Thanks, Murielle, and thanks for everybody joining us today. Before we take you through the achievements of the quarter, I'd like to remind everybody what every launch, every development milestone, every spacecraft we build is working towards. Rocket Lab is an end-to-end space company. We provide the ride to space with our launch vehicles, and we build the spacecraft to do the work in orbit. This ultimately gives us the keys to space, unlocking the largest market of all space applications. With Phase 1 and 2, the rockets in the spacecraft now well established. We're well positioned to create our own constellations to provide in-demand services and capabilities in space. In Q3, we strengthened this position with a few key achievements, including the signing of a multi-launch deal for Neutron with a commercial constellation operator. And we've been very considerate in the way that we've approached Neutron's first commercial contracts. And I look forward to sharing more on this later in the call. On the small rocket front, we successfully launched multiple electron missions in Q3 and signed $55 million in new electron launch contracts, a testament to strong and growing demand for dedicated small launch and acknowledgement of electrons position. As for space systems, I'll be sharing updates on various programs, but one key call out is the Mars Sample Return Contract Study. Anybody who's familiar with Mars Sample Return understands NASA believes their current mission architecture is too costly, will take too long, so they've requested innovative new proposals to deliver samples sooner and bring the cost down. We are delighted to be selected by NASA to put forward a study into how Rocket Lab would achieve this, and I'm very excited to share in more details about our proposal to support the mission today. And of course, to deliver space systems at scale, you need to be able to pump out constellations of spacecraft quickly and cost-effectively. I'm proud to share that our spacecraft production line in Long Beach is churning out spacecraft at a faster rate than ever, with builds underway for a backlog of more than 40 spacecraft. All of these achievements and capabilities feed into our final strategic pillar, being able to build and launch and operate our own constellations. I'll [address it] (ph) right up front, which is that we're not ready to reveal details on what this constellation or application may be. But I think it's important to understand the strong foundation we've built up across launch and space systems to enable it in due course. Okay, excuse me. Onto some quick financial highlights for Q3. We delivered another really strong quarter with positive metrics across the business. The third quarter revenue topped out at $105 million, within $1 million of our record revenue achieved last quarter. That's a 55% revenue increase year-on-year, while our backlog has grown 80% year-on-year to set at $1.05 billion at the end of September. I'll let Adam dig into the numbers properly, but I think it's important to note upfront that once again we're delivering on the old Rocket Lab adage and mantra of we do what we say we were going to do, across both engineering and technical achievements, but as well as financial goals. Okay, on to Electron updates. We've reached 12 missions for the year and counting, setting a new annual launch record for Electron. Only two rockets globally launched more than Electron, that's the Falcon 9 and the Chinese Long March, making Electron one of the most globally significant rockets flying today. Launch cadence is one thing, but doing so in a financially sustainable way is quite another. We've sold 55 million in new Electron launch contracts in Q3, but what's really important to note about is the significant increase in average sales price. This is now 60% higher than when Electron first started flying. We've bought a service to market that works, that customers need, and we've proven we can scale. The cost just reflects how rare and sought after this capability is. Just to help visualize it, here's a snapshot of the global launch cadence this year across all vehicles. And you can see Electron is right up in the top ranking in Number 3 spot. Now onto Electron launches for the quarter. We had three missions for three separate commercial constellation operators during Q3. Each of the missions are part of multi-launch contracts with return customers. Electron provides a vital sought after service for small [satellite] (ph) constellation operators who want to be in control all of their orbits, launch schedule, and mission parameters in a way that's just not possible on large rides to your missions. We had another quick turnaround between missions to launching electrons back to back from Launch Complex 1 within just eight days of each other. Speaking of fast turnarounds, after Q3, we completed another launch in record time. We launched a mission for a confidential constellation operator just 10 weeks after signing contract. This kind of speed is pretty well unheard of in the space industry. It's typical to take a year to go from contract to orbit. Of course, that causes bottlenecks and limited launch opportunities for satellite operators. Electron has plugged this gap, getting a satellite operation on orbit faster, so they can test their technology sooner, begin generating revenue for constellations earlier, or collect urgent data from space on demand. I've discussed [at length] (ph) previously that launch is a lumpy business. It's common for customers to increase delays and new launch dates, causing “constant manifest shuffles”. This results in an ever-changing fluid launch schedule. But because we have a factory of rockets and three launch sites standing by to support. We can slot new customers in as these gaps open up quickly. Now I'm sure the software team will laugh at me for this but in reference to ultimate flexibility