Thanks, Lucio. Good morning to all and welcome to our first quarter 2025 conference call. We continue to move at a steady pace in the development of our eVTOL and we have reached important milestones in the quarter. I would like to highlight today a few of those most important recent achievements. Starting with slide 2. We continue to perform several ground tests in our full scale prototype and prepare it for its debut flight. As a reminder, this is a full scale engineering prototype with no cabin or cockpit. It is made of a composite material that will be piloted remotely in our remote pilot station, what we call the RPS. This prototype will be used to validate and improve the accuracy of previous subscale and computer models. It is also an important contribution for the setup of several rigs we are using for different individual components. Early this year, we tested the pusher motor after having installed it in the after session of the full scale prototype. We published a video of the test, and that is online for everyone to see and enjoy. As a reminder, we had already tested the motor in the lab environment and in the dynamometer to make sure it delivered the expected performance and the test after installation were important to make sure that the real life performance was consistent with lab results and also that the inverters were properly installed. We are now following the same protocol with the lifter motors, testing them in the dynamometers before installing them in their respective nacelles in the prototype. With that, we are confident that we will begin flying our prototypes till this year. We will initially perform harder flights and gradually increase power and the height. Then we'll move to partial transition. This is when we engage the pusher without fully disengaging the lifters to continue controlling the aircraft vertically. And only then, we will move to a full transition flight. At the same time, we continue to make important advancements with the rigs in what we call the Island Bird. This is this constructed eVTOL in which we integrate all the different components of an eVTOL into a physical system to make sure that all systems work together properly. We will get into this in a moment. In parallel, we are highly engaged with our suppliers who are already producing parts for the first of the series of five conforming prototypes we will have for the certification campaign. And lastly, we have already prepared the assembly line in our site of Embraer in Sao Jose dos Campos, or the Risilda [ph] plant for our conforming vehicle. Now slide 3 lists some of the successful tests that we have performed in the aircraft this quarter. This is to make sure that it is airworthy. Not only we need to make sure that a dedicated radio link between the eVTOL and the RPS has no latency and not interrupted to prevent the loss of control, but also we need to test how well our cabling system insulates the aircraft from external electromagnetic interference. We also measure how well the eVTOL structure holds in the vibration test to simulate some turbulence, but more importantly, the structure integrity of our haul in adverse condition. And lastly, we also make sure that the all navigated related equipment such as the GPS and also altimeter are properly calibrated. Now, the next few slides offer a good summary of what we're testing, what we have tested and also accomplished so far this quarter. Slide 4 shows the lifter test in the dynamometer. As you can imagine, we need to perform several tests with each of the eight motors to make sure they deliver at least in the lab setting their intended thrust to support the aircraft in the takeoff and landing phase of the flight, remembering that this is the same protocol we use with a push air motor, which means that we're getting close to flying. Slide 4 shows some of the parts of the Iron bird. Here on the left, you see a picture of the Iron bird simulator. This is the interface through which the pilot will control the entire system. As you can see, the simulator has approximately a 270 degrees view, and it is connected with all the different rigs of the flight critical components. For instance, the inceptor is connected to actuators and motors, and they react physically to all pilots command. This, in turn, are connected to the flight computer with our fly by wire system and avionics. The motors are connected to the battery with its own thermal management system. A curious fact is that all wires and cable replicates the composition, the width and the length of the actual harness that we will have on the eVTOL. This assures a realistic simulation as much as possible. So not only the Iron bird helps us to better integrate and understand all the system and how they all work together. It also help us troubleshoot the potential problems on the ground. But it also, on top of this, is important for the aftermarket benefit. The Iron Bird helps us to understand the material and the component fatigue, and these are important input for the efficient maintenance program and also for the reliability of the aircraft. Another important fact is that the Iron Bird helps us expedite and reduce costs related to certification campaign. Keep in mind that some of these tests can be performed on the ground, such as electrical system, circuit breakers and the Iron Bird becomes a very valuable tool. The next slides show the advancements that we have made on the digital and computer system to reduce development time and cost. Slide 6, it shows a different flight simulator that is used to validate the control law for the fly-by-wire system and was extensively used to develop the flight control. It is also an important tool to develop the ergonomics for the pilots and window positioning to maximize the visibility. Slide 7 shows a digital rendering of the structure of the cockpit with all its systems, structural support and the wiring, remembering that this is an aircraft with a pilot plus four passengers and a luggage compartment, and it is not only designed to be efficient to operate, but to maintain as well. With that in mind, components are placed at a strategic place and easy access to facilitate any maintenance service. Now, the next couple of slides show the level of engagement with our suppliers. We regularly meet them and visit their sites. But in the last couple of months, there was a very noticeable uptick in the activity. As you can see in slide 8 and also the slide 9, we already have some of the components ready to go for the first of our series of certification compliant aircraft. As you can see, the nose of the fuselage, we have the lightning system, actuators, seats and windshield have already been produced. You can also see some of their tooling to manufacture these components such as the negative for the carbon fiber structural parts and the autoclave that is used to cure this component and increase its resistance and durability. Again, this increases our confidence level that we will be able to meet our ambitious targets in starting the assembly of the first of these conforming prototypes in the second half of 2025 and initiate a slight portion of the certification campaign early next year. And lastly, on slide 10, we can see the site where we will assemble this conforming prototype. Now to avoid any confusion, this is not our site in Sabate, where we will be manufacturing the commercial aircraft. This site is inside of the Embraer main facility in Sao Jose dos Campos and will be used exclusively to assemble the conforming prototype for the certification campaign. We plan on deploying five eVTOLs for the certification campaign with an option for maybe six aircraft, if needed. Needless to say that this site is strategically important for us because of proximity to Embraer engineering, which we think will be critical for the learning curve in the assembly process of these aircraft. The site is ready to be used, and we will now start installing the equipment and the tooling to manufacture our eVTOLs. And as a reminder, these conforming prototypes will be close to the commercial new version of eVTOL as much as possible, and they will have all the systems, subsystem and the redundancy that are necessary for certification for the commercial operation. In the end, advancement in these pre-production aircraft means a leap when we're ready to go for the entry service. And my last slide, which is to slide 11, it's our total preorder backlog, which stands unchanged as approximately 2,800 aircraft for a total value close to $14 billion based on the list price. These are non-binding letters of intent from 28 different customers spread over nine countries and different businesses from airliners to the regional airliners, helicopter operators, ride sharing platform and leasing companies. And because maintenance and support guarantees a proper aircraft operation, we are highly focused on providing the best in class services and support to eVTOL's operators. Therefore, we have also secured contracts with 14 different customers for our EVE TechCare suite of aftermarket product, which could bring up to $1.6 billion in revenue to Eve over the first few years of operation. Importantly, Eve Take Care's customers have placed LOI to services for around 1,100 aircraft, which is about 40% of our preorder book. As you can see, we also have 21 different customers for our air traffic management system, Vector, and I believe this reflects the market leading value proposition that we bring to customers. Beyond that, together with our customers and authorities, we're also developing a strong network of partners in different areas such as infrastructure and energy to address one of the many challenges ahead of the urban air mobility, which is to create a whole new ecosystem besides simply developing an aircraft. Now, I would like to invite our CFO, Edu, to go over our financials along with a checklist for our 2025 milestones.