Awesome. Well, thanks, everyone for joining our second quarter business update conference call. So today, we're actually in Boston at our newest office for specialized chip subsidiary Luminar Semiconductor, Inc., which is just 10 minutes down the road from our current receiver R&D and fab location we've owned since 2021. So, we shared this news a little bit last week regarding the acquisition of EM4. We do a small one, (ph) but we since integrated the business and we've helped grow our semiconductor business overall to break even status on our overall path to profitability. But that's not what we're here to talk about today. Today, we've signed a definitive deal with our bond investors for Luminar to be able to reduce and restructure our outstanding debt, exchanging around $422 million in notes for $274 million and pushing out their maturity for 2026 to 2030. We've heard feedback and know-how important this debt topic was for some investors to derisk the business, so we can realize our full upside and this is our solution. Additionally, the investor agreed to provide Luminar with $100 million of new non-dilutive debt capital. Combined, this gives us the resources and runway to be able to execute the opportunity to realize our full potential. It's a huge vote of confidence that Luminar is not only here to stay as a cornerstone of our industry, but that we can thrive throughout the decade. And we'll let Tom provide more details on the deal in his reports. So, for today, we're going to try something a little bit different. I've heard a lot of questions around the fundamentals of Luminar and that people could use a reminder as to why we're all here and going back to basics. So, I'd like to take a few moments to talk through some of the industry dynamics and the thesis of Luminar, including some specifics on our business, technology and what makes us so unique and best-positioned to be able to capitalize on this new era of assisted and autonomous driving. Going back to basic may normally be out of character for myself, but I think it's important that we level set as to where Luminar and the broader industry is currently at. So, to kick it off, I'd first like to say that it's an incredibly exciting time here at Luminar, and we are at the forefront of this new era of safety and autonomy for drivers around the world being ushered in. And over the course of the past decade, the opportunity around the autonomous vehicle industry has led nearly every major technology company and automaker blocking to this industry. And autonomous driving is one of, if not, the most significant applications of AI into the real world to be able to enact positive change. With that said, of course, realizing the benefits of autonomy has been one of the greatest technical challenges mankind has faced since the U.S. delivered on the Apollo space program in 1969, best analogy you can think of. So, realizing the full potential require radical innovations in many areas like LiDAR to AI to become a reality. So, we can separate this challenge into the different levels of autonomy. And two distinctive trends emerge. One is, enhancing drivers and the other is replacing drivers. So, while most autonomous vehicle companies have generally been focused around replacing drivers, Luminar's thesis and corresponding products and technology have always been focused around enhancing drivers through autonomous and safety features on existing production vehicles, rather than going all out for driverless robo-taxis. You probably know about the different levels of autonomy, but as a refresher, we'll briefly cover them. Level 0 through 2 is what the majority of automakers are shipping today as assisted driving features. This includes both basic active safety features like automatic emergency braking all the way to lane keep assist features. At these levels, the driver must remain attentive at all times and is ultimately responsible for driving the vehicle. And this is generally enabled by existing camera radar technologies that have become widely standardized by the industry over the course of the past decade. There's a strong desire for automakers to begin to realize some of the benefits of autonomy before the higher levels become widespread and establish the next generation of assisted driving technologies, which is where LiDAR comes into play. This is a fundamental driver behind many of the existing partnerships as well as automaker dialogues we're having. Our companies recognize that consumers are asking for the most advanced safety and technology features, while regulators, at the same time at NHTSA, have recently announced the mandate for all new vehicles sold, at least in the U.S., to begin meeting these dramatically heightened safety standards starting in 2029. In automotive years, by the way, that's basically right around the corner. And we've successfully demonstrated how we're uniquely able to meet these new requirements at speed and at night, and are not aware of any other technology that has been able to demonstrate these capabilities. Our claims are supported by third-party studies, including one from Swiss Re, the world's largest secondary insurer that we presented at Luminar. As a reminder, LiDAR is able to uniquely measure the exact distance to objects in 3D using laser pulses between the sensor and the object of the road. And in our case, we're able to do this millions of times every second. Knowing these exact distances to objects is what makes LiDAR so special, as compared to legacy camera based technologies, which effectively have to guess where objects are in 3D by extrapolating it from 2D images. Sometimes cameras are right, and sometimes they're wrong. And when it comes to a safety critical application, that's why, when you're using camera-based technologies for L2 applications or in that range, the driver has to always be paying constant attention, ready to take over at any given moment. From an active safety standpoint, it's also part of the reason why we still lose over a million lives every year to vehicle accidents at a global scale, which camera radars alone have not been able to prevent. The enhancements of LiDAR also become even more apparent at night. Since the LiDAR image looks exactly the same in all kinds of conditions, the camera based technologies experience significant performance degradation at night and in other kinds of incremental weather conditions. So, moving on from the basics of LiDAR and more fundamental assisted driving features, the next phase of evolution in the industry is to begin to introduce Level 3 autonomous driving features. While LiDAR is something that can enhance Level 0 through 2, it's widely understood by virtually all industry experts and automakers that long range LiDAR is a fundamental requirement for operating autonomously, where the driver is no longer in control and responsible for the instantaneous supervision of the vehicle, at least in constrained scenarios. This leaves little to no room for error, and hence why we agree that -- and why most industry experts agree that there's effectively a one-to-one correlation between Level 3 equipped vehicles and LiDAR shipments. We believe the widespread adoption of Level 3 is inevitable, but also much more achievable in the nearer term compared to Level 4 and 5, which are generally focused around robo-taxis. We can talk a little bit more about it if you have questions in the Q&A. While there have been sparse deployments of Level 3 systems today with lower performance LiDAR, they have all operated at both low speed and in highly constrained operating domains. Our customers in the broader industry generally agrees with us that the real boom for these kinds of Level 3 systems comes as they're able to perform full speed highway driving without requiring the humans to constantly intervene. This is how the driver can ultimately save time, and whether it's using your phone, work on your laptop, taking a nap to be able to recover that time during your drive is something that is a target of the level of features that people want to get to. And when you're at high speed, this is where the importance of our long range capabilities come into play. In a few moments, I'll talk about why this is important for us and also what makes Luminar truly different. So overall, this trend has already started with some of the higher end automakers who have upgraded higher low range LiDAR to our technology for higher speed Level 3 driving as an application. And then, of course, it's also the same hardware that you have that can enhance the ADAS capabilities for the Level 0 through 2 application. As we get to 2030 and beyond, we expect Level 3 to become mainstream by nearly all automakers ultimately begin to be standardized. It's nevertheless important to note that adoption cycles in the automotive industry take time, from seat belts to airbags, to camera and radar. It's historically been around two decades, from the first time of introduction to when they ultimately became standardized throughout the broader industry. In this case, we believe all signs point to the LiDAR adoption cycle being substantially faster and generally looking forward to being introduced even more widely on next generation automaker platforms, the ones that we've already discussed, as well as ones that we will have in the future. So, when it comes to the accelerating market and ultimate inevitability, the big question turns to why Luminar? What's our special sauce, so to say. And of course, there are many differentiators here across the board, including the fact that we have a uniquely vertically integrated strategy from the chip level up through the LiDAR, through software. But first, let's talk about the thing that makes our LiDAR so unique. The technology starts with a special wavelength of light that we use at 1,550 nanometers versus the industry standard 905 nanometers. One of the most fundamental limitations of lasers is eye safety, both in regulation and in practice, which is the limiting factor on how much power can be put out from a LiDAR's laser and correspondingly, the performance. We operate at a much longer wavelength than others in the industry, which enables us to put up to 17 times the average energy into the environment. Because we use this 1,550 nanometers wavelength that's safe for the human eye, the increased pulse energy delivered