it's a feature and not a bug of the Electron business model. Especially as we collect up to 90% of the contract value for every mission before launch day, with revenue recognised on launch. So if a launch slips a month here or there, the overall impact to the business is pretty well negligible. Right, moving on from small launch onto Neutron updates. Okay, so we've signed a launch agreement with the Constellation operator, which encompasses two very early launches on Neutron. Thanks to our proven track record with Electron, the space industry has come to expect high-performing reliable launch vehicles from Rocket Lab. Because of this, we have worked with a lot of different customers for Neutron's first few missions, but we're in the fortunate position to be able to choose who flies first and have made a careful and considered strategic decisions around that. We see this agreement as an important opportunity that signifies the beginning of a productive collaboration that could see Neutron deploy this particular customer's entire constellation. I'm confident in these two launches will be the first of many more to come from this particular customer. Now we've really been methodical about when we open the bookings on Neutron 2. It's all too common in the space industry for aspiring launch providers to sign non-binding agreements and sell missions that are lost to fund development. We know that it's better to bring a real rocket to the market first and to command a premium price. As we draw closer to Neutron's debut next year, conversations with customers and demands for launch slots have started to mature. As everyone will expect, I'm very happy to say that the contract value, this particular contract value, [is in] (ph) family with our standard Neutron pricing for launches. One of the programs that Neutron has been ideally suited for from day one, was when we conceived the vehicle was the US's Space Force National Security Space Launch Program or NSSL. The Space Force recently opened up the RFPs for the program, Program Next Lane 1 on-ramp, which will see us compete to qualify for a share of up to $5.6 billion of national security launches. There is an unnerving bottleneck in the medium launch market currently, creating a risk for National Security. Bringing new launch capability to NSSL, is critical to increasing the DoD's diversity of opportunities, assuring access to space for National Security, and with our proven track record, market-leading design and established infrastructure, Neutron is a pretty compelling choice. We're well past the design phase, now moving into Neutron's build and test campaigns. Keeping our schedule for the first launch next year, puts us inside the 2025 year-end time frame sought by the Space Forces for the next on-ramp. We brought a new vehicle to market before with Electron, which is a reliably delivered national security payloads to orbit for several years. And with Electron, we reached 50 launches faster than any other commercially developed rocket in history. So we know how to do this and we know how to do this well. Government interest in Neutron's development is ramping up in other areas too. This quarter we're awarded an $8 million study contract with the US Air Force's research lab to showcase our digital engineering prowess with Archimedes. This contract has a tie-in with the NSSL program, as well where it includes the option to expand our digital engineering processes and further build the digital engineering framework for NSSL Phase 3 Lane 1 launch providers. This contract is a bit of a win-win when it comes to defense industry partnerships. It not only allows the US Air Force to collaborate with industry leaders like the Archimedes team to help develop and modernize the US Air Force's engineering processes and capabilities, But it also supports smooth integration of Neutron into the NSSL program to more efficiently and quickly provide for some of the nation's most critical missions. Elsewhere across the DoD, the USTRANSCOM has extended our 2022 research agreement that allows us to continue to explore point-to-point cargo delivery with Neutron. And we've recently received confirmation from the US Space Force's -- Space Systems Command that Neutron can now compete for missions under OSP-4, a near $1 billion indefinite delivery and definite quantity contract that were on ramp to a few years back. All right, moving on now to Neutron's development progress and some of the technical milestones we've hit this quarter. We're well past the design phase now and deep into the qualification testing of our large-scale flight hardware. Starting with the reusable captive fairing for Neutron, or as we like to call it, the Hungry Hippo, these fairing halves remain attached to Neutron's first stage for the full flight, simply opening to release the payload and the second stage before closing back and returning back to Earth with the rest of Stage 1 ready for another flight. These fairing halves will soon be going through their mechanical testing before assembly and integration onto the large-scale composite panels and the seven-metre-wide barrels that make up the first stage. Another big milestone was the recent successful test of the second stage. We conducted its first Wet Dress Rehearsal in a flight configuration, going through the pressures, mechanical loads, processes, and procedures that would be seen in flight operations. Part of the test campaign included onboard avionics, taking command and control of the stage and demonstrating pressurization, fill, drain, and [cold-float] (ph) operations. This has been one of the biggest integrated milestones yet, proving out not only the flight hardware, but also the supporting infrastructure to operate the vehicle. We have flight hardware in production for all other Neutron composite structures, including the barrels and domes for the vehicles for a stage propellant tank. All