(DEFENCE SECURITY ASIA) — Saab’s first two-seat Gripen F flew from Linköping, Sweden, on 28 August 2026, advancing a Brazilian-led fighter programme combining conversion training, electronic warfare, precision strike and future unmanned-aircraft control.

The Brazilian-marked aircraft departed at 09:40 local time with Saab chief test pilot Jakob Högberg and Brazilian Air Force test pilot Lieutenant Colonel Abdon de Rezende Vasconcelos, remaining airborne for 40 minutes.

That sortie verified core systems and initial performance, beginning a strategically significant test campaign because the aircraft introduces an operationally independent second cockpit into the Gripen E combat architecture.

Following its 2 June 2026 rollout, Gripen F will undergo acceptance flights, envelope expansion across speed, altitude, G-load and angle-of-attack limits, plus evaluation of rear-cockpit tactical functions before Brazilian delivery.

No delivery date has been announced, but the flight moves Brazil closer to fielding a two-crew multirole fighter optimised for complex missions across continental territory, maritime approaches and contested airspace.

Brazil created the operational requirement that made Gripen F possible, ordering eight two-seaters alongside 28 single-seat Gripen Es under the 2014 F-X2 contract while Sweden selected 60 Gripen Es without any F variants.

Gripen F is not a downgraded trainer, but a combat-capable platform retaining Gripen E sensors, software, engine, ten weapons stations and similar performance while dividing workload between two operators.

Its arrival reflects an airpower calculation: dense sensor networks, electronic attack, long-range weapons and collaborative combat aircraft can overwhelm a lone pilot even when automation and sensor fusion reduce cockpit workload.

Gripen F converts its second seat into a battle-management station handling sensors, datalinks, targeting, electronic warfare and unmanned assets while the front-seater concentrates upon aircraft control and tactical survival.

This architecture could compress kill chains during multi-axis operations because one crew member can prosecute the inner fight while another builds the outer battlespace picture, coordinates formations and directs effects against geographically separated threats.

The flight validates a Sweden–Brazil industrial partnership involving more than 350 Brazilian engineers, technicians and pilots, transforming technology transfer from an offset promise into participation across aircraft design, avionics and assembly.

Yet unresolved questions surround rear-cockpit doctrine, reduced internal fuel, payload trade-offs, delivery schedules and an F fleet numbering only 11 firm aircraft across Brazil, Colombia and Thailand.

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Brazil’s Requirement Created a Combat Aircraft, Not a Conventional Trainer

Brazil’s transition from A-29 Super Tucano to F-39 generated a training challenge that simulators could not fully reproduce, particularly during live weapons employment, emergencies and high-workload tactical manoeuvring.

Unlike Sweden, which can use existing two-seat Gripen Ds and judged Gripen E handling sufficiently familiar for simulator-supported conversion, Brazil lacked an equivalent modern Gripen bridge and wanted instruction inside the operational combat platform.

That decision potentially eliminates dependence upon a dedicated lead-in fighter trainer before 2030, although modernised Super Tucanos must still narrow the substantial performance, sensor-management and tactical gap confronting pilots entering the F-39 system.

An instructor can intervene while exposing crews to the same displays, mission software, electronic-warfare environment and weapons workflow encountered during combat, reducing discontinuity between qualification and operational deployment.

The independent rear cockpit enables Gripen F to transition rapidly from training sorties into combat missions without accepting the capability penalty associated with specialised advanced jet trainers.

This dual utility strengthens force availability because scarce airframes can support conversion, continuation training and frontline tasking, although every instructional sortie still consumes flying hours, maintenance capacity and engine life from the operational fighter inventory.

Brazil’s requirement shaped the redesigned forward fuselage, second ejection seat, environmental controls, electrical distribution and displays, making the variant inseparable from the Brazilian Air Force’s geography, training philosophy and manpower model.

Its value depends upon whether Brazil develops specialised rear-seat cadres or interchangeable pilots, because electronic attack, mission command and unmanned-aircraft supervision require deeper expertise than routine conversion instruction.

The aircraft could support long-range strike, maritime surveillance and Amazon operations, where mission duration, sparse infrastructure and enormous distances magnify cognitive workload while complicating communications, diversion planning and recovery.

