Oklo inc (OKLO.US) 2025年第四季度业绩电话会
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会议摘要
A nuclear energy company updates on advancements in power generation, fuel fabrication, and isotope production, emphasizing strategic partnerships, regulatory support, and infrastructure development for economic growth and sustainability.
会议速览
A conference call was held to discuss Oakland's financial results and business progress for the fourth quarter and full year of 2025. The call included a business update and strategic progress review, followed by a discussion on financial results. Forward-looking statements were disclosed, highlighting potential risks and uncertainties.
Oakland achieved significant milestones in 2025, transitioning from product development to active project deployment across all business units. Key highlights include breaking ground on the first Aurora powerhouse and Idaho National Laboratory, securing a prepayment agreement with Meta for a 1.2 GW power campus, and initiating construction on three facilities at INL. The year also marked progress in fast spectrum fuel and the first Radioisotope Actor construction.
A strategic update reveals the nuclear sector's progress in executing projects, emphasizing policy shifts towards execution-oriented licensing, federal support, fuel sovereignty, and streamlined deployment pathways, positioning Oak as a leader for future advancements.
This dialogue outlines a vertically integrated nuclear platform through three business units—Power, Fuel, and Isotopes—designed to deliver clean, reliable energy, streamline fuel production, and expand into high-value products. The Power unit focuses on scalable baseload power for growing demands, while the Fuel unit addresses critical fuel availability challenges. Integration across these units aims to unlock multiple value streams, emphasizing long-term offtake agreements and foundational scalability for broader nuclear deployment.
A comprehensive nuclear fuel strategy includes recycling uranium for reuse, producing transgenic bearing material, enabling high-value isotope production, and managing used fuel through recycling. The isotope business unit targets healthcare, industrial, and defense markets, leveraging existing power and fuel capabilities while pursuing specialized production methods and service revenues, thus enhancing the overall business platform and economics.
The dialogue outlines a strategic vision to transform the nuclear value chain by creating an integrated platform that connects power production, fuel fabrication, recycling, and isotope production. This approach not only addresses the management of used nuclear fuel but also taps into its vast energy potential, positioning it as a domestic energy resource. The focus is on leveraging recovered materials for radioisotope production, enhancing the value chain, and establishing a sustainable, repeatable fuel cycle.
The dialogue explores leveraging used nuclear fuel as a resource through regional campus models, aiming to streamline nuclear fuel cycle processes, enhance reactor fuel supply, boost domestic radioisotope production, and improve long-term fuel management, thereby transforming the U.S. energy landscape.
The company is executing a vertically integrated strategy across power, fuel, and isotopes, with tangible progress including the Aurora powerhouse, clean energy campus, fuel fabrication facilities, and isotope processing infrastructure. This approach supports the reindustrialization of the nation and unlocking nuclear energy abundance.
Aurora INL advances its nuclear energy projects with significant milestones, including Doe approvals, construction activities, supplier contracts, and strategic partnerships, demonstrating progress across multiple assets and licensing pathways.
A 1.2 GW Aurora campus in Ohio is being developed with Meta, focusing on phase deployment, fuel procurement, and strategic partnerships. Oklo is advancing fuel infrastructure, including a 3F facility for fuel fabrication, recycling capabilities at the Tennessee Advanced Fuel Center, and a potential joint venture for uranium deconversion in Ohio. These initiatives aim to ensure fuel availability, enhance supply chain flexibility, and support advanced nuclear deployment.
The Idaho Radiochemistry Laboratory and the Groves radioisotope test reactor are highlighted as critical assets in advancing nuclear technology. The lab is expected to generate revenue this year and will support future isotope processing. Groves is on track for criticality by July 4, demonstrating rapid construction and deployment, challenging the perception of nuclear projects as slow. Both projects are executing scalable commercial strategies, contributing to the broader goal of efficient nuclear asset development.
Groves, a water-cooled, non-pressurized test reactor, is designed to provide practical experience across various stages of development. It serves as a precursor for the Viper reactor platform, offering insights for both near-term operations and long-term deployment strategies. The company employs tailored licensing approaches for different assets, utilizing Dewee authorization for DOE site projects and NRC pathways for broader commercial applications, ensuring optimal development for each asset.
