Thank you, Matt, and thank you all for joining us to discuss Lightbridge's 2023 results. I am pleased with the momentum building within the nuclear sector and the pivotal role Lightbridge is poised to play in this transformative period. Our advancements in fuel technology, combined with a growing network of strategic partnerships position us to address the challenges and opportunities presented by the emerging global mandates to greatly expand nuclear capacity. In 2023, Lightbridge achieved several key milestones and made important advancements in our ongoing fuel development efforts. Earlier in the year, we strengthened our leadership team by welcoming Sherrie Holloway and Dr. Scott Holcombe to our team. Mr. Goodman, a recognized national security expert, joined Lightbridge as an independent director, bringing invaluable insights into the intersection of energy and national security. As our new Vice President of Engineering, Dr. Holcombe brings extensive expertise in nuclear fuel and materials development and management of interdisciplinary teams of engineers and subject matter experts, further bolstering our nuclear fuel technology leadership. In December, we announced an agreement with Centrus Energy to conduct a front-end engineering and design study for a Lightbridge pilot fuel fabrication facility in Piketon, Ohio. Centrus currently hosts a U.S.-based production facility for high-assay low-enriched uranium or HALO, partnering with the U.S. Department of Energy, DOE, on the site. The key objective of the FEED study is to determine the scope of work, cost and schedule estimates and identify key risk factors for establishing a Lightbridge Pilot Fuel Fab facility. The results of this study will form the basis for a decision on the way for establishing the Lightbridge Pilot Fuel Fab facility for manufacture of full length fuel rods for demonstrating and licensing Lightbridge Fuel in commercial reactors. We also entered into an agreement with the Pitesti Nuclear Research Institute, known as RATEN ICN, based in Romania, to assess the compatibility of Lightbridge Fuel for use in CANDU reactors. This study will identify any critical parameters for further evaluation and design. The findings will guide future economic evaluations and support navigating potential regulatory licensing related issues. If feasibility of using Lightbridge Fuel in CANDU reactors is confirmed, we believe this type of reactor may offer an opportunity for faster time to market due to the unique design and operating conditions of CANDU reactors. Last summer, we announced a research study led by Texas A&M University and including Lightbridge, NuScale Power and Structural Integrity Associates as part of the DOE Nuclear Energy University Program R&D awards. This project focuses on thermal hydraulic modeling and testing which aims to increase the understanding of the overall performance of Lightbridge Fuel under simulated normal and off normal conditions in NuScale's SMR. This follows a similarly structured study with MIT announced in 2022 that focuses on Neutronics modeling and safety evaluation of Lightbridge Fuel in the NuScale SMR. In an effort to better communicate our fuel development progress to industry, investors and other key stakeholders, Lightbridge is adopting the technology readiness level or TRL system. We are using the TRL framework to plan our development in a logical and efficient way. The TRL system was originally developed by NASA and is widely recognized across technical industries. The organization for economic cooperation and development, the OECD includes a nuclear energy agency, which provides a standardized TRL framework for assessing and communicating the maturity of nuclear fuel technology. As with NASA's TRLs, this framework encompasses a scale from 1 to 9 with TRL 1 representing the initial concept or theoretical stage and TRL 9 denoting a technology that has been proven in its operational environment. Utilizing the TRL system allows Lightbridge to map the development of our nuclear fuel technology against a clear standardized metric, enabling stakeholders to gauge progress in a structured and transparent manner. Currently, we believe Lightbridge Fuel is positioned at TRL 4 to 5, indicating a significant phase in our development process. At this stage, Lightbridge fuel has moved beyond TRL 1 to 3 theoretical research and entered into the realm of validation in a laboratory environment or TRL 4 and preparations for validation in representative operating conditions or TRL 5. This signifies that the core principles underlying Lightbridge Fuel have been successfully demonstrated through a number of computer modeling analyses and initial proof-of-concept experiments. We expect our ongoing project at INL will generate in-reactor data to further validate thermophysical properties of our uranium-zirconium alloy in coupon samples, which supports late stages of TRL 4. As the next step, we plan to conduct a radiation testing of rodlets with our uranium-zirconium alloy to verify the technology's performance under conditions that will closely simulate operational scenarios. This work will support TRL 5. This will signify a pivotal transition from conceptual designs and laboratory tests to in-reactor testing in representative and actual conditions the fuel will experience in commercial reactors. This phase is critical for demonstrating our fuels design, materials performance and identifying potential challenges, allowing for adjustments and enhancements before advancing to system prototype demonstration in operational environments, which make up TRL 6 and 7. Achieving TRL 4 to 5 is an important milestone that validates Lightbridge Fuel and our achievements thus far and sets the stage for subsequent development steps moving us closer to commercialization and widespread adoption of our advanced nuclear fuel, which will be TRL 8 and 9. I'll turn the call over to Andrey Mushakov, Executive VP for Nuclear Operations, to review our ongoing fuel development activities. Andrey?