Thanks, Sam. 2025 was a step change year for Oklo. We transitioned from product development into active project deployment across all of our business units. During the year, we broke ground on our first Aurora powerhouse at Idaho National Laboratory under the DOE Reactor Pilot Program, advanced key commercial partnerships across the value chain, including our early 2026 prepayment agreement with Meta to support plans for 1.2 gigawatt power campus and began initial construction activities on A3F at INL. We also completed the acquisition of Atomic Alchemy and made substantial construction progress at Groves in Texas, our first radioisotope test reactor. In fuel, we completed fast-spectrum plutonium criticality experiments supporting using plutonium as a bridge fuel. We announced the first phase of our advanced fuel center in Tennessee, and we progressed licensing activities across multiple assets. Taken together, 2025 was the year Oklo turned our platform strategy into deployed projects while also strengthening the balance sheet to fund that execution and our long-term growth. Before I go deeper into execution, it is also important to understand how much the external environment shifted over the last 2 years. In 2024 and 2025, U.S. nuclear policy moved toward a more execution-oriented posture across licensing, asset deployment, fuel supply and capital formation. You can see the 4 main pillars here. First, executive actions and regulatory direction focused on accelerating licensing and enabling first-of-a-kind projects. Second, federal support mechanisms, including tax credits, loan guarantees and direct financing tools are improving the pathway to fund projects. Third, fuel sovereignty measures are pushing domestic capability across the conversion, enrichment, HALEU and strategic fuel materials. And fourth, implementation of the ADVANCE Act is aimed at reducing friction and licensing and enabling more efficient deployment pathways. The policy backdrop has shifted from a light tailwind to a very strong tailwind for the nuclear sector, and Oklo is positioned to move in that environment. Going forward, we will talk about Oklo through 3 integrated business units: power, fuel and isotopes that together form a unique vertically integrated nuclear platform. Power is the clean baseload power and heat from our sodium fast reactors that can utilize a broad spectrum of fuels. Fuel provides Oklo with an integrated pathway to produce fuel required for our powerhouses as well as for our peers and competitors. This derisks deployment, strengthens long-term supply and unlocks nuclear energy abundance at scale through fuel recycling. And isotopes expand the platform into high-value products and services with strategic domestic importance that are natural co-products from our other business units. The key point is that integration across the value chain is designed to unlock multiple complementary value streams over time. And first is power. We are building the power business unit because demand for firm, reliable power is growing quickly across the country. From data centers to industrial customers to government applications, our customers need clean, dependable baseload power, not intermittent supply. Our Aurora powerhouses are expected to provide that kind of reliable baseload power, and our commercial model is built around long-term offtake agreements. Power is also foundational to the rest of our business platform. Power deployments create the demand that can scale our fuel production and fabrication capabilities over time and first deployments establish reference assets that improve repeatability for future campuses. Our experience building our power delivery capability has eliminated key opportunities in other parts of the ecosystem that we are leaning into building and scaling. So power is both a near-term customer solution and the foundation for broader platform scalability. Fuel is the second business unit, and it is one of the most important strategic parts of what we are building. Fuel availability remains one of the most significant rate limiters for new nuclear deployment. From inception, we have been building fuel capabilities to support our own deployment and broader advanced nuclear deployment. That starts with fabrication for us. Fuel fabrication converts raw fuel material into reactor-ready fuel forms. It is how we support Oklo reactors while also creating the potential to provide services to third-party reactors over time, either through directly fabricating fuel for them or hosting their fabrication lines in our factories. Oklo is also exploring opportunities to develop modern deconversion processes to streamline efficiencies, including what we recently announced with Centrus. This step has traditionally occurred at the fuel fabrication facilities themselves. But as we look at the future of nuclear fuel manufacturing, it makes a lot more sense to locate this with the enrichment facility. The second big part of our fuel strategy is recycling. Recycling can recover uranium for reuse, can recover and produce transuranic bearing material that can be used as fuel and advanced reactors, it can enable high-value isotope production and it can provide used fuel management solutions through recycling pathways. So fuel is both a deployment enabler in the near term and a scalable fuel cycle business over the long term. And the third business unit is isotopes. We are building this business because there are attractive high-value end markets across health care, industrial, space and defense applications because strategic domestic supply for many isotopes remains constrained. From life-saving therapies to the long-duration power supplies that have powered human space exploration to the future of remote monitoring and sensing for security purposes, isotopes are key material for humankind's future. We see those isotope opportunities as complementary to our power and fuel business units that can produce isotope co-products that the isotope business unit can then package and sell. At the same time, we are pursuing purpose-built production using reactors and facilities optimized for isotope production, and we see a services revenue opportunity through irradiation for advanced nuclear technology research and development, defense research and development, semiconductor doping and hardening and other applications. Taken together, isotopes expands the platform into high-value domestic supply for critical uses while strengthening the economics of the broader business. This slide shows how the 3 business units connect. In the conventional nuclear value chain, mining, enrichment, power generation and long-term waste storage are fragmented across different parties. Our strategy