The company reported a significant strengthening of its balance sheet in 2025, achieving an operating loss of $139.3 million primarily due to payroll and business expenses. It highlighted disciplined cash management, with adjusted cash use in operating activities within guidance at $69.2 million. The firm ended the year with $1.4 billion in cash and marketable securities, and further bolstered its position by raising $1.182 billion in early 2026. The strategic plan for 2026 includes a measured increase in cash used for operating activities and a substantial investment range of $350 million to $450 million in projects across all business units, aiming to capitalize on growth opportunities and policy tailwinds.
Discussion highlights advancements in commercialization efforts, emphasizing Meta's pivotal role as a lead customer. Conversations with other potential clients are ongoing, fostering growth in various sectors including data centers, military, and industrial applications. The strategic focus on locations like Ohio is expected to drive continued expansion and scalability.
Discussed significant CapEx increase, highlighting investments in Idaho for power projects and Ohio for meta powerhouses, while emphasizing ongoing work in recycling and fuel projects, avoiding detailed breakdowns until commercial progress is achieved.
The dialogue discusses the status of regulatory strategies, including updates on Cola timing and PDC topical report review, and the impact of a government shutdown on licensing timelines and deployment schedules. It highlights the importance of positioning and scaling into opportunity spaces for long-term success, while addressing challenges posed by staffing constraints and potential schedule changes.
The dialogue highlights the significance of DOE authorization in expediting nuclear plant construction, emphasizing the benefits of building while learning and iterating. It also discusses the anticipated NRC's role in converting DOE-authorized facilities to energy license facilities, enhancing regulatory efficiency and fostering collaboration between DOE and NRC for improved safety reviews and expertise leveraging.
Discusses the anticipation of new NRC guidelines impacting licensing strategies, emphasizing regulatory work, experience from the Aurora project, and obtaining an interstate license, all while adapting to evolving regulatory landscapes.
The speaker discusses how experience gained across various projects, including isotope production and reactor licensing, is being leveraged to improve NRC engagement and application development, highlighting unique scaling efficiencies and best practice integration.
Discussed the evolving Capital Expenditure (CapEx) for the 75 MW reactor, emphasizing the importance of speed in construction and the potential benefits of scaling up from initial Idaho plant experiences to Ohio plants, all while exploring ways to optimize costs and accelerate procurement from non-nuclear supply chains.
The dialogue explores the industry's shift towards disruptive approaches, focusing on removing legacy cost multipliers, modernizing supply chain practices, and leveraging flexibility outside traditional light water reactor constraints to achieve cost efficiency and innovation in nuclear technology.
The benefits of sodium-cooled reactor technology, including technical maturity, cost efficiency, and operational history, were emphasized as key factors in Meta's selection. The technology's compatibility with common alloys, high temperature operation, and passive heat rejection capabilities contribute to its appeal, alongside multiple fuel pathways and advantageous land access in Ohio.
The dialogue discusses the shift in the Aro reactor's timeline to 2028, emphasizing efforts to balance cost and schedule. It also covers the capital expenditure requirements, aiming for clarity later in the year. On the experimental front, a successful plutonium criticality test is highlighted, showcasing enhanced reactor models and anticipation for further DOE funding allocations.
The dialogue explores the development of deconversion technology designed to be adaptable for various uranium enrichment methods, highlighting its potential integration with existing facilities to enhance efficiency and support growth in the industry.
The discussion revolves around the strategic choice between NRC and DOE licensing pathways for fuel production and recycling, emphasizing the benefits of NRC licensing for commercial scale operations while considering DOE's role in pilot facilities. The progress in recycling licensing is highlighted, showcasing significant advancements towards full commercial scale.
Discussion focuses on the confidence level regarding meeting the July 4 criticality deadline for the Atom MC Alchemy Gross test reactor, highlighting the progress made, logistical challenges, and the unique aspects of the project's full design and build process.
Discussed strategic vision for repurposing federal land for economic development, highlighting the integration of nuclear power plants and infrastructure as a catalyst for growth. Recognized the synergistic effects of power generation on attracting other industries, emphasizing the potential for similar opportunities in other states.
The dialogue highlights the significance of a firm Power Purchase Agreement (PPA) as a mechanism for prepayment, particularly in the context of a successful agreement with Meta. This agreement serves as a model for future partnerships, emphasizing the need for committed partners who understand and support the project's success. The conversation underscores the importance of a structured framework that allows for prioritization of partners based on their commitment, facilitating project certainty and collaboration. With numerous opportunities in the power sector, the established framework positions the company to work effectively with Meta and potential future partners, ensuring a clear path for successful execution and prioritization of partnerships.
