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POWER Engineering
Blackstone Acquires Natural Gas Plant In Virginia’S Data Center Alley
Blackstone Energy Transition Partners have agreed to acquire a natural-gas plant in Virginia’s “Data Center Alley,” the latest example of private investment at the intersection of power generation digital infrastructure. The Potomac Energy Center is a 774 MW natural gas-fired power plant in Loudoun County, Virginia. The northern area of the state represents approximately 25 percent of U.S. data center capacity, and the Potomac plant is located close to over 130 data centers – with significant further growth expected.“We are particularly excited about this investment given the opportunity to supply reliable, baseload power to the region,” said Mark Zhu, Managing Director at Blackstone Energy Transition Partners. “Potomac is one of the most efficient gas power plants in the region and has the potential to integrate a hydrogen fuel blend in the future, which could provide future environmental benefits.” After years of flat load growth on the U.S. grid, electricity demand has increased due to several factors – notably industrial onshoring, widespread electrification and the adoption of AI data centers. Data centers are perhaps the largest driver of this growth, as demand for computing power, fueled by artificial intelligence and other new technologies, requires enormous amounts of power. According to some estimates, data centers are projected to consume 5% to 9% of U.S. electricity generation annually by 2030, up from 4% today. This surging growth is providing more opportunities for investors, especially in natural gas-fired generation. “Many independent power producers (IPPs) and private equity funds are looking to gain exposure to gas fired generation portfolios with the belief that growing power demand will improve their economics,” according to Scott Wilmot, Vice President of Power & Renewables at Enverus. Blackstone is the largest data center investor in the world, with major investments in Northern Virginia and beyond. The firm recently made major investments in AI companies CoreWeave and DDN. Terms of the transaction to acquire the Potomac plant were not disclosed. Santander and Jefferies LLC served as M&A advisors to Blackstone on this transaction.
powerplant
Jan 24, 2025
POWER Engineering
With Trump Pivot Back To Pro-Oil And Gas Policies, One Renewable Energy Finds Favor
By JENNIFER McDERMOTT Associated Press As promised, President Donald Trump began reversing the country’s energy policies his first day in office with a spate of orders largely favoring oil, gas and coal. But there is one renewable energy that did find favor: geothermal. Energy experts say that makes sense — geothermal energy makes electricity 24/7. Many people working in the field came from the oil and gas industry and they use much of the same technology for drilling wells. Trump strongly supports and gets support from the oil and gas industry. And there’s bipartisan support in Congress for geothermal. “The embrace of advanced geothermal under this new administration, I’d say is not a giant surprise,” said Alex Kania, a managing director at Marathon Capital. “It’s reliable, it’s efficient, and frankly their ties to the more conventional forms of energy production, I think, is probably not lost on some people.” Geothermal creates electricity cleanly by making steam from the Earth’s natural heat and using that steam to spin a turbine. It’s a climate solution because it reduces the need for traditional power plants that burn fossil fuels and cause climate change. Trump declared an energy emergency on Monday, and included geothermal heat as one of the domestic energy resources that could help ensure a reliable, diversified and affordable supply of energy. Solar, wind and battery storage were omitted, and wind was singled out in a separate order with measures intended to slow it down. “Geothermal is heating up and the Trump administration is going to empower the industry over the next four years to achieve its potential,” said Bryant Jones, executive director of the geothermal trade association, Geothermal Rising. It’s a vibrant business right now. New geothermal companies are adapting technology and practices from oil and gas to create steam from ubiquitous hot rock. That would make this kind of electricity possible in many more places. The Energy Department estimates the next generation of geothermal projects could provide some 90 gigawatts in the U.S. by 2050 — enough to power 65 million homes or more. Former Energy Secretary Jennifer Granholm supported geothermal as a climate solution. Trump’s pick for energy secretary, Chris Wright, is a fossil fuel executive who values geothermal, too. His company, Denver-based Liberty Energy, invested in Fervo Energy, a Houston-based geothermal company. Wright said at his confirmation hearing that he’s excited about geothermal as an “an enormous, abundant energy resource below everyone’s feet.” Wright’s appointment is a clear signal that this administration will support geothermal, said Terra Rogers, a program director who focuses on the technology at the nonprofit Clean Air Task Force. “He’s well-informed of its risks and opportunities, and continues to be a strong advocate for what it could be,” Rogers said. The United States is a world leader in electricity made from geothermal energy, but it still accounts for less than half a percent of the nation’s total large-scale generation, according to the U.S. Energy Information Administration. The big states are California, Nevada, Utah, Hawaii, Oregon, Idaho and New Mexico, where reservoirs of steam, or very hot water, lie close to the surface. In its first actions this week, the new administration also indicated support for nuclear power and removing obstacles to mining uranium, which can be refined into nuclear fuel. Like geothermal, nuclear power does not cause climate change. The executive order also backs hydropower. Solar is the fastest-growing source of electricity generation in the United States. Trump wants to increase production of oil and gas in order for the U.S. to have the lowest-cost energy and electricity of any nation in the world, he says. He took aim at wind energy, temporarily halting offshore wind lease sales in federal waters and pausing federal approvals, permits and loans for projects both onshore and offshore. Trump says wind turbines are horrible, only work with subsidies and are “many, many times” more expensive than natural gas. Offshore wind is one of the most expensive sources of new power generation, but onshore wind is cheaper than new natural gas plants, according to estimates from the Energy Information Administration. Jones, at Geothermal Rising, said the industry hopes the support for geothermal energy will lead to streamlined permitting, more federal research and tax credits to promote innovation. Sage Geosystems in Houston is a geothermal company launched by former executives at oil and gas giant Shell. CEO Cindy Taff said it’s exciting to see more momentum building for geothermal. She hopes it will spur investment in large projects, including those that meet surging demand for electricity from data centers and artificial intelligence, and projects to make military facilities energy resilient. If geothermal projects could multiply fast across the country, she said, it would bring the cost down, and that would be good for everyone. “This could be the decade of geothermal,” Taff said.
