Peter Beck
Analyst · Cantor Fitzgerald
Thanks very much, Morgan. So I'm going to start today by stealing some of Adam's thunder and sharing some of the financial highlights upfront. We had a new annual revenue record in 2025 coming in at $602 million, which represents 38% growth year-on-year compared with 2024. We also had a record quarter in Q4 with revenue coming up at $180 million, which was up 36% from Q4 last year. At the end of Q4, our backlog sat at a record $1.85 billion, which is up 73% from the same time in 2024. And finally, we also achieved record gross margins in Q4 at 38% GAAP and 44% non-GAAP. As you tend to say on launch day, that's greens all across the board and a great result. It comes down to one thing, and it's simply relentless execution from the Rocket Lab team across our launch and Space Systems programs. Here are some highlights from that execution. I won't labor on these now as we'll go into more detail in the up-and-coming slides. But ultimately, we launched and signed a record number of electron missions and led the way on hypersonics testing with haste and achieved some significant qualification and development milestones on Neutron. On the Space Systems front, we were awarded the largest contract in Rocket Lab's history, successfully delivered the ESCAPADE mission in Mars for NASA, and we had record growth across all of our Space Systems component businesses. On acquisitions, we welcomed Geost in 2025, which officially marked our entrance into payloads and followed this up in Q1 2026 with the acquisition of Optical Support, Inc., which further strengthens our optical systems offering. We also expanded our machining and manufacturing footprint with the acquisition of Precision Components Limited, which actually just closed today and will ultimately support continued scaling of the components manufacturer for both Launch and space systems. More on these in the slides ahead. So on to some quick highlights for Electron and HASTE. Rocket Lab remains the small launch leader globally as the only rocket delivering reliable and high cadence launch opportunities for SmallSat. We launched 21 missions across Electron and HASTE in 2025, which was a new company record. We also launched 7 missions in Q4, our highest number of launches in a single quarter to date. Meanwhile, there were no successful orbit launches of a new U.S. or European small launch vehicle in 2025 at all. And it's very clear when small cell operators need a dedicated ride to orbit, they come to Rocket Lab, and we're proud to hold the title and look forward to expanding it again the record again even further this year. The U.S. government has made no secret of the fact that faster and more frequent hypersonic testing is an urgent need and a national priority. Rocket Lab is the only credible provider that has demonstrated the ability to deliver this capability right now, not years into the future. In 2025, we conducted 3 successful HASTE missions, and the next one is on the pad in Virginia now just days away from launch. This kind of cadence and reliability positions us well for programs like Golden Dome. With more HASTE missions on the books this year, we'll be rapidly building that moat even further. It was a record year for launching missions, but also for signing them. We added more than 30 new launches to the manifest across Electron and HASTE. They came from a nicely diversified customer base spanning the U.S., NASC and defense, commercial constellations and international organizations. We had many returning customers sign new contracts often for bulk buys and multiple launches, but also added new names too, which demonstrates that our small launch customer base continues to expand. In Q4 alone, we signed a new multi-launch deal with BlackSky for 4 new launches, which brings the total number of missions they booked with us to 17. We also signed a contract with a new confidential customer in support of national security. As always, our pipeline for Electron and HASTE remains strong, and we're excited to continue signing new and novel missions as well as a standard repeat and mission profiles in 2026. Now on to Space Systems. Rocket Lab is not new to being a prime contractor, but in Q4, we made an announcement that highlights our substantial growth in satellite market and further cements our position as a preferred disruptive prime. The Space Development Agency or SDA, awarded us an $816 million contract to build an advanced constellation of 18 spacecrafts, equipped with advanced missile warning, tracking and defense sensors to provide global and persistent detection and tracking of emerging missile threats. It's the largest single contract in Rocket Labs history. What's more as a leading merchant supplier into the other Tranche III prime contractors, there are additional subsystem opportunities that could total capture -- could add a total capture value to approximately $1 billion for supplying payloads, solar power reaction wheels and star trackers software and other solutions from our broad portfolio of capabilities. It's important to point out that the acquisition of Geost played a significant role in securing this award. Rocket Lab is the only commercial provider producing both the spacecraft and payloads in-house for SDA and for the tracking layer Tranche III, supporting the government's goals for speed, resilience and affordability in space-based