Johann Christian Jean Bordais
Analyst · Cantor Fitzgerald
Thank you, Lucio. Good morning, everyone, and welcome to the Fourth Quarter 2025 Conference Call. This was a very special quarter for us. As many of you have seen, we concluded the first flight of our engineering prototype last December after we completed an extensive series of ground test on all of its system. Although the first flight was short and lasted about a minute, we are evolving quickly into other phases of the flight campaign. We are going to show more data further in the presentation. We have performed a total of 28 flights and accumulated more than an hour flight time. The prototype has recently completed a 2-week schedule load calibration test in preparation for continued expansion of the flight envelope that is part of the upcoming phases in the campaign and is ready to resume flight testing. In parallel, we continue highly engaged with ANAC on the final terms of the certification plans and also suppliers from whom we are already receiving some of the components of the first conforming prototype. Going into a bit more details. As you can see on the picture on Slide 3, we successfully conducted our first flight on December 19. This was obviously a major milestone for us. It confirmed that not only the proof of concept of the configuration, but also the integration of key systems, including the fifth-generation fly-by-wire and the fixed pitch lifter rotors. During the flight, we exercised the control laws, verified the integration of the eight lifters and assessed the energy management, the aircraft dynamic response and the noise footprint. The prototype behave as predicted by our models and we will, with this data point, expand the envelope and progress to our transition to wing-borne flight. The next phases will be conducted in a disciplined manner and ramping up to around 300 flights throughout 2026 and building the knowledge required for TOP certification. This brings us to the next slide, #4. As you can see, we quickly engaged into a consistent and intense flight campaign. So far, we have flown our aircraft 28 times with a total of 1 hour and 6 minutes of accumulated flight time. As mentioned previously, the high quality of the flights with important test points being validated in each of every flight allow us to continue progressing and expanding the envelope of the flights. We are now performing longer flights at higher altitudes. Also, we are now performing on-air maneuvers with side-to-side movements, some horizontal displacement and rotation on its own axis. Some of the videos available on our website will show you these maneuvers. Lastly, weather permitting, please keep in mind that this is the rainy season in Brazil, our aircraft is being put on a test twice a day. To date, there were 7 different days in which we could fly twice. At the current pace, we should be in position to make around 300 flights as planned for the year. Slide #5 details a bit better what the flight campaign will look like for the prototype this year. In total, we are planning our four distinct phases, each building up on knowledge and experience gain in the previous one. The first stage is hover and some maneuvers. This is a critical phase to validate characteristics of vertical flights, which was the first for us. In this phase, the prototype performed vertical takeoff and landing. The flights gradually evolve to a longer time and also higher altitude but remain at a fixed position with some maneuvers with the use of the lift propulsion system only. This phase is now completed, and we're moving to transition flights where we will start to fly the aircraft horizontally, initially at the speed below 30 knots and using our pusher motor and perform initial synchronization lifters because during this phase, the lifters will be powered at all time, we sometimes refer to the partial transition, and we expect to conclude it until the end of the first semester. The third phase is what we call the cruise flight in which after a takeoff of the aircraft will move beyond the transition speed. At this point, the air moving through the wane will produce all the lift required to maintain the aircraft airborne. For the landing procedure, we will gradually slow the aircraft below the transition speed the lifter will be engaged automatically to maintain vertical control and the pilot in the remote pilot station, the RPS [ truck ], will maneuver the aircraft vertically to its landing site. In a nutshell, this is the same set of maneuvers from the take off to the cruise, but in a reverse order, all of which controlled by our fifth generation fly-by-wire. As in previous phase, speed altitude and distances will be all increased gradually, and we're planning completing this phase early in the second semester. Last but not least, we will introduce the failure into the system such as unplanned motor shutdown to test how the system reacts to validate and refine the safety procedures and the protocol of the pilot. Now the Slide #6 shows the level of engagement with our suppliers. We regularly meet them and visit their sites, and there has been a noticeable uptick in activity recently. We have some of the components for the first of our series of certification compliant aircraft. The tooling for the pilot and some composite materials of other systems are already being manufactured as the doors, propellers, and a wing tooling. Importantly, we can see the mechanism that is designed to fold the propeller in its full form. This is a notable achievement because we introduced the four blade system to reduce vibration and sound emission more recently and the folding mechanism is necessary to reduce drag and improve aerodynamic profile as much as possible. We are also working with our suppliers to conclude the Critical Design Review, what we call also CDR to freeze the specification of each component and release the drawing from them to start manufacturing each part. This, as a name suggests, is a critical phase of the design process and will kick start the production process for the remaining components of our certification compliant vehicles. Slide #7 gives more details of the latest firm orders we signed early February with Japan AirX, this is our second binding contract that includes two firm aircraft and the option for other -- another 48 aircraft. This is a very important market for us with strong potential. As a reminder, we believe that Japan can absorb as many of 390 eVTOLs to transport 3 million passengers per year. There are multiple use cases from the airport shuttle, ecotourism or point-to-point commute in its many large cities. AirX already operates in 10 of them. So it is a strategic partner for Eve. Slide 8 shows our total preorder backlog that stands around 2,700 aircraft for a total value of close to $13.5 billion based on the list price 2025. This includes non-binding letters of intent from 27 different customers as well as Revo and AirX firm orders. Out of the 27 customers, we also secured contract with different customers, 14 total for our Eve TechCare Suite of the aftermarket product and services, which could bring up to $1.6 billion in revenue to Eve over the first few years of operations. As you can see, we also have 21 different customers for our air traffic management solution called Vector. And I believe this reflects the market-leading value proposition we bring to our customers. Now I would like to invite our CFO, Edu, to review the financial results and some of the 2026 coming milestones.