is to build a more integrated platform that links power production, fuel fabrication, fuel recycling and isotope production. When you can fabricate fuel into reactor-ready forms and recycle materials over time, you move from a one-way fuel cycle into a repeatable loop. That improves long-term fuel optionality, supports supply resilience and can unlock additional products across the value chain. It also creates new value streams. Recovered materials can support radioisotope production, which connects directly into our isotope business. So the objective is not just to deploy powerhouses. It is to build an integrated platform where power is an anchor product, fuel is an enabling system and isotopes extend the platform into high-value products and services. And the U.S. is uniquely positioned for a strategy like ours. The U.S. has generated roughly 20% of its electricity from nuclear power over the last 30-plus years, while producing a very small physical volume of used nuclear fuel. More than 90,000 metric tons of U.S. used nuclear fuel fits on a football field, about 10 meters high. That material is often described only as waste, but in reality, it contains enormous energy potential. The energy potential in U.S. used nuclear fuel is comparable in scale to the sum total of major global oil reserves. This is what makes recycling and reuse so strategically important. Used nuclear fuel is not just a liability to manage. It is also a major potential domestic energy resource if the infrastructure exists to put it back to work. That sets up the next slide, which is about one of the mechanisms now emerging to help build that broader life cycle infrastructure. The U.S. already has a major strategic energy reserve in used nuclear fuel, but realizing more of that value over time depends on building the infrastructure, capabilities and coordination needed to put it to work. That is why the DOE's Nuclear Lifecycle Innovation Campuses program is so important. DOE has framed this as a first step toward potential federal state partnerships to modernize the full nuclear fuel cycle using regional campus models that can co-locate key parts of the life cycle. As this model advances, it could reduce development friction, improve execution time lines and support more efficient investment across fuel, recycling, power and isotope-related infrastructure. As importantly, employing used nuclear fuel as a resource instead of treating it as a liability could change the power outlook for the U.S. over time, supporting advanced reactor fuel supply for generations, strengthening domestic radioisotope production and improving long-term used fuel management outcomes. From our standpoint, this matters because it reflects a more integrated model for building nuclear infrastructure in the United States, which is closely aligned with the strategy we are executing across our business units. We continue to be very supportive of state responses to the RFI and have started working with multiple states as they evaluate potential campus proposals. These efforts form the foundations for ensuring energy affordability and reindustrializing the nation. And this is where the strategy becomes tangible. Across power, fuel and isotopes, we are already building assets that support a more integrated nuclear development model to unlock nuclear energy abundance. On the power side, we have Aurora-INL, our first Aurora powerhouse at Idaho National Laboratory and Aurora Ohio, our planned clean energy campus in Pike County tied to our partnership with Meta. On the fuel side, we have A3F at INL, our first fuel fabrication facility and our advanced fuel center in Tennessee, which is our first phase of used nuclear fuel recycling infrastructure. And in isotopes, we are building Groves, our radioisotope test reactor in the Idaho p Radiochemistry Laboratory, which supports isotope processing and scale up. So when we say vertically integrated, this is what we mean, multiple real assets now moving forward across all 3 business units. Since our last company update, we have made meaningful progress across all aspects of the company. In power, Aurora-INL executed its DOE other transaction agreement under the Reactor Pilot Program, received DOE approval of the nuclear safety design agreement, continued construction activities, including blasting and signed with Siemens Energy for the power conversion system. We also signed the meta prepayment agreement in support of up to 1.2 gigawatts at Aurora, Ohio. In fuel, A3F received DOE approval of both the NSDA and the preliminary documented safety analysis, and it was selected under the DOE Advanced Nuclear Fuel Line Pilot Program. In recycling, we signed an agreement with TVA to explore fuel recycling, initiated site prework on our flagship recycling facility, completed NRC pre-application engagement, initiated a rolling NRC readiness review and were selected for DOE recycling R&D funding. We also completed a fast-spectrum plutonium criticality experiment and announced a joint venture initiative with Centrus around deconversion. And in isotopes, Groves executed its DOE OTA, received NSDA approval, submitted its PDSA and continued construction toward a July 4 criticality target. Separately, the Idaho Radiochemistry Laboratory obtained its NRC materials license. So this is execution across multiple assets, multiple licensing pathways and multiple business units, all moving forward in parallel. Aurora-INL is advancing on a DOE-first authorization pathway. We have already executed the OTA under DOE Reactor Pilot Program and received approval of the nuclear safety design agreement. Those are important because the OTA formally brings the project into the DOE authorization pathway and the NSDA locks in the safety and regulatory framework for the project. The next DOE milestones are the preliminary documented safety analysis, the documented safety analysis and then the readiness review and start-up approval. Each of those steps progressively aligns DOE and Oklo on a safety basis from final design and construction through start-up and operations. The significance here is that the DOE pathway allows us to keep advancing construction, procurement and system integration activities in parallel as the project moves forward. Alongside the authorization work, Aurora-INL is also advancing on execution and build readiness. On site development, we completed site characterization at INL. Site preparation is underway, including blasting and construction activities are progressing in line with the project plan. On procurement and supply chain, we have received responses for the majority of identified long lead component requests for proposal, supplier down selection is underway, and all major