of the internal propellant management devices, the avionics are on track for integration for Stage 1 tank before it goes through the same set of test -- and test campaign as the second stage has just done. Now onto Archimedes. We've talked about it before, our approach before with Archimedes, and how we were strategic in taking our time to bring a flight-ready engine to the test stand. That means we could hit the ground running to qualify it rather than mess around with early prototypes needing lots of design tweaks and changes and manufacturing that would ultimately slow the program down. But seeing that strategy really pay-off in these past few months. Our engine test cadence in Mississippi has doubled over the quarter, and we've bought multiple engines to the test stand. The thing to point out here, too, is the rocket engine program is never a one-and-done scenario. Archimedes engines will go through short burst tests, full duration hot fires and tweaks, all the way up to Neutron's first flight. So far, though, we have continued to see strong performance from the Archimedes, and we're able to iterate updates rapidly, which is really what we want to be in this point in time in the test campaign. All that to say is that the cornerstone of any rocket program depends on how quickly and reliably you can scale engine production in parallel. I know I've said it before, but it bears repeating because building your first rocket engine is hard. Building it 10, 20, 50 times at that pace that can keep up with demand is even harder. With that in mind, we continue to scale production for Archimedes at the same time that we're testing it. We've got the assembly line in California humming with engines shipping out the door frequently to Mississippi, setting us up well to get into a good launch cadence with Neutron after first flight. A rocket program is much more than just a vehicle, of course, and its engines. Launch infrastructure is a critical component and one of the pieces that we've had a bit of practice to, thanks to having stood up three pads on two hemispheres with electrons. Launch sites are a little bit like an iceberg. There's so much of the infrastructure that is underground or hidden in the development phase. With that now well established, we're starting to put the finishing touches on the above ground of the structure, including a massive 165-ton steel structure launch mount that will hold down mechanisms. It's from this structure that Neutron will lift off next year. The launch mount will be installed in LC3 in the coming few weeks. And from there, the focus will start to shift to Pad commissioning before Flight 1. On the ground at launch complex 3, some really big long lead items have made their way to the Pad at Wallops Island, including two 90,000 gallon propellant tanks that were installed in Q3. Each of them is longer than one of our electron rockets, which really helps put into perspective the scale of the works that are happening at LC3. Just a few miles up the road from the launch pad, we've completed the construction of the assembly and integration and test building, where Neutron's vehicles will go through their final checks before they're taken to the launch pad. Having this building only 3 miles from the launch pad is a real strategic advantage for us as we don't have to grapple with the slow and expensive complex logistics of transporting a hulking rocket across the country just to get to the launch pad. That wraps up the headline items on the launch front, so now moving into space systems. So one of NASA's flagship missions is the Mars Sample Return Program, which aims to bring scientifically selected samples from Mars -- back from Mars to Earth, for the first time in history. But NASA has said that their current architecture is too costly at $11 billion and too slow, with the samples not expected to be into the hands of scientists until 2040. So the agency put out a call to industry for new proposals, and I'm proud to confirm we were selected to conduct the study. We're putting forward a highly compelling concept that will return Mars rocks faster and at a fraction of the cost -- of the current cost of the program. This mission is one of the biggest most ambitious projects NASA has ever undertaken. It will completely change the way that we think about our solar system, potentially answer whether life ever existed on Mars and help prepare for the first human explorers on the red planet. While it might not be obvious at first glance, it's a mission that we're actually uniquely suited to. Now our fingerprints are already all over Mars. Our technology has been incorporated into missions like the Mars Insight Lander, the Ingenuity Helicopter, and even the cruise stage that brought Perseverance to Mars, enabling the very rovers that are collecting samples to be brought to -- samples brought to Earth under the Mars Sample return. From orbiters and rovers, landers, crew stages, we have experience in delivering mission success on the red planet. Now everything we've put into place over the years, either through our own organic development or through acquisitions of some of the industry's leading technology suppliers, has been part of our methodical strategy to offer vertically integrated solutions for complex missions just like these. Mars Sample Return requires an immense depth of experience and capability, the very kind that our team and technologies have delivered on before. We have the expertise in building and launching small rockets from little planets. We have, the innovative Mars spacecraft. We have demonstrated re-entry capability. We've enabled rendezvous and proximity missions, where leaders in guidance, navigation control, and our flight software is already on Moon landers. And we know how to manage large and complicated missions, including ones for NASA. We've shown time-and-time again that we're disruptors in the