missile defense. This award follows on from our previous prime contract award for SDA's transport layer Beta Tranche II program. With the 2 programs combined, we now have more than $1.3 billion in contracts signed with the SDA. I think an important takeaway from this announcement is not just that we won a significant contract, it's that Rocket Lab is repeatedly winning large awards that have historically been the exclusive legacy -- exclusive to the legacy aerospace primes. We're seeing a new world order established in the defense world with the rise of companies like Anduril and Palantir playing leading roles in disrupting slow bloated traditional players. Rocket Lab is clearly doing this in space and unseating the old guard. Okay. On to Mars. In Q4, the ESCAPADE mission launched and the twin satellites we built for NASA and UC Berkeley are now well on their way to the red planet. With ESCAPADE, we've proved that it's possible to deliver decade-class missions on a drastically shortened time lines and for significantly smaller budgets than typical interplanetary missions. We made this possible through vertical integration, maintaining strict control over schedule and budget. With both spacecraft now successfully commissioned and in a Loiter trajectory near L2, that's a Lagrange point, around 1.5 million kilometers from Earth, Rocket Lab's primary role in the mission will soon be complete when we hand it over to the team at UC Berkeley next month. Even once control has been transferred, we'll be chairing Blue and Gold along as they arrive in Mars orbit in September next year. Our role in ESCAPADE might have reached mission success, but we're not quite finished yet with Mars yet. We've made no secret of the fact that we think Rocket Lab is the strongest contender to deliver NASA's Mars telecommunication Orbit program. An NTO will be fundamental to everything else on Mars, enabling science now and human exploration in the future. We'll make it possible with a rare combination of proven spacecraft, deep space mission experience, reliable rockets and end-to-end space systems capability as a vertically integrated mission provider. Our hardware and our software has enabled some of the most ambitious and successful Mars missions in history, including the Mars Insight Lander, Perseverance Rover, Ingenuity Helicopter, Mars is in our DNA and Rocket Lab has more hardware and on orbiting Mars than just about any other company today. Okay. On to programs. We had a key milestone for LOXSAT, which is our launch plus spacecraft mission to build and deploy an on-orbit cryogenic fuel depot for NASA. This spacecraft is now complete and we will be marching steadily towards launch later this year. Okay. We also have an exciting development to share from our Space Solar business. It requires some background on kind of the state-of-the-art of space solar power, so bear with me a little bit on this one. The satellite industry is rapidly expanding and projected to grow 7x by 2035. Those satellites will all need solar power. Rocket Lab is the world leader in solar space power. So it should come as no surprise that we're the best positioned to serve this growing market. In addition, ambitious opportunities are on the horizon from space-based data centers. As AI and compute demand saw data centers on earth reach their limits, companies are beginning to seriously explore moving data centers to orbit where they can take advantage of the cool conditions and infinite solar energy. But rapid market growth of this size, both for typical constellations and futuristic projects like space-based data centers will be hampered if traditional solar cells are the only option. So it's against this backdrop that I'm proud to announce that Rocket Lab is introducing a space-optimized silicon solar arrays. While silicon is not new in space, it's always suffered from low radiation tolerance and very low life expectancy with poor performance. Our team are the experts in space solar, having developed some of the most complex cells for flagship missions to the Sun and most of the missions on Mars today. The team has produced a silicon array that is a game changer. By harnessing silicon, we're able to deliver a really low cost per watt at industrial scale, enabling gigawatt class power generation and space at kilometer size scale using mass manufacturable lightweight and modular systems. We've also taken the additional step of developing a hybrid solar array solution that incorporates both high-efficiency cells and silicon cells, an approach that leverages the benefits of both technology. When size, weight and power or performance are at a premium, traditional high-efficiency cells are enabling. When cost schedule or cost constellation scale are required, silicon cells can meet that demand. When these factors must be traded off and balanced, hybrid arrays enable a combination of the 2 to deliver an optimal performance at a compelling value. So for new products, we move into new acquisitions. On the top of acquisitions, no doubt, everybody is interested in an update on Mynaric. The German government is still working methodically through the regulatory review process. So there's not much to add at this stage while that sort of runs its course as expected. But we look forward to providing an update once that's concluded. There are a few stories floating around in the media with different theories on how the transaction is progressing. All as I'd say there is don't believe everything you read in the media and online. Otherwise, this month, we have welcomed Optical Support, Inc. to the Rocket Lab team. OSI is a Tucson-based leader in the design and manufacture of custom high-precision optical and electro-optical mechanical instruments. OSI's technology is a key enabler for national security and commercial satellites. They are a key subsystem in Rocket Labs payloads for space protection, space domain awareness, missile warning and tracking defense. The vertical integration opportunities here are clear while we look forward to scaling production and capabilities to serve our customers and our own programs as we've done with many of our other successful acquisitions. And last but not least, we've also acquired Precision Components Limited in New Zealand, again, a known and trusted supplier to us that's now part of the family. With this acquisition, we have established a new precision machining complex that enables a huge increase in machining capacity. So I think it's worth spending just a quick moment here on the strategic importance of our recent optical-focused acquisitions. Vertically integrated high-performance RF and optical payload technologies unlock high-value opportunities for national security and commercial customers. They are key to unlocking programs like Golden Dome and other proliferated mission architectures. Owing to the payload chain enables -- owning the payload chain enables discriminating performance plus greater control over schedule, cost and especially for high-volume constellations. We've already seen this strategy in the action with SDA Tranche III award, and we expect to deliver more value and opportunities to us this year and beyond. We received another strong vote of confidence in our ability to deliver critical national security and defense programs when we were recently selected by the NDA for Shield. In short, we're now onboarded to the program, which has a contract value up to $151 billion, giving us the opportunity to compete for future launch and space systems contracts that deliver these capabilities to the war fighter with increased agility. All of the above ultimately points to one thing, Rocket Lab is a disruptive leader in building the future for space and defense. This was driven home by a recent visit to our facilities in Long Beach by the Secretary of War, Pete Hegseth, during the arsenal of Freedom Tour. The visit highlighted the critical support we already delivered to the war fighter today and showcased our capability to meet ever-evolving needs in the future. And last but not least, before Adam digs into the financials, here's the latest on Neutron. We've got lots of progress to share across Neutron, but I'll start with the topic on everyone's mind, I'm sure, which is the Stage 1 tank update. In January, we shared that Neutron's Stage 1 tank had ruptured during a hydrostatic pressure test at Space Systems complex in Middle River. Now failures aren't uncommon during the qualification phase of any rocket development program, but I do want to point out that this was unexpected. And ultimately, we had anticipated that this tank would pass qualification. Now the tank did meet its anticipated flight loads, but as we prepared to open up the test bound and push the pressures and loads beyond this to understand the margins in the structure, the tank let go earlier than we expected. The post-test review process identified that a manufacturing defect introduced a reduction in the strength at a critical joint in the structure, specifically around the tank closeout, which is an autoclave produced part that interfaces with the bulk composite laminate of the tank and the [indiscernible]. The review of the hardware and test data suggested that the tank otherwise performed as expected. The first tank was handlaid by a third-party contractor while we're getting the automated fiber placement machine up and running. And it's in this handlaid process that a defect was introduced. Now the decision to work with a third-party contractor was ultimately driven by schedule as it would allow us to produce the first tank rapidly while simultaneously commissioning the AFP machine for future tank production. And it's not uncommon for us to run parallel development paths like this to accelerate schedules as it can be a cost-effective way to iterate prototypes and first articles while also standing up long-term production capability to enable fast scaling down the track. Now the next tank is already in production. This time, it's being built on the AFP machine, completely eliminating the possibility of this hand defect reoccurring. It's worth pointing out that Neutron's second stage was largely produced -- was entirely internally passed and qualification -- sorry, -- it's worth pointing out that Neutron's second stage was produced entirely and internally and passed qualification comfortably. Beyond changing the manufacturing process, we also are making some minor design changes to the first stage tank to introduce more margin and improve manufacturability. To be clear, we're happy with the overall tank design. But since we're making a new one, we thought we'd always take the opportunity to tweak things a little bit and optimize it. Once completed, the new tank will undergo an extensive test and qualification campaign to verify flight readiness, and we're going to take a time of that process. The priority will always be to bring a reliable rocket to market even if it means taking a few extra months. Ultimately, the combination of the new tank and the production design tweaks and the test and qualification campaign will adjust Neutron's time frame a little bit. As such, Neutron's first launch is now targeted for Q4 2026. Neutron is still scheduled to come to market in an incredibly aggressive time frame. And what's more, we'll be bringing a robust and thoroughly tested vehicle to the pad. We look forward to sharing more development progress as we run through the final development phases this year. Okay. So on to some milestones in the Neutron program over the past quarter. You would have seen over the next few slides why I'm dubbing this the quarter of qualification. We've taken massive strides in Q4 as well as Q1 so far, successfully qualifying critical flight hardware from large structures through to component level systems. In Q4, the Hungry Hippo fairing successfully passed qualification and then on into Q1, it made its way to wallops. It's an exciting time in Virginia as Neutron flight hardware starts arriving and we can get into the final assembly and integration and test phase. For the Hungary Hippo specifically, that looks like fluid systems and installation of canards and thermal protection systems and then, of course, end-to-end testing. While we work through that in preparation for the first flight, we have the second Hungary Hipo in production for the next Neutron launch vehicle as well. Another successful qualification on the board is Neutron's thrust structure. This is a really complex part of Neutron. It must be able to withstand 2.1 million pounds of thrust, which is more than 44 electrons simultaneously lifting off to give everybody kind of a sense there. The structure is now officially on to final integration, which is the final hurdle before we get into integrated system checkouts, cryogenic proof tests, vehicle hot fires, wet dress and then, of course, launch. It will go through avionics and fluids and subcomponent integration before shipping out to LC-3. Meanwhile, at Middle River, Neutron's interstage is undergoing its own qualification campaign before being shipped to LC-3. Neutron's second stage is hung inside this during flight and then passes through the mouth of the Hungary Hipo and carried orbit. Like the Hungary Hipo, the interstage remains attached to the first stage and reuse. So it needs to undergo a robust testing program so we can assure that it can withstand the forces of launch and landing multiple times. And then Stage 2 is in its final integration and getting ready for its debut on the test standard LC-3. This is a specially built rig on the top of the LC-3 launch mount, where we'll go and conduct a barge of integrated test before ultimately moving into hot fires on the stand. That will be L3's first taste of what of an Archimedes engine and a huge milestone for the development program. So we look forward to testing that soon. Which brings me to the last but not least, Archimedes. Right now, the engines are in boot camp. We are not been nice to them at all. It's all well and good to test engines to expected bounds. But through experience, I've learned that space flight has a way of throwing things at you that aren't expected. Rocket engines don't tend to fail when everything is boring and when you can rely on analysis and simulation to bound and then truly understand performance. Ultimately, engine reliability is gained via testing. There's just no substitute. So that's what we are doing, and we're really pushing them through the edge cases, backing right off the inlet pressure, inducing cavitation and generally doing really nasty stuff to them. Ultimately, you want to know how the engines are going to perform in a really wide range of scenarios on the ground before you put them in the air and find out in flight. Too many rocket companies have not done this, and it typically doesn't end well. This is the same kind of process we undertook when developing Rutherford, the engine on Electron. And right now, we're flying more than 800 of those engines successfully to space. So we'll be bringing the same level of reliability and rigor to Archimedes. Beyond the Stage 1 tank, we've had a really positive quarter for Neutron progress, and this gives you a snapshot of just how much progress we've seen and made on the path to first launch. Major structures and subsystems are passing qualification. And for the first time, we have hardware and final integration. These are the final steps before we go into integrated testing on the pad with hot fire stage tests and then wet dress and then, of course, launch. Beyond the vehicle itself, we have established all the supporting infrastructure to enable first launch and beyond. OC3 has obviously stood up plus production and test facilities are all humming while the regulatory work is all tracking along as we expect. The things to look out for the next few months to know that we're marching steadily towards launch, including more hardware making its way to the launch site, we will be conducting extensive testing of flight hardware and then obviously, that will lead up to Neutron's first flight. So that wraps up the operational highlights. So I'll hand over to Adam for the financial overview and outlook.