Gripen F therefore offers Brazil a force-generation mechanism as much as another fighter variant, connecting pilot conversion directly with combat readiness while signalling that human teamwork remains relevant inside increasingly automated, software-defined air warfare.

Independent Rear Cockpit Reshapes Electronic Warfare and Drone Control

Gripen F’s central military-technical advantage is workload separation, allowing the front-seater to manage flightpath, threat reactions and close tactical manoeuvring while the rear operator controls sensors, communications, weapons coordination and the wider electromagnetic picture.

Both positions receive the AEL Sistemas Wide Area Display, creating separate interfaces through which crews manage shared information without forcing one operator to navigate every sensor, weapon and network simultaneously.

That arrangement is particularly relevant for electronic attack because a dedicated operator can interpret emissions, manage countermeasures and coordinate jamming while the pilot preserves formation geometry, terrain clearance and survivability against integrated air defences.

The rear seat could assign targets across several Gripens, accelerating engagement decisions and reducing radio congestion during dispersed operations where communications discipline and shared situational awareness determine combat effectiveness.

Saab presents the cockpit as a control station for collaborative combat aircraft, enabling a human battle manager to direct unmanned sensors, loyal wingmen or drone formations from within contested airspace.

In a multi-axis attack, unmanned systems could probe defended airspace, extend sensor coverage or saturate interception channels while the Gripen F crew reallocates tasks as threats emerge, preserving human authority over tactically consequential decisions.

However, the provided programme information confirms a marketed role rather than an operationally fielded drone-control capability, leaving command links, autonomy levels, compatible unmanned platforms and resistance to jamming insufficiently defined for firm effectiveness judgments.

Sweden may perform comparable functions through single-seat Gripen Es supported by artificial intelligence tools or ground-based controllers, demonstrating that a second crew member represents one doctrinal solution rather than an uncontested technological necessity.

Placing the operator airborne can improve line-of-sight connectivity and tactical context while reducing dependence upon distant control stations, although it concentrates two trained personnel and command functions inside one vulnerable platform.

The Gripen F consequently revives the weapons-system-officer logic associated with larger F-15E, F/A-18F and Su-30 families, but packages that division of labour inside a lighter single-engine fighter built around open avionics and rapid software adaptation.

Gripen E Performance Survives, but the Second Seat Imposes Penalties

Gripen F retains the canard-delta configuration, digital fly-by-wire controls and General Electric F414G engine producing 98 kilonewtons with afterburner, preserving a maximum advertised speed of Mach 2 and maximum take-off weight of 16,500 kilograms.

Its combat system remains aligned with Gripen E through the Raven ES-05 active electronically scanned array radar, Skyward-G infrared search-and-track sensor, integrated electronic warfare, open avionics architecture and compatible mission software.

Ten hardpoints preserve access to the same broader weapons and pod family, including Meteor, IRIS-T, Taurus, RBS-15, guided bombs and reconnaissance or electronic-warfare pods, preventing the two-seat configuration from becoming an isolated logistics subclass.

Common weapons, sensors and turnaround procedures simplify maintenance, training and mission planning across mixed E/F formations, while air-to-air refuelling helps compensate for the range effects associated with additional structure and potentially reduced internal fuel capacity.

The redesigned forward fuselage stretches length from 15.2 to 15.9 metres, accommodating the second cockpit, controls, display, ejection seat and structural provisions while retaining the 8.6-metre wingspan.

This modification required more than inserting a fuselage plug because Saab, Embraer and Akaer reworked forward structures and inlets, conducted elasticity and load studies, and revised electrical, oxygen, anti-G and environmental-control arrangements.

Two crew stations increase empty mass while maximum take-off weight remains unchanged, meaning missions must absorb the penalty through reduced fuel, payload or performance margins depending upon operational configuration.

Available Brazilian reporting indicates some internal fuel volume was also sacrificed, suggesting slightly shorter unrefuelled radius than Gripen E, although no consistently published separate Gripen F fuel figure permits precise mission-level comparison.

The aircraft additionally deletes Gripen E’s internal 27-millimetre Mauser BK27 cannon because the second cockpit and avionics occupy the required volume, exchanging an organic close-range weapon for greater training and mission-management capacity.

These compromises make Gripen F neither aerodynamically identical nor operationally cost-free, but its E-class systems, external tanks and refuelling probe preserve credible combat utility if commanders match configurations carefully to distance, payload and threat.

Technology Transfer Gives Brazil Strategic Industrial Leverage

Gripen F embodies Brazil’s insistence that procurement build aerospace capacity, with Brazilian specialists participating in development rather than receiving only finished aircraft, maintenance documentation and limited assembly work.

Embraer contributed joint engineering, forward-fuselage and inlet work plus integration activity, Akaer supported structural packages and load analysis, and AEL Sistemas developed the panoramic Wide Area Display underpinning both independent crew stations.

This distribution embeds Brazilian companies within the Gripen E/F production ecosystem, improving domestic knowledge of structures, avionics and integration while creating a foundation for through-life support, upgrades and possible participation in future exports.

More than 350 Brazilian engineers, technicians and pilots participated, creating strategically significant expertise because combat-aircraft sovereignty depends upon software, systems integration and sustainment knowledge rather than assembly infrastructure alone.

Embraer’s Gavião Peixoto facility rolled out the first Gripen E assembled outside Sweden on 25 March 2026, demonstrating that the bilateral production model had progressed from engineering transfer into physical aircraft output.

Fourteen aircraft under Brazil’s contract are planned around that model, although the first Gripen F was built in Linköping and later F production concentrated in Sweden for cost and logistics reasons.

That allocation exposes the limits of localisation because industrial participation does not automatically create independent manufacturing authority over every variant, subsystem or supply chain, especially where small production numbers make duplicate facilities economically inefficient.

Brazilian and Swedish defence ministers discussed approximately 20 additional E/F aircraft in June 2026, potentially expanding the planned force from 36 toward 56, but no follow-on contract or final E-to-F mix has been confirmed.

If approved, additional production could sustain Brazilian engineering skills, improve fleet mass as F-5 and AMX aircraft retire, and distribute fixed infrastructure costs across more airframes while strengthening Saab’s Latin American industrial position.

The programme extends beyond trade: Sweden gains a transatlantic production partner, while Brazil acquires negotiating leverage, technical depth and regional credibility without complete insulation from foreign engines, sensors and components.

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Eleven Gripen Fs Anchor a Small but Expanding International Fleet

Firm Gripen F orders total 11 aircraft: eight for Brazil, two for Colombia and one within Thailand’s initial batch, confirming international demand while underscoring the variant’s narrow production base.

Brazil remains the launch customer and operational centre of gravity, with 11 of its 36 contracted Gripens delivered by June 2026, all single-seat Es, making prototype serial 4000 the first F entering flight testing.

Colombia’s November 2025 agreement covers 15 Gripen Es and two Fs for delivery between 2026 and 2032, replacing IAI Kfirs while extending the E/F ecosystem across a second Latin American air force.

Thailand contracted three Es and one F in August 2025 as the opening phase of a planned 12-aircraft fleet, with production beginning in Linköping during May 2026 and initial deliveries expected around 2029.

For Colombia and Thailand, small F allocations provide conversion and operational flexibility without separate trainer fleets, but tiny subfleets could increase scheduling pressure during deep maintenance, modification or testing.

Sweden still has no Gripen F on order because it relies upon Gripen Ds for conversion, while Ukraine’s June 2026 purchase covers 16 single-seat Gripen Es scheduled for delivery during 2029–2030.

Sweden also plans to donate up to 16 Gripen C/D aircraft with IRIS-T, AMRAAM and Meteor missiles to Ukraine from early 2027, potentially generating domestic replacement demand whose future E/F composition remains unconfirmed.

Orders from Brazil, Sweden, Colombia, Thailand and Ukraine underpin Saab’s ambition to raise Gripen E/F output toward 30 aircraft annually, pressuring suppliers, skilled labour and dual-site production coordination.

Peru has discussed Gripen E/F procurement, while Saab has promoted Canadian opportunities, but neither constitutes an order; similarly, Brazil’s possible 20-aircraft expansion and Sweden’s replacement requirement remain prospective rather than contracted demand.

Gripen F’s first flight marks an operational and industrial milestone, but its promise requires flight testing to validate two-seat functions and customers to translate training, electronic warfare and drone-control concepts into doctrine.