Discussion revolves around establishing a firm Power Purchase Agreement (PPA) with Meta to advance renewable energy projects in southern Ohio. Emphasis is placed on securing binding commitments before finalizing PPA structures, ensuring alignment of asset deployment with commercial agreements, and enhancing project viability through strategic partnerships.
Discussion highlights expected federal actions and NRC reforms to expedite nuclear industry progress, emphasizing the Nuclear Life Cycles initiative and modernization efforts. Capitalization strategy, including project financing and market fundraising, is outlined to sustain operations and capitalize on emerging opportunities.
The dialogue reflects on successful achievements in 2025 within the nuclear sector, highlighting the acquisition of NRC licenses, reactor construction progress, and plans for July 4th operational milestone. It emphasizes the company's strategic positioning for growth through internal development, partnerships, and acquisitions, aiming to scale nuclear execution capabilities and expand industry insights.
要点回答
Q:What are the key achievements of Oakland in 2025?
A:In 2025, Oakland transitioned from product development to active project deployment across all business units. Key achievements include groundbreaking on the first Aurora powerhouse at Idaho National Laboratory, advancing commercial partnerships, such as a prepayment agreement with Meta for a 1.2 GW power campus, and beginning initial construction activities. The company also completed fast spectrum plutonium criticality experiments and announced the first phase of its advanced fuel center in Tennessee, while progressing licensing activities across multiple assets.
Q:How has the external environment influenced Oakland's progress?
A:The external environment has shifted significantly, with U.S. nuclear policy moving toward a more execution-oriented posture, focusing on licensing and enabling first-of-a-kind projects. Federal support mechanisms, fuel sovereignty measures, and implementation of the Advanced Act have provided improvements in funding pathways and have positioned Oakland to take advantage of these changes, creating a strong tailwind for the nuclear sector.
Q:What is the significance of the three integrated business units for Oakland?
A:The three integrated business units—power, fuel, and isotopes—form a unique vertical nuclear platform for Oakland. Power provides clean baseload power, fuel supplies and fabricates reactor-ready fuel, and is foundational to the business platform. Fuel availability is a strategic enabler and enables recycling for advanced reactor deployment. Isotopes expands the platform into high-value domestic supply for critical uses, complementing power and fuel and providing opportunities for additional products and services.
Q:What are the components of the power business unit and its importance?
A:The power business unit is focused on building a power business that meets the growing demand for reliable power. It includes projects like Aurora INL, the Aurora powerhouse at Idaho National Laboratory, and the Aurora campus in Ohio. Power deployments create demand for scaling production and fabrication capabilities, making it both a near-term customer solution and a foundation for platform scalability.
Q:Why is the fuel business unit critical for Oakland?
A:The fuel business unit is critical because fuel availability is a significant constraint for new nuclear deployment. It includes the capability to fabricate fuel for both Oakland's own deployment and third-party reactors. Recycling initiatives recover uranium for reuse and enable high-value isotope production. This business unit is an enabling system for deployment and has potential services for modern decontamination processes.
Q:What opportunities does the isotope business unit present?
A:The isotope business unit is built around high-value end markets in healthcare, industrial space, and defense applications. It pursues purpose-built production and seeks to generate revenue through radiation services for advanced nuclear technology research and development, semiconductor doping, and hardening. Isotopes expands the platform into high-value domestic supply for critical uses while enhancing the economics of the broader business.
Q:How does integration across the value chain benefit Oakland?
A:Integration across the value chain is designed to unlock multiple complementary value streams for Oakland. By connecting power production, fuel fabrication, fuel recycling, and isotope production, the objective is to move from a fragmented fuel cycle to a repeatable loop, which supports reliance and additional products across the platform. This creates new value through the use of recovered materials in radioisotope production, which then connects directly to the isotope business unit.
Q:What are the latest developments in building a nuclear fuel cycle infrastructure?
A:The latest developments involve state partnerships and regional campus models that can colocate key parts of the nuclear fuel cycle. These models could reduce development friction, improve execution timelines, and support more efficient investment in fuel recycling, power, and isotope-related infrastructure. Utilizing used nuclear fuel as a resource rather than a liability could fundamentally change the power outlook in the U.S. and align with Oakland's strategy.
Q:What is the strategic importance of used nuclear fuel in the U.S.?
