Thank you, Jagdeep. I'm proud and excited for this opportunity and very grateful to you for entrusting me with this mission. I'll begin with a look back at our achievements in 2023, give some insight into our manufacturing process roadmap, and close with a look at our key goals for the next year. 2023 marked the beginning of a transformational period for QuantumScape, starting with the shipment of our first A0 prototype cells in late 2022 and continuing in 2023 with the development and demonstration of key component-level improvements needed to go from prototype to product. Higher cathode loading, an efficient commercial packaging design, and an improved and far more scalable separator process. The A0 prototypes were intended to demonstrate the core capability of the technology ahead of achieving the reliability and other characteristics expected of a commercial product. One of the customers that received the A0 prototype cells was our long-standing partner, the Volkswagen Group, whose battery manufacturing arm PowerCo confirmed the results we reported in our Q3'23 shareholder letter. Our best-performing cell achieved over 1,000 cycles with over 95% capacity retention. With respect to cathode loading, we reported performance results from higher loading cells in our Q1 2023 shareholder letter. This increase in cathode loading means our new cathodes offer 60% more capacity per unit area. This improvement has been integrated into our baseline cell builds, representing a key step forward towards achieving our target energy density for QSE-5. Improved packaging efficiency is another enabler for high energy density, and the FlexFrame packaging of QSE-5 is more efficient compared to our A0 prototype cells. In Q4, we completed the integration of several packaging improvements, including tighter internal margins, thinner current collectors, and a slimmer frame design. Another focus in 2023 was to improve production quality and consistency. With respect to reliability, we have improved the interface between the cathode and the separator, which we have determined is one of the major drivers of reliability. We have reduced ambient and process-related particle contamination, improved the components and processes that go into cell assembly, and made advances across our entire production flow. These improvements have allowed us to integrate the higher-loading cathodes and more efficient packaging into the Alpha-2 prototype cells we plan to ship this year. Our final goal was to introduce our new fast separator heat-treatment process. This goal is important because heat treatment is one of the most cost-intensive parts of ceramic processing and is often the main bottleneck in terms of throughput. This faster process also results in an improved separator, and we are rolling it out in two stages. Raptor, which we successfully deployed in Q4, and its successor, Cobra. On that front, I'd like to take a moment to offer some more detail on Raptor and Cobra and our process roadmap. When it comes to Raptor, the heat processing step is approximately eight times faster than our current generation process, cutting the amount of energy needed per separator and increasing throughput. Raptor also removes several other process steps entirely, allowing us to eliminate material inputs that would otherwise introduce particle contamination. When it reaches its full planned run rate, Raptor will be capable of more separator starts per week than the combined capacity of every previous generation of heat treatment equipment put together. Thanks to this step-change increase in productivity, Raptor is capable of providing enough separator films to enable low-volume QSE-5 production this year. Cobra takes the innovations of the Raptor process and adds three more improvements. First and foremost, the Cobra heat treatment step is designed to be faster than Raptor by more than an order of magnitude, which dramatically improves throughput and energy efficiency. Second, the Cobra heat treatment equipment has a footprint an order of magnitude smaller than Raptor, while also increasing production capacity, which saves space on the production floor and further improves the process economics. Third, the Cobra process consolidates or eliminates additional individual process steps compared to Raptor, reducing potential sources of variability from the process, as well as easing production bottlenecks and lowering cost. We believe these advantages make Cobra process the most attractive pathway to gigawatt-hour scale production, though such volumes will require larger configurations of Cobra equipment. Bringing online a disruptive improvement like Cobra presents a technical challenge, and significant work remains to develop a fully mature Cobra production process. We have prioritized bringing Cobra into production as soon as possible. Finally, I'd like to lay out our four key goals for coming year. In 2024, our focus is to take the improvements we have demonstrated at the component level in 2023 and integrate them into one design, QSE-5, the approximately 5 amp hour cell that we are targeting as our first commercial product. Our first major goal for the year is to ship a round of samples designated as Alpha-2, which integrates the improved cathode and packaging that we have developed in 2023 into a multilayer cell design. Alpha-2 is an important milestone in de-risking many of the key elements of integration, and when combined with Raptor films and other refinements, represents the core of QSE-5. Our second goal for this year is to transition to Raptor production, going from initial deployment at the end of last year to its full planned run rate. To enable this transition, we must install and qualify upstream and downstream automation for Raptor. We expect it to provide up to three times the separator production capacity compared to our current generation process, enabling low-volume QSE-5 prototype production this year. Our third goal for this year is to begin low-volume B0 prototype production for our first commercial cell, QSC-5. We define B0 prototypes as the near-final QSE-5 product design, a 24-layer cell integrating improving package efficiency and higher loading cathode using films produced by our Raptor process. It is important to note that the final designation of a B-sample by an automotive OEM occurs only after extensive testing of these candidate cells. We believe QSE-5 fills a unique high-value segment of the EV battery market, by combining high energy density with high power. The final goal for the year is to prepare for Cobra production in 2025. We are already operating prototype versions of Cobra heat-treating equipment, and in light of the promising data from our prototype equipment and the significant advantages of Cobra as a pathway to gigawatt hour-scale production, we have prioritized bringing Cobra into production as soon as possible to support higher volumes of QSE-5 in 2025. Our goal for 2024 is to set the stage for Cobra by taking delivery of key pieces of Cobra equipment and preparing to bring them into production. These goals are challenging and ambitious and will require the focused effort on behalf of the entire team. We believe that achieving them will represent major progress along our industrialization roadmap. With that, I will hand over to Kevin, for a word on our financial outlook.