Summary
- VÆRIDION has raised €30m in a Series A2 round led by SHIFT Invest and Invest-NL, with the latter contributing €5m.
- Its CAROLUS manufacturing project has been selected for a €94.5m EU Innovation Fund grant, subject to an agreement expected in 2027.
- The company is developing a nine-passenger electric aircraft targeting 400km under instrument flight rules, with commercial commitments covering more than 130 aircraft.
Munich-based electric aircraft developer VÆRIDION has raised €30 million and secured selection for a separate €94.5 million European Union grant, advancing plans to build its first certification-conforming aircraft and establish manufacturing capacity near Munich.
The Series A2 equity round was led by SHIFT Invest and Dutch public investment institution Invest-NL, which contributed €5 million. Existing investors World Fund, Project A, and Vsquared Ventures also participated, alongside other backers. The financing will support construction of the first conforming prototype of VÆRIDION’s nine-passenger Microliner and further testing of its battery and propulsion systems.
Separately, the European Commission has selected the company’s CAROLUS project for a €94.5 million Innovation Fund grant to establish and expand a final assembly facility at Oberpfaffenhofen Airport. The grant remains conditional on completion of an agreement expected in 2027, meaning the full amount is not yet contracted funding available to the business.
The two financing arrangements address different requirements in the aircraft’s development. Equity will support engineering work and prototype construction, while the proposed public grant would help establish the industrial facilities needed for eventual production.
Hardware testing follows design development
VÆRIDION is developing the Microliner as a battery-electric aircraft for short regional journeys, with passenger and cargo configurations planned. The company targets a range of 400 kilometres carrying nine passengers under instrument flight rules, or up to 550 kilometres with four passengers under visual flight rules.
The design uses a glider-inspired wing incorporating modular battery packs, with several electric motors driving a common propeller. Its development is being conducted against the European Union Aviation Safety Agency’s CS-23 requirements for smaller aircraft.
VÆRIDION completed its preliminary design review in June 2026 and has undertaken a second pre-application contract with EASA addressing aspects of its novel technologies. Those steps support the certification process, although they do not amount to regulatory approval for commercial flights.
The company opened a production and testing facility at Oberpfaffenhofen in March and has subsequently powered its electric engine for the first time. The next work involves integrating batteries and propulsion equipment into a ground-testing arrangement, alongside wind-tunnel testing and construction of the conforming aircraft.
Integrated testing will be important because the performance of an electric aircraft depends on the relationship between energy storage, propulsion, cooling, weight, and flight conditions. Demonstrating that individual components work does not establish that the complete aircraft can deliver its intended range with the required safety margins.
Battery performance is a particular constraint on electric aviation. Aircraft must carry sufficient energy for their planned journeys and appropriate reserves, while the weight of the energy storage system affects payload and range. These requirements are more demanding than simply comparing electric and conventional propulsion efficiency.
Regional routes define the commercial market
VÆRIDION is targeting services that connect smaller airports over distances unsuitable for some existing transport options or uneconomic for larger conventional aircraft. Its nine-passenger configuration is intended for a different market from high-capacity regional aviation, making the choice of routes and aircraft utilisation important to the business model.
Short-range electric aircraft could offer lower direct operating emissions, reduced engine noise, and potentially different maintenance requirements from conventional aircraft. The wider environmental outcome would depend on electricity generation, battery production, aircraft lifetime, and the journeys being displaced or introduced.
The company has set a target of operating costs below €0.40 per seat-kilometre and believes this could support passenger fares comparable with first-class rail travel. Those are projections rather than results from a certified aircraft operating scheduled commercial services.
The economics will depend on the aircraft’s acquisition cost, battery performance, maintenance, charging arrangements, and how consistently operators can fill seats. Regional routes with limited passenger demand may offer opportunities, but low utilisation could also make it difficult to spread fixed costs across sufficient flights.
Charging infrastructure presents another requirement. Existing regional airports could potentially accommodate the Microliner without constructing entirely new aviation facilities, although suitable electrical connections, charging equipment, and operational procedures would still need to be established.
Operators would also need to determine how charging times affect aircraft schedules. A service with relatively short flying sectors may remain commercially constrained if ground operations reduce the number of journeys an aircraft can complete each day.
Industrialisation brings another financing requirement
Developing a certified aircraft requires substantial investment before commercial deliveries begin, while manufacturing introduces further costs associated with tooling, quality assurance, supplier arrangements, and production facilities.
The CAROLUS grant selection is intended to address part of that industrial challenge. The project was chosen from 358 applications as one of twelve large-scale projects under the Innovation Fund, according to VÆRIDION and its investors.
Selection is an important step, but the proposed €94.5 million cannot be treated as unrestricted cash already received. Its availability will depend on the final grant agreement and the conditions attached to delivery of the project.
Including the new financing and earlier public support, VÆRIDION says it has raised approximately €60 million to date, excluding the prospective Innovation Fund grant. The distinction between previously secured capital and conditional future funding is relevant when assessing its resources.
Invest-NL’s participation also connects the German aerospace programme to Dutch industrial expertise. VÆRIDION has an office in Delft and works with organisations including TU Delft, NLR, and GKN Fokker, adding research and engineering capabilities to its wider European development network.
Those relationships may help support the development process, although an industrial network does not remove the technical and financial risks involved in certification, production, and the establishment of dependable supply chains.
Orders remain subject to delivery
VÆRIDION reports commercial commitments covering more than 130 aircraft, with an indicated value exceeding €730 million. The customers include regional airlines, charter operators, and lessors, while ASL Group has been identified as the launch customer.
The commitments demonstrate commercial interest, but the company has not disclosed the complete contractual terms or conditions attached to the orders. They should not be treated as delivered aircraft or realised revenue.
Commercial operations are being targeted for 2030, leaving a development period in which the aircraft must complete further testing, progress through certification, and establish manufacturing readiness.
For prospective operators, certification will establish whether the aircraft meets the applicable requirements, while subsequent service experience will provide evidence about utilisation, maintenance, charging, and actual operating economics.
VÆRIDION now has additional equity to advance prototype construction, with a conditional route to substantial public support for manufacturing. The immediate milestones will be integrated battery and propulsion testing, construction of the conforming aircraft, and completion of the CAROLUS grant agreement expected in 2027.