powerplant
Jan 23, 2025
POWER Engineering
Data Center Executives Pivot Toward Onsite Power, Per New Report
Onsite turbines, reciprocating engines and fuel cells will increasingly power data centers, according to a survey by fuel cell manufacturer Bloom Energy. In April and November 2024, Bloom surveyed a range of managers to C-suite executives from hyperscaler and colocation developer companies. The 100 data center leaders make decisions about power systems architecture. Historically, data centers have used onsite power mostly for backup purposes. The shift toward onsite power generation as a primary source of power comes in response to data centers facing grid connection delays. Leveraging onsite power could also ease pressure on the nation’s aging electric grid. In November, data center leaders said they expected approximately 30% of all data center sites to use some onsite power as a primary energy source supplemental to the grid by 2030, 2.3 times more than just seven months earlier. The report noted there were more data center announcements featuring onsite power in 2024 than the previous four years combined. “We were surprised by the pace of change and the growing expectation that onsite power generation will play a greater role in powering data center projects,” reads the Bloom Energy report. Data center leaders also expect power availability to get worse. In the U.S., 55 GW of data center IT capacity is expected to come online in the next five years, according to the report. An additional 35 GW of data center capacity is expected to be announced during that time. Data centers, while not the only reason for load growth in the U.S., are the largest driver. Data centers by 2030 could require 8-12% of the total U.S. demand, compared to 3-4% today, according to the report. As new data center projects struggle to get timely access to power, data center leaders are seeing value differently. Time to power is playing an increasingly important role in this equation. Save the date for DTECH Data Centers and AI from May 27-29, 2025 in San Jose, CA! This new event brings utilities, data center operators and other stakeholders together to discuss the strategies necessary to navigate power constraints, project delays, and the increasing demand for sustainable, flexible solutions. Bloom Energy predicts that their decisions will go beyond traditional factors, like reliability and cost. The company’s report found that leaders are now ready to invest 50% more than seven months ago if that means they can access power faster for upcoming data center projects. “This shift underscores an important insight: being online ahead of competitors is a strategic advantage, particularly for AI data centers,” reads the report. “Leaders recognize that accelerating power access is key to securing a leading position in this rapidly evolving landscape.” Combined-cycle gas turbines (CCGT) are primarily being used in large AI training data centers that require 500 MW or more capacity. Smaller inferencing data centers – focused on the application of trained models – are more often relying on simple cycle turbines, sometimes paired with batteries. While these turbine technologies are currently the most common onsite power solutions, long supply chain lead times and higher carbon dioxide emissions are limiting factors in their adoption. Fuel cells, which convert natural gas or hydrogen into electricity, are gaining popularity in data center projects because they are quick to deploy and produce fewer emissions and less pollution than natural gas-fired turbines. While fuel cells can be more expensive than some other solutions, the Bloom Energy report noted that data center leaders often prioritize them for their faster deployment, easier permitting and greater power density. In November, we reported that AEP agreed to secure up to 1 gigawatt (GW) of Bloom Energy solid oxide fuel cells for data centers and other large energy users who need to quickly power their operations while the grid is still being built out to accommodate demand. Data center leaders are also optimistic about emerging technologies such as geothermal power, small modular reactors (SMRs) and gas generation with carbon capture and sequestration (CCS). Bloom Energy is seeing these technologies appear in data center companies’ long-term roadmaps. The company said recent announcements related to these technologies focus on data centers that are expected to go online after 2030, due to the technologies’ early stage of development.
powerplant
Jan 22, 2025
POWER Engineering
What Waste? Reclaimed Wastewater Will Cool A Florida Natural Gas Plant
A partnership between Florida Power & Light (FPL) and Miami-Dade County has brought “one of the largest” reclaimed water projects in the state online, which will treat up to 15 million gallons of reclaimed wastewater per day to cool the natural gas plant at FPL’s Turkey Point Clean Energy Center. The clean water recovery process begins when reclaimed water travels through an 8.5-mile pipeline into the Biological Nutrient Removal (BNR) basin at the new Clean Water Recovery Center (CWRC). Different treatment zones within the BNR basin remove ammonia and condition solids, which are then clarified. During clarification, phosphorus is removed before the water is chlorinated and stored in two 500,000-gallon tanks. The treated water is ultimately used to supply cooling towers, reducing the need for Floridan aquifer groundwater. In addition to cooling the gas plant, the project is meant to help Miami-Dade County meet reuse requirements under Florida’s Ocean Outfall Legislation, and provide a cost-effective way to reuse treated wastewater which would have likely been discarded otherwise. The Ocean Outfall Legislation requires utilities in Southeast Florida to eliminate the normal use of the ocean outfall, or stop feeding treated wastewater into the ocean, by the end of 2025. Additionally, Florida has its own standards for the amount of treated wastewater that local governments must reuse, the Miami Herald reports. The CWRC project was originally intended to help cool FPL’s two nuclear reactors at the Turkey Point site, but those plans changed before the project’s launch, per the Miami Herald. “There was, in the planning stages, an idea of having it assist, as needed, a backup to the Turkey Point nuclear cooling canals,” an FPL spokesperson told the Miami Herