John Hopkins
Analyst · Cowen. Your line is open
Thank you, Diane, and good morning, everyone. I’m pleased to be speaking to you from Sharm el-Sheikh, Egypt at COP 27 where we’ve been participating in meetings and panels about the essential role that nuclear play in de-carbonizing our global energy ecosystem to help meet our carbon reduction targets by 2050. We discuss the use of SMR technology to provide critical carbon-free power to Ukraine. The discussion included announcement by the U.S. government commands a pilot project in Ukraine that will demonstrate the production of clean hydrogen ammonia using NuScales’ SMR technology carried out by a public private consortium from the U.S., Ukraine, Japan, and the Republic of Korea. This is another example how SMR technology can not only provide energy security, but also offers a diverse energy platform from which to de-carbonize multiple sectors and enable countries to address issues like long-term food security and energy scarcity. What this also underscores is that the level of excitement around nuclear has never been greater. Recent geopolitical developments have put a spotlight on a need for additional sources of clean and reliable energy. As a result, more governments, utilities, and businesses across the globe are looking to nuclear as a viable way to power the future. As an example, at the recent International Atomic Energy Agency, IAEA, Nuclear Power Ministerial Conference in Washington, D.C., leaders from the governments of Japan, Ghana and the U.S. announced the strategic collaboration to support the deployment of SMR technology in Ghana. As part of this agreement, the government of Japan has funded a feasibility study and supply chain survey for the potential deployment of a NuScale VOYGR SMR power plant in Ghana. This collaboration that’s the first of a kind on the African continent, a market we believe could be well served by our technology. Administrations in the UK, France, and South Korea are also discussed in extending alliance of existing plants, indoor building more nuclear power plants as part of a longer-term framework to meet net zero emission targets, and it has been encouraging to see countries such as Germany reevaluate their stance on nuclear. Similarly in the U.S., states are calling for extending the lifetimes of the current fleet or expanding the use of nuclear power. In California for example, Governor Newsom signed a law to keep the Diablo Canyon power plant running for five years past its previous plan closure date. Virginia has recently released 2022 energy plan, specifically calls out the need for reliable, base load, clean energy from SMRs and calls for the first commercial SMR facility in the country to be placed in Southwest Virginia within 10 years. On the Federal level, the recently passed Inflation Reduction Act, represents the most consequential piece of legislation in support of nuclear since the Atomic Energy Act of 1954. We’re also seeing the coal to nuclear concept being further embraced as a key strategy to build a new path for our energy communities. Chris will expand on both in his remarks. It is clear that this is an exciting time and NuScale VOYGR small module reactor power plants offer a cleaner, safer, end cost competitive path forward. NuScale’s technology is smarter, use improvement pressure water reactor technology as a basis to create a simpler and modular design that could be fully factory fabricated. By shifting to full factory fabrication and assembly over site construction, we have the potential to reduce and stabilize costs while lowering schedule risk by moving more costly construction indirection activities to a factory environment. NuScale is a carbon free energy source that is not only capable of producing reliable base load electricity, but also designed for flexible operations that complement intermittent renewable energy generation sources and can provide process heat for applications such as desalinization, hydrogen production and oil refining to further de-carbonize industrial sector and as well as provide heat to communities via district heating circuits. The safety of NuScale design is unparallel due to our power modules ability to safely shutdown and self cool indefinitely. Without the need for AC or DC power, operator or computer action or any additional water, this provides what is called an unlimited coping period, a first for light water reactor technology compared to days a week for other designs. And finally, in terms of being cost competitive, NuScale’s SMR design is the only technology that is scalable. In that the facility can be operated from as few as one NuScale module – power modules to as many modules as the reactor build that is capable of housing. The scalable feature allows customers to expand the facilities and solve capacity over time to meet load growth or other economic considerations, and the facility does not need to have all modules installed to operate. As we shared last quarter, our technology is not hypothetical. We are putting the building blocks in place for commercialization. We are the first and only SMR technology provider in the world to receive design approval from the U.S. Nuclear Regulatory Commission or NRC. This approval is foundational to validating the innovative safety of our design and has propelled the public acceptance of SMR technology domestically and abroad. To our knowledge, none of our competitors have even filed an application with the NRC for design approval, which means we are at least three years ahead of the competition for those technologies interested and deploying in the United States. Furthermore, our technology is backed by an established supply chain. We are aligned with proven and highly competent manufacturing partners, and we have developed a robust supply chain management organization to provide oversight and monitoring of suppliers. Together, these foundational elements are supported by our asset light and diversified business model that monetizes value across the 60-year life of our plants. With that, I’ll move on to provide an operational update. As we prepared to list our company earlier this year, we established five near-term objectives for NuScale to complete by year-end. As you can see on Slide 15, we’re making strong progress on our 2022 priorities. As a reminder, our five-year near-term objectives are; one, secure our next committed customer; two, issue long lead material specifications for the upper reactor pressure vessel; three, complete the reactor building design; four, complete our standard plan design, which I’ll also refer to as the SPD throughout my remarks; and five, submit a standard design approval application to the U.S. Nuclear Regulatory Commission for the VOYGR-6 module power plant that our customer Utah Associated Municipal Power Systems plans to deploy. Now, let’s address each of these one by one. First securing our next committed customer. Last quarter, I shared details, but exciting opportunities in Romania and Poland. We have continued to make progress with potential customers in both markets and are optimistic that we’ll be able to secure our next committed customer by year-end. In Poland, we have made meaningful steps forward with KGHM a large Polish copper silver producer. On our last call, we mentioned that we have sent our proposal for a full scope to KGHM and that the proposal was under review. Since then, NuScale and KGHM have signed a state commencement to initiate the deployment of the first SMR in that country. We have issued invoices for further development work and KGHM continues to have fruitful conversations with the regulatory authorities in Poland where initial feedback has been positive. In Romania, the U.S. Trade and Development Agency awarded a grant for front end engineering and design work was RoPower Nuclear S.A., a subsidiary of Romania’s State Nuclear Power Corporation SN Nuclearelectrica. The eight-month scope of work includes tasks in the production of deliverables that will define the site in the customer specific inputs for VOYGR-6 SMR power plant that the Doiceşti power station in Romania, a site with a decommissioned coal fire plant and natural gas fire units and represents another step towards a signed commitment. In addition, we’re moving forward with deploying an energy exploration center or E2 control room simulator facility at the University of Bucharest, which establishes the groundwork for Romania to serve as an SMR educational in training hub for young and aspiring engineers in Eastern Europe. Finally, we recently participated in a series of Supplier Day events in Romania in partnership with Nuclearelectrica in Fluor. Engagements like this are a critical first step in leveraging Romania’s local resources in supply chain in the manufacturing and development of our technology. Meanwhile, in the U.S., we continue to move forward with our anchor customer, Utah Associated Municipal Power Systems and their carbon free power project, we will deploy a VOYGR-6 SMR power plant by the end of the decade. Earlier this year, CFPP completed the geotechnic work at the site to support licensing activities, totally more than 47,000 hours of work. The data and site information has been used to complete the project seismic, hydrologic, and volcanic analysis required for the combined license application or COLA to the NRC to be submitted in January 2024. Site work has continued this fall with field surveys being conducted via drones and the site team recently mobilized to conduct groundwater sampling, calibrate the meteorological tower instruments and install grounding rods. Furthermore, key contracts for original equipment manufacturing engineering, procurement in construction, and maintenance and operation contracts are in process of being developed. Looking into 2023 and beyond, our customer pipeline continues to be strong. As I mentioned earlier, interests in our technology intensified throughout the quarter as leaders in industry outside of our sector continue to embrace advanced nuclear solutions for the world’s clean energy needs. Our recent NuScale Symposium in Washington, D.C. a few weeks ago is a good example. We had more than 100 senior level leaders joined from a broad spectrum of domestic and international utilities, power users and ministerial level leaders from countries interest and employee SMR technology. We’re also joined by federal and state officials, a diverse cross section of the international supplier community, as well as the analysts and investors signaling broad interest and support from the required stakeholders needed to finance, manufacture, build, and deploy NuScale’s SMR power plants around the world. Moving on to our second milestone. As we reported last quarter, we have issued the long lead material specifications for the upper reactor pressure vessel, which is a critical element in the procurement and manufacturing process of the NuScale Power Module. We are now working with our key suppliers on further pre-manufacturing activities to ensure that the supply chain is ready to go in anticipation placed long lead material items in the near-term. So we are in good shape here and we’ll continue to advance our manufacturing and supply chain readiness. We discussed on last quarter’s call that our third milestone completing the reactor building design was completed in July. The reactor building is a large robust structure that houses the NuScale Power Modules and is used to ensure maximum safety during normal operations and mitigate the consequences of any potential safety incidents. Given the importance of this structure, completing the design with an important step and supports our efforts in the broader standard plant design process. This brings us to the fourth milestone on our list. Our goal of completing our standard plant design or SPD. Our vendors have submitted over 12,000 deliverables including floor plans, procurement specifications, pipe stress calculations, and heat loads. These deliverables along with a comprehensive plant 3D model, make up the NuScale standard plan design. The completion of the SPD will provide a comprehensive plan design for potential customers to be leveraged and deploying NuScale VOYGR SMR power plants. This means significant savings for our customers, as they can focus their investment in engineering resources on site specific design changes. The designs completion, further advances the commercial viability of NuScale’s technology and we look forward to delivering good news by year-end. Finally, our fifth and last milestone is submitting the standard design approval application or SDAA to the U.S. NRC for the VOYGR-6 SMR power plant. This is a work stream that focuses our 77-megawatt technology. This is not to be confused with our 50-megawatt technology, which has already been received standard design approval from the NRC. As a reminder, we started R&D efforts over a decade ago with a 12-module plant at 50 megawatts for each NuScale Power Module. However, through value engineering efforts, we determine that the same NuScale module can deliver up to 77 megawatts, which would further enhance the use case for our technology. This power upgrade requires relatively minor changes to the physical model and some revisions to the analytical models that have since already been approved or are currently under reviewed by the NRC. There is nothing novel in these methods. And the NRC has great deal of experience with power up rates, so progress has been made on this milestone and we’re still on track to submit the SDAA by year-end. All in all, I am pleased with the advancements that the NuScale team has made towards our 2022 objectives and our broader work towards commercialization. Before I hand it over to Chris, I’d like to highlight a few other important achievements that we accomplished in the quarter. We continue to pursue informed strategic partnerships with entities that could help us provide customers with an integrated solution for the financing, development and management of SMR projects. These partnerships are important because they lower the barriers to entry for prospective customers by enabling us to offer a single source solution for financing and building a NuScale VOYGR power plant. We’re also proud to highlight the NRC issued its final safety evaluation report, which approved NuScale’s methodology for determining emergency planning zone or EPZ for the NuScale VOYGR SMR power plants. As opposed to traditional large scale nuclear power plants, which are required to have an EPZ of 10 miles in the U.S. used a disapproved methodology, NuScale VOYGR power plants can achieve an EPZ limited to the site boundary. This is significant, because it demonstrates the unparalleled safety of NuScale’s SMR design. A smaller EPZ also significantly reduces plant operating costs and further enables the citing of NuScale’s technology where it is needed most. For example, our VOYGR SMR power plants can be installed at retiring coal facilities near high population zones, while other technologies may not. Lastly and critically, the NRC unanimously voted to certify NuScale’s SMR design, noting that it meets the agency’s safety requirements. Completing certification of the 50-megawatt design sets the stage for an efficient and effective review of the SDAA I mentioned earlier, especially since we’ve established alignment with the NRC staff on what a standard design approval application should contain. By being certified, the design now has the approval of the NRC staff, the advisory committee on reactor safeguards in the commission itself. As the first SMR design approved by the NRC, this achievement is a reminder of the unparalleled progress we have achieved towards commercialization. No other SMR technology provider has submitted to the NRC and application seek and design approval. Let alone that approved and certified. So a lot of positive developments in the quarter. Now I’d like to turn the call over to our Chief Financial Officer, Chris Colbert to go over the financial highlights. Chris?