A:Used nuclear fuel in the U.S. is described as a major strategic energy reserve, containing energy potential comparable to global oil reserves. Recycling and reuse of this fuel are strategically important, transforming it not just into a liability but also into a potential domestic energy resource. This makes the fuel cycle infrastructure a key area of focus for enabling nuclear energy abundance and supporting advanced reactor deployment.
Q:What progress has been made in the business units since the last company update?
A:Since the last company update, progress has been made across all three business units. Aurora INL executed a DOE other transaction agreement under the reactor pilot program and received approval of the Nuclear Safety Design Agreement. Aurora, Ohio, signed a prepayment agreement with Meta for a 1.2 GW Aurora campus and is advancing plans for deployment. The fuel business unit is focusing on strategic partnerships and flexibility in fuel supply, while the isotope business unit is building assets to support research and development for advanced nuclear technology.
Q:What is the purpose of a 3 F facility and how does it relate to the Aurora INL deployment strategy?
A:A 3 F facility is purpose-built for fabricating fuel for Aurora INL using an existing building at INL, as part of the DOE's Advanced Nuclear Fuel Line Pilot Program. It is intended to support accelerated licensing and construction of advanced fuel fabrication capabilities. The 3 F is advancing in parallel with Aurora INL to ensure that fuel fabrication does not become a deployment gating constraint.
Q:What progress has been made regarding the Tennessee Advanced Fuel Center?
A:The Tennessee Advanced Fuel Center is advancing with the completion of initial geotechnical surveys and soil borings, and the initiation of site development activities, including regulatory and licensing progress. The project has received NRC pre-application engagement and is in a rolling NRC readiness review phase, aiming to move recycling technology from concept into real long-term fuel supply infrastructure.
Q:What is the significance of the joint venture with Centrus focused on uranium deconversion?
A:The joint venture with Centrus focuses on uranium deconversion, with a strategically compelling location adjacent to a planned 1.2 GW power campus and near Centrus' enriched operations. This colocation can improve logistics, reduce friction, and enhance cost and supply resilience. It will also support the fuel needs of other reactor types, including light water reactors.
Q:How is the Idaho Radiochemistry Laboratory contributing to the company's revenue and future plans?
A:The Idaho Radiochemistry Laboratory is an important near-term asset that is expected to generate first revenue this year, making it a key part of the company's revenue strategy. It has the potential to provide a foundation for developing ISO 2 processing methods, which can then scale up to support future Viper facilities, positioning the lab as both a practical operating asset and a capability for scaling the isotopes business.
Q:What are the key milestones for the GROVE project and its licensing pathway?
A:The GROVE project is progressing through a DOE first authorization pathway, having completed executing the OTA under the reactor pilot program and receiving approval of the NSDA. The next milestone is approval of the PDSA. The project aims to be fully built and operational, demonstrating rapid deployment capabilities with a focus on finishing construction, installing equipment, and performing system testing.
Q:How is the company approaching the licensing process for its different assets?
A:The company is taking a tailored approach to the licensing process for different assets, depending on the asset, site, and development objectives. For DOE site projects like Aurora INL and a 3 F, the company is pursuing DOE authorization, while for other non-DOE assets, it is pursuing the NRC pathway, including the Advanced Fuel Center in Tennessee and the Idaho Radiochemistry Laboratory, which has already received its NRC license.
Q:What is the status of the financial update and future investment expectations?
A:The financial update indicates that the company significantly strengthened its balance sheet, resulting in a loss from operations of $139.3 million and a loss before income taxes of $110.2 million. The company expects to invest between $350 million and $450 million in CapEx in 2026, which includes projects across all three business units. The company also raised an additional funds through an ATM program, leaving it well-positioned to benefit from ongoing policy and regulatory tailwinds and execute its business plans.
Q:What progress has been made toward commercialization and who are the key potential customers?
A:The company has made progress toward commercialization, with Meta being an important anchor customer and contributing to the growth of the customer pipeline. Discussions are ongoing with other potential customers, and there is a healthy pipeline across various sectors such as data centers, military, and industrial applications. Having Meta as a lead customer is seen as creating a dynamic that attracts others to follow.
Q:How is the CapEx guidance for 2026 broken down, and what are the expectations for future years?
A:The company provided a CapEx guidance range of $350 million to $450 million for 2026 but did not provide a detailed breakdown by business unit or project. They mentioned that the spend would reflect multiple projects across all three business units and that the Idaho project is an important piece of the investment. The expectation is to see continued CapEx levels around these figures in the coming years, reflecting ongoing projects across various dimensions of the business units.
Q:How does the Nuclear Energy Innovation Capability Act influence DOE's role in nuclear energy?
A:The Nuclear Energy Innovation Capability Act set the stage for using DOE's capabilities and resources, including regulatory authorizations, to support the first of its kind build. This law, passed in 2018, directed DOE to leverage its existing regulatory expertise and build capabilities to facilitate nuclear energy development.
Q:What is the conversion process from a DOE-authorized to an NRC energy license facility?
A:The conversion process involves transforming a DOE-authorized and built operating facility into an energy license facility by performing safety reviews and referencing all previous work. This is not about obtaining a license to build and operate the plant but about a conversion process that requires safety reviews and extensive documentation.
Q:How is the NRC and DOE collaboration beneficial for regulatory efficiency and plant construction?
A:Collaboration between the NRC and DOE is beneficial as it combines DOE's wide range of regulatory experience and flexibility with NRC's licensing expertise. This synergy aims to streamline the process and reduce regulatory inefficiencies, leading to faster plant construction.
Q:What is the impact of recent NRC developments on regulatory strategies for the project?
A:Recent NRC developments impact regulatory strategies by potentially reducing costs and timelines and increasing regulatory confidence. These developments are significant as they could alter the approach to licensing and influence the project's strategy.
Q:How is the company preparing for potential changes in the licensing process?
A:The company is preparing for potential changes in the licensing process by continuing the pathway of preapplication activities that address general and crosscutting issues important for licensing. This strategy sets the stage for adapting to the new application structure that may emerge from the NRC's regulatory developments.
Q:What is the significance of the isotope license obtained by the company?
A:The significance of the isotope license obtained by the company is that it represents a milestone in the licensing process and allows for the company to engage in certain aspects of its business. Although there were delays due to the shutdown, obtaining the license is an important step forward.
Q:What factors are contributing to potential cost savings and schedule acceleration in the Aurora Powerhouse project?
A:Factors contributing to potential cost savings and schedule acceleration include learning from the Idaho Project, leveraging DOE's experience, focusing on procurement strategies that move schedules to the left, and engaging in more constructive supply chain dynamics. Additionally, the project's design benefits from modernization efforts that address legacy cost structures.
Q:How does the company plan to manage its supply chain and achieve cost efficiencies?
A:The company plans to manage its supply chain and achieve cost efficiencies by focusing on modernization efforts that reduce typical nuclear cost multipliers. This includes taking advantage of passive and inherent safety features, engaging suppliers to improve delivery methods, and avoiding legacy requirements where possible. The company also benefits from its unique position as a non-light water reactor, providing flexibility in the supply chain and opportunities for in-house construction.
Q:What are the benefits of the design chosen by Meta, and why might they have selected it?
A:The benefits of the design chosen by Meta include technical maturity, lessons learned from building similar plants, competitive operational capacity factors, and high technology readiness. Meta may have selected this design due to its ability to achieve exciting operational characteristics, compatibility with standard alloys, and the potential to operate at high temperatures, which reduces cost and increases efficiency.
Q:Why is sodium considered beneficial for reactor designs?
A:Sodium is considered beneficial for reactor designs because it is a materially benign fluid with commonly available fields, compatible with standard alloys, reducing the need for exotic alloys. It is also non-pressurized and can operate at high temperatures, providing the benefit of passive heat rejection and efficient heat transfer.
Q:What factors led to the timing shift in Aro, and what is the impact on CapEx requirements?
A:The timing shift in Aro was due to challenges balancing cost and timeline. The exact reason for the shift was not mentioned in the transcript. As for the impact on CapEx requirements, more clarity will be provided later in the year regarding the cost of the first asset and future cost reductions for future deployments.
Q:Can you describe the fast spectrum Plutonium criticality clarity experiment and the expectations for plutonium allocations?
A:The fast spectrum Plutonium criticality clarity experiment involved working with a small psonic metal assembly at the Los Alamos National Laboratory and the Nevada National Security Site to conduct criticality benchmarks and reactivity measurements. The results are expected to enhance models for validation purposes and improve reactor performance. The experiment's successful outcomes could lead to more advanced work to improve system fidelity and reduce uncertainty in reactor operation.
Q:What is the potential for collaboration between deconversion technology and other enrichment suppliers?
A:The potential for collaboration between deconversion technology and other enrichment suppliers lies in the flexibility of the deconvergence technology, which is based on a Uf 6 input. It can be integrated with existing facilities and is suited for various enrichment processes. The company envisions supporting the growth and expansion of current enrichment suppliers and has explored collaboration with Cent to leverage economies of scale in Ohio.
Q:Why was the NRC licensing pathway chosen for Tennessee, and how does it differ from other licensing approaches?
A:The NRC licensing pathway was chosen for Tennessee because it aligns with the goal of having an existing DOE facility that can fabricate fuel for the Aurala plant. This approach is viewed as the fastest way to scale up, given the commercial use case for recycling, and the licensing is needed for the fully commercial facility envisioned. The DOE/INL site is already set up for the pilot project, and engaging with the NRC for field fabrication licensing will facilitate future NRC licensing for commercial scale. The licensing process for recycling is more extensive and fundamental, hence the focus on inter licensing. A potential alternative could be a DOE authorization approach for a pilot facility, which would be evaluated depending on its suitability.
Q:What is the status of the AMC Alchemy Gross test reactor project, and how confident are you in meeting the July 4 target?
A:The AMC Alchemy Gross test reactor project is in its final stages, with roughly 3.5 months left to meet the target of criticality on July 4. The project is seen as a great success, highlighting the company's ability to design, build, and learn lessons quickly. As such, there is confidence that the target will be met or exceeded.
Q:What are the challenges and considerations for receiving and managing fuel for the system?
A:The challenge involves planning to receive and manage the fuel in a timely manner, coordinating with the ability to load fuel equipment, and finding ways to accelerate the process to ensure the right resources are available now rather than in a more commercial scale. This also includes ensuring flexibility for certain things like instrumentation and detection.
Q:What makes the current project unique compared to other companies achieving criticality?
A:The uniqueness of the current project lies in the fact that it includes real civil works unlike other companies that may not have the same level of civil infrastructure involvement or may use prefabricated fuel from DOE facilities or inventories. This project is a full design build, not using pre-existing fuel from other sources, but rather developing everything from scratch.
Q:Why did Aurora Powerhouses attract the interest of Meta for their land in Ohio?
A:Aurora Powerhouses were seen as an attractive use for the land because of their strategic vision to repurpose federal land resources that were being cleaned up and made available for economic development. This was recognized by the economic development council in Ohio as a potential opportunity for establishing power plants, creating jobs, and supporting economic growth.
Q:How does Aurora plan to leverage its business model to address the challenges in nuclear deployment?
A:Aurora's business model compels it to solve tricky issues that make deployment challenging, such as building power plants alongside reactors. This approach allows the company to create value by efficiently and cost-effectively delivering power to customers, illuminating strategic opportunities for infrastructure development and differentiation.
Q:What is the role of nuclear power in the economic development of the area where Aurora plans to build?
A:Nuclear power is seen as an important factor in economic development, as it creates 'halo effects' that attract other industries. Aurora's build-up of power plants in the area is expected to bring additional opportunities for economic growth and job creation.
Q:What is the impact of the recent Meta agreement on PPA discussions with other potential customers?
A:The recent Meta agreement has set a framework for PPA discussions, changing the focus and accelerating the conversation with other potential customers. This creates project certainty and ensures partners are committed to working with Aurora and understand the importance of a successful partnership.
Q:How will the new mechanisms for prepayment and PPAs affect the timing and structure of future agreements?
A:The new mechanisms for prepayment and PPAs are designed to drive project certainty and ensure partners are committed to the success of the projects. This approach allows Aurora to prioritize deals and scale into the right kind of PPA structure, which is seen as a binding commitment that enables project progression.
Q:What government programs and regulatory changes are expected to support Aurora's plans?
A:Aurora expects additional federal action to be supportive of their plans, particularly the Nuclear Life Cycles initiative, which is significant for addressing the backend of the nuclear cycle and promoting recycling. There is also ongoing reform and modernization work at the NRC that is expected to provide enhanced schedule certainty and reduced timelines and costs.
Q:Is Aurora well-capitalized for future plans and what is their strategy regarding investment and capital management?
A:Aurora is very well-capitalized for 2026 and beyond, and is on track with its capitalization strategy. It has not yet executed the 'as-level fencing' approach but remains confident in its ability to do so. Aurora's ability to raise capital in the markets and ongoing discussions with DOE loan programs support its strategy. The company anticipates more opportunities ahead, especially in the fuel space, and aims to manage investment levels accordingly.

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