translates directly to a dramatically better performance at longer range for the 3D point cloud sort of picture, you can call it, of the environment. This is required for cars to be able to operate safely in higher speed Level 3 autonomy mode, as well as enable reliable high speed active safety features. Specifically, and because of our technology stack, we're able to see and even detect some of the hardest to see objects at distances past 250 meters in all ambient light conditions. And our performance is able to be maintained even when looking for hard to see dark objects, such as a spare tire on the road at night. Our maximum range can even be extended out to as much as 600 meters. This stands in stark contrast to our competitor's technologies, which generally can only reliably see objects required for safe driving at distances up to 100 meters. While these shorter perception distances are suitable for low speed autonomous driving applications, it's insufficient to safely maneuver at highway speeds, and a 100 meters is only a couple seconds ahead at those speeds, which is not nearly enough time to be able to come to a safe stop. We're able to reliably see them full 7.5 seconds ahead down the road, which is enough time to be able to come to a safe stop in nearly any kind of vehicle. The performance can also directly translate to lives saved, and the majority of accident fatalities actually occur at speed, making it all the more important. Getting to this stage in technology advantage was anything but easy, but nevertheless begs the question of why hasn't everyone followed in the footsteps over the years? I think it's well understood that the performance advantages of 1,550 nm versus 905 nanometers, but the simple answer is that 905 nanometers components have generally been available off the shelf from commodity suppliers, which has enabled the least path of resistance and the lowest initial R&D investment to develop a LiDAR. In contrast, Luminar uniquely developed our 1,550 nanometer technology from the chip level up, where we had to create multiple fundamental innovations to make 1,550 nanometer possible from both a technical supply chain and economic perspective. This is where some of the magic happens of having a truly integrated ecosystem with semiconductor and software capabilities that come into play, which further deepens our competitive mode. In aggregate we've invested roughly $1.8 billion over the years to develop this unique technology platform, and now hop the opportunity to ride that investment curve off of its code tips (ph). I'd like to dig into each of these factors, starting first with the semiconductor. Luminar has been developing its own semiconductor technologies to act as the core technology engine of our LiDAR for the better part of a decade. Whereas 905 nanometer lasers require normal silicon photo receivers to detect the light. 1,550, on the other hand, requires some custom specialized indium gallium arsenide materials to be able to operate. Given how specialized in gas development is, or the indium gallium arsenide and the fabrication expertise is, it was imperative for us to be able to find the relevant teams and companies that can design to our specification, fab the components. And in these cases, some of them are the only ones in the world that know-how to do it to meet the required specifications for what we need. Over time, we started vertically integrating and consolidating some of these specialized companies that we were working with, starting with Black Forest Engineering with a central processing ASIC in 2017, OptoGration with the indium gallium arsenide receiver chip in 2021, and Freedom Photonics for the laser chip in 2022. This ultimately formed the foundation for Luminar Semiconductor Inc. And, of course, with the recent addition of the chip packaging operation, we're here right now as LSI's latest edition, which continues the vertical integration trend. As a result, our product development and architecture approach drives a structural technology advantage with a chip level up, whereas our competitors are essentially built off-the-shelf LiDAR that have inherent performance limitations. And in doing this, we've also ensured the technological sustainability of our mode by vertically integrating all these products. As a further proof-point to some of our foundational technology breakthroughs, we've actually been quite successful in capitalizing on the IBM technology we've developed for our LiDAR, even for other customers and application with our semiconductors as well. Luminar Semiconductor Inc., which what it was calling LSI, now has over 100 unique customers, including top technology companies, defense contractors, aerospace businesses, among others, with our chip technologies live everywhere from satellites to GPUs right now. As a result of this success, we've now achieved an estimated external lifetime commercial program value in the nine figures from our internal forecast and breakeven status on the business. This is the first major step in our path to profitability, with the next major milestone being at the LiDAR level as we ramp up series production over the coming quarters with Volvo.