industry who are able to conduct missions beyond Earth's orbit on a rapidly fast development timelines. And whenever they can't do it, we can do it at a fraction of the traditional cost. We look forward to delivering this once again from Mars Sample Return should a proposal make it through the selection process later this year. Now on to other updates across our Space Systems business. Before I dive into more specific mission updates, I want to provide a quick snapshot of just some of the various programs underway. This one is just a -- this is just the latest lineup of spacecraft we're building right now or have already completed, Like our 2 ESCAPADE spacecraft for Mars, two completely different constellation spacecraft, one for cell connectivity for MDA Globalstar, the other for National Security and the Space Development Agency, and other individual technology test missions ranging from connectivity in space to cryogenic fuel storage on orbit. Beyond these missions and constellations, we continue to do strongly in our merchant space systems business with mega constellation contracts too. Some of you will remember me talking about scaling up our satellite facilities in California, as we bring on new and bigger spacecraft contracts. Well, part of the benefit for us taking over the previous Virgin Orbit building for pennies on the dollar for our new engine production site, was it allowed us to use that extra space in our headquarters to be converted to our satellite production facility. We're really starting to see that strategy pay dividends with production lines of our various spacecraft platforms now up and running. Without -- or without a single shovel in the ground, we've avoided all the headaches of having to build new buildings and factories from scratch and save precious time and resource in a scaling strategy. And the beauty of having all those space systems products co-located in one building in one building, there are simple ease of integration for our teams. A technician can literally walk across the floor, hand over an avionics box to a spacecraft integration team as opposed to waiting for months for a supplier to produce it, ship it and then deliver it. It's really the true beauty of [vertical] (ph) integration for our business. Now on to some more specific program updates under the Space Systems umbrella. And if I can stick with Mars for just -- the Mars thing for just a little bit longer, in Q3, we completed and delivered the two spacecraft for the ESCAPADE Science Mission to Mars for NASA. It was a really monumental feat in itself given the 3.5 year time span handed to us to deliver this mission. Unfortunately, however, outside our control, the rocket, the satellites we're launching on wasn't quite ready in time for that Mars transfer window. So the mission has been somewhat delayed. But the team is standing by and ready to support once the new launch date is set. On to our $500 million prime contract with the Space Development Agency for their tranche to transport layer constellation. The team is hitting some great technical targets within the program. The preliminary design of the spacecraft complete, the work being pulled the work can begin pulling the hardware together in the clean rooms at headquarters. This progress puts us in a strong position for the upcoming, solicitation of 200 satellites under the Tranche 3 of the SDA's program, a procurement process expected to begin in 2025. And finally, to wrap up, space systems and next two satellites for Varda Space Industries have been completed and are now ready for launch. Pioneer class space satellites host Varda's capsule and provide power, communications, propulsion, and altitude control for the mission. It's our first spacecraft for Varda to help bring the capsule back home from space, landing it in the Utah desert last year with our next spacecraft set to do the same thing again but this time over Australia where both missions are set to re-enter the Earth's atmosphere and land in southern Australia soon after launch next year. In the meantime, the team is already working on the fourth pioneer spacecraft for the same Varda mission. And before I hand it over to Adam, I just wanted to wrap up with a couple of personnel changes at the board and executive level for this past quarter. So Mike Griffin has finished up on the Rocket Lab board after a four-year, ten-year serving the company. We're incredibly grateful for his experience and leadership helping guide Rocket Lab's growth from a private start-up to a global industry leader in launch and space systems and really want to thank him and wish him all the best, as he retires from Rocket Lab's board. But as one chapter ends, another two begin at Rocket Lab across board and executive level. This quarter we welcomed Frank Klein to the team as our new Chief Operations Officer. Frank joins us with 30 years of international manufacturing experience and leadership in the Automotive Industry at Daimler, Mercedes-Benz, and most recently a prominent EV company. As a COO, Frank is leading our efforts to scale global manufacturing of our spacecraft, launch vehicles and spacecraft components. And it's great to have a seasoned and experienced leader like Frank bring his wealth of knowledge in lean manufacturing and scaling to Rocket Lab. And Ken Possenriede also joined us on the Board of Directors this past quarter. He joins Rocket Lab after a 35-year career at Lockheed Martin in financial leadership positions, including serving as the Space Prime's Chief Financial Officer. Ken's deep aerospace and defence industry experience combined with his financial leadership adds to even more horsepower on an already impressive board lineup and it's fantastic to have him on board to help us shape the future. So with that I'll hand it over to Adam now to provide further commentary and to discuss our financial highlights and outlook. Over to you Adam.