Sweden has taken a definitive step forward in shaping its next-generation combat-air capability by extending and expanding concept work with Saab through a multi-year, multi-track programme that runs into 2027. The renewed contract, reported to be worth roughly US$270–280 million (around SEK 2.6 billion), funds conceptual studies, technology development and demonstrator activity and explicitly keeps both crewed and uncrewed options on the table rather than locking the country into a single platform path.
That framing — sustained, demonstrator-focused work rather than an immediate procurement decision — is important: it signals Stockholm wants to reduce technical risk, test critical technologies in flight and preserve industrial agility while it decides whether a future force will centre on a crewed successor to the Gripen, on an ecosystem of drones, or on some hybrid of both. The prime contractor for the work is Saab, which will collaborate with the Swedish Defence Materiel Administration (FMV), the Swedish Armed Forces, the Swedish Defence Research Agency (FOI), GKN Aerospace and other industry partners. The contract continues concept work begun under an earlier March 2024 award and is intended to cover the period through 2027, with concept and technology work scheduled into 2026 and demonstrator flights expected during 2026–2027; Stockholm has publicly discussed a post-2040 or roughly 2050 horizon for a potential fielding decision, though that target remains aspirational and effectively unconfirmed as a firm procurement deadline.
Technically, the programme is explicitly multi-threaded. The studies examine a “system-of-systems” architecture that can include a survivable crewed fighter at the centre, a family of “loyal wingman” and penetrating uncrewed combat air vehicles (UCAVs), and low-cost attritable systems intended for high-risk missions. Saab’s work emphasises commonality of components across crewed and uncrewed platforms — for example, sharing avionics, sensors or modular mission bays where practical — as a way to cut development cost, speed delivery and ease logistics and sustainment once systems enter service. The demonstrator phase is notable because it prioritises actual flight testing to de-risk autonomy, low-observable technologies, weapons integration and human-machine teaming in contested environments, rather than restraining the effort to simulation and laboratory work alone. The studies also address software architectures that permit rapid capability upgrades, electronic-warfare suites, sensor fusion and autonomy rulesets for collaboration between manned platforms and unmanned partners.
The industrial and export context shapes much of the programme’s rationale. Sweden’s domestic defence market is relatively small, making export prospects practically indispensable if a successor family is to be affordable at scale. Saab’s recent export record for Gripen variants — with production and sales to countries such as Brazil and Thailand and reported interest elsewhere — demonstrates that a Swedish combat aircraft can find buyers beyond the largest NATO air arms, and that export traction could materially improve the economics of any new platform set. Shared components and system commonality would also make an export proposition more attractive by lowering lifecycle costs for buyers. That said, advanced autonomy and stealth technologies bring export-control and partner-politics complications; licensing restrictions and national political considerations will inevitably shape which markets can be pursued and how quickly export deals can be concluded.
Saab’s historical demonstrator work gives the company and Sweden a credible technical foundation for this path. The company’s early experimental programmes, including the Highly Advanced Research Configuration (SHARC) demonstrator and the low-observable FILUR demonstrator in the 2000s, yielded experience in stealthy configurations and autonomous systems. Saab also contributed to the European nEUROn UCAV demonstrator and has more recently shown wind-tunnel models and concept imagery of supersonic loyal-wingman designs. These predecessors provide institutional knowledge of low observability, autonomy and mission integration that feed directly into today’s concept studies. Saab’s recent public discussion of a family of F-series concepts — ranging from a crewed future fighter through supersonic and subsonic uncrewed platforms down to very small, low-cost subsonic drones — shows the breadth of options under active review and the firm’s interest in modular architectures that permit a range of mission sets.
Policymakers in Stockholm essentially face three broad paths forward, each with distinct trade-offs. One option is a domestic, mixed ecosystem built around a new crewed fighter combined with a range of CCAs (collaborative combat aircraft) and UCAVs. This route preserves sovereign control and maximises industrial benefit but carries high upfront R&D costs, extended schedules and significant technical risk. A second option is to retain and upgrade the existing Gripen E fleet while integrating new CCAs and UCAVs to extend capability; this approach is faster and cheaper, and it leverages an established logistics base, but it is unlikely to deliver the same step-change in survivability offered by a stealthy sixth-generation crewed design. The third option is to join an international sixth-generation programme, pooling development cost and accessing a broader industrial and export base, but at the cost of reduced national control and a smaller domestic industrial share. The key trade-offs are straightforward: stealth and high-end performance versus lower cost and platform commonality, crewed survivability versus unmanned attritability, and the speed with which demonstrators can be produced and tested versus the long-term industrial sustainability of a national programme.
The programme faces several clear risks. Technically, integrating reliable autonomy, robust human-machine teaming and survivable electronic-warfare capabilities for contested airspace remains difficult. Budgetary risk is also real: sustaining multi-decade development, demonstration and production programmes requires predictable funding and, almost certainly, export sales to reach economical production runs. Politically and legally, export controls and partner-country politics can complicate sales of advanced systems, especially those involving sensitive autonomy or stealth technologies, which may limit the addressable market or delay deals.
There are concrete events to watch that will indicate which path Sweden is likely to take. Completion of the main concept and technology phase around Q3 2026 should yield public documentation and technical conclusions that clarify design trade-offs and candidate architectures. The demonstrator flight campaign scheduled for 2026–2027 is another critical window; the scope of flight tests, whether images and technical data are released, and the demonstrators’ performance in autonomy, low-observable handling and weapons carriage will strongly influence subsequent procurement choices. Finally, a broader procurement decision window in the late 2020s — roughly between 2028 and 2030 in public reporting and commentary — will show whether Sweden opts for a domestically produced mixed ecosystem, a Gripen-plus-drones approach, or entry into a multinational programme.
Overall, the Swedish programme as currently structured is deliberately pragmatic. By funding demonstrators and an explicit system-of-systems study rather than committing early to a single crewed design, Stockholm preserves options and buys technical and industrial insurance: demonstrators can reduce uncertainty, commonality can lower lifecycle costs, and incremental integration of CCAs and UCAVs can deliver capability in stages. Whether that pragmatic posture results in a new Swedish-built fighter family, a predominantly drone-centric ecosystem, or a hybrid approach that combines retained Gripen Es and advanced uncrewed systems will depend on the demonstrator outcomes, continued funding and the strength of export demand. The next two to five years — and particularly the demonstrator flights in 2026–2027 — should make that future far clearer.