equipment now has vendors under contract. That includes the Siemens Energy contract for the power conversion system, active supply chain agreements for reactor module components and active vendor contracts for all major refueling equipment. So Aurora-INL is moving forward on both the physical site side and the supply chain side, which is what we want to see at this stage of a first deployment, and we are learning a lot on the way. Next is Aurora Ohio, where the key update is our agreement with Meta in support of a 1.2 gigawatt Aurora campus. The agreement advances plans for phase deployment with an initial phase of 150 megawatts targeted around 2030, and it is supported by prepayment for power structure designed to improve project certainty and support Phase 1 development. Importantly, Oklo expects to use funds from the prepayment agreement to support fuel procurement. We also own approximately 206 acres in Pike County, Ohio, which gives us a site to advance campus development in parallel with commercialization and permitting work. So this is an example of customer demand, commercial structure, site control and fuel planning, all starting to line up around a real deployment opportunity. Fuel availability is one of the key gating items for advanced nuclear deployment. So our fuel strategy is deliberately built around flexibility, supply optionality and execution readiness. As this slide shows, we are addressing that through strategic enablers, fuel supply pathways and strategic fuel partnerships. On the enabler side, our fast reactor technology is designed to be versatile across a wide range of fuel sources, and our fabrication capabilities are intended to convert different feed supplies into reactor-ready fuel. Over time, recycling can turn used fuel into a more repeatable strategic fuel supply. Oklo is pursuing a differentiated strategy here to help accelerate deployment even in the face of conventional supply chain bottlenecks. And on supply pathways, we are working with DOE managed materials, HALEU from conventional and advanced enrichment providers and recycled fuel supported through our own recycling and fabrication capabilities. And on partnerships, we are working with DOE, building relationships around enrichment and deconversion and developing opportunities around recycled fuel. The goal is to solve for near, mid- and long-term scale while maintaining flexibility as the market evolves. A3F has a very specific role in our deployment strategy. It is a purpose-built facility to fabricate fuel for Aurora-INL using an existing building at INL, where Oklo is installing and operating the fabrication equipment. On the authorization side, A3F was selected under DOE's Advanced Nuclear Fuel Line Pilot Program, which is intended to support accelerated licensing and construction of advanced fuel fabrication capabilities. Execution is already underway. Initial construction activities have begun, and A3F is advancing in parallel with Aurora-INL so that fuel fabrication does not become a deployment gating constraint. We have also received DOE approval of both the NSDA and the PDSA for A3F, which enables us to move forward with final design and construction. And notably, Oklo's PDSA was the first facility approved under DOE's Fuel Line Pilot Program, which is an important validation of the pathway we are using. Next is the Tennessee Advanced Fuel Center, which is our first major step toward building long-term recycling capability. On-site and development progress, we completed initial geotechnical surveys and soil borings at the Tennessee site and initiated site development activities. On regulatory and licensing progress, we completed our planned NRC pre-application engagement and initiated a rolling NRC readiness review in advance of a future license application. And on fuel supply and partnerships, we were selected for DOE recycling research and development funding. The broader point is that this project is advancing on the site, regulatory and funding fronts at the same time, which is how we intend to move recycling from concept into real long-term fuel supply infrastructure. Staying on fuel, this slide is about upstream fuel infrastructure and specifically uranium deconversion. We announced a potential joint venture with Centrus focused on deconversion, building on our prior relationship. What is strategically compelling is the intended location. Centrus' site in Pike County, Ohio, co-located with Centrus' enrichment operations and adjacent to our planned 1.2 gigawatt power campus. Deconversion is a critical upstream step in the domestic fuel supply chain and colocation has the potential to improve logistics, reduce friction and strengthen both cost and supply resilience over time. It is important to note that these deconversion capabilities can support Oklo's fuel needs and the fuel needs of other reactors and reactor types, including light-water reactors. So this is another example of how we are looking to expand fuel infrastructure alongside fabrication and recycling, while the current focus remains on initial venture structuring and project planning. Turning to isotopes. The Idaho Radiochemistry Laboratory is an important near-term asset and example of timely execution. We obtained the NRC materials license for the facility, which is a key operational milestone. The facility is expected to make first revenue this year, which also makes it one of the more near-term revenue-oriented pieces of our broader business. Strategically, the lab has the potential to provide the foundation for developing our isotope processing methods and then scaling them up to support future VIPR facilities. So this lab is well on its way to be both a practical operating asset and a foundational capability for scaling the isotopes business over time. Now to Groves, our first radioisotope test reactor deployment. Groves is moving through a DOE first authorization pathway, and we have already completed 2 important steps, executing the OTA under the Reactor Pilot Program and receiving approval of the NSDA. Those matter because the OTA formally brings the project under the DOE pathway, while the NSDA locks in the safety and regulatory framework for the project. The next milestones are approval of the PDSA, which has now been submitted, approval of the DSA and then the readiness review and start-up approval. Groves is progressing through a structured DOE first pathway that's designed to enable full project build-out and position the facility for start-up and operations. And rather than just talk about it, I want to show you what we've executed. We'll pause here for a short video from the Groves site, and then I'll come back and walk through the key build milestones. [Presentation]