operate according to fixed patterns. Mobile radars can shut down, relocate, and reappear elsewhere, while electronic-warfare units can disrupt navigation and communications. An effective autonomous combat aircraft must therefore support dynamic targeting by detecting changing emitters, classifying threats, and coordinating with Gripen and other sensors as the defensive network evolves.
Low observability would reinforce that role. Saab has not disclosed detailed radar-signature data or figures for payload, range, or performance, and the A3-001 remains a concept rather than an operational design. Nevertheless, its emphasis on reduced observability shows that survivability against modern radar-guided defenses is a core requirement. A smaller radar signature could reduce detection and engagement ranges, giving the aircraft more time to approach hostile systems.
The industrial competition is equally significant. The United States already has two first-generation CCA aircraft, multiple autonomy suppliers, and a procurement base large enough to accelerate development and potentially reduce unit costs. Saab cannot easily match that scale, so its competitive advantage will likely depend on integration, sovereignty, and specialization rather than production volume alone.
Europe currently has no operational equivalent to the U.S. Air Force CCA ecosystem. If European companies do not move quickly enough, NATO countries seeking autonomous combat aircraft may increasingly turn to U.S. suppliers. Saab can counter this trend by positioning the A3-001 as a sovereign European solution designed around an existing European fighter and optimized for missions directly relevant to the continent’s security environment.
As examined in [Army Recognition coverage of the U.S. Air Force Collaborative Combat Aircraft program](INTERNAL-LINK), Washington is already moving the CCA concept from experimentation toward future force structure. Saab’s A3-001 now gives Europe a potentially competing approach built around Gripen teaming, SEAD, electronic warfare, and operations against Russian air defenses rather than one that simply reproduces the American model.
The competitive timeline nevertheless favors the United States. The U.S. Air Force has already advanced autonomous combat aircraft through flight testing and operational experimentation, while Saab says it intends to fly fighter-like uncrewed demonstrators before 2030. This gives American programs a maturity advantage, but it also lets Sweden absorb lessons from U.S. experience in autonomy, logistics, weapons integration, and crewed–uncrewed command before committing to an operational design.
The difference in industrial scale may push Saab toward a more specialized solution. Rather than trying to compete with the United States in terms of autonomous combat-aircraft numbers, Sweden could emphasize high-value missions such as SEAD and electronic warfare, in which survivability, mission-system quality, and Gripen integration may matter more than fleet size alone. That would make the A3-001 particularly relevant to NATO planning against Russia because it addresses one of the most difficult problems in any European air campaign: suppressing layered air defenses without accepting excessive losses among crewed fighters.
As detailed in [Army Recognition reporting on Gripen E modernization](INTERNAL-LINK), the future combat value of the Gripen will increasingly depend on how effectively Saab expands the fighter’s reach through networked sensors, weapons, and autonomous systems. The A3-001 offers a route to increase that reach without requiring Sweden to replace its crewed fighter fleet immediately, potentially transforming the Gripen from a highly networked fighter into the command element of a larger crewed–uncrewed force.
For U.S. readers, the significance is that the U.S. Air Force CCA initiative is now generating a visible European competitive response. General Atomics and Anduril are defining the American model through the YFQ-42A and YFQ-44A, while Saab is positioning the A3-001 as a European autonomous combat drone built around the Gripen and optimized for SEAD, electronic warfare, and penetration of Russian air defenses.
If Saab can validate fighter-like performance, autonomy, low observability, and mission-system integration before 2030, Sweden could enter the mid-2030s with one of Europe’s most credible answers to the U.S. Air Force CCA family. The resulting competition would extend beyond a comparison between individual aircraft, pitting an American model built around rapid fielding, modular autonomy, and large-scale combat mass against a Swedish approach centered on the Gripen, distributed operations, electronic warfare, and survivable penetration of heavily defended European airspace.
Explore More Defense News
• Land Defense News
• Naval Defense News
• Defense Aerospace News
Written by Alain Servaes – Chief Editor, Army Recognition Group
Alain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years in defense journalism, he provides expert analysis on military equipment, NATO operations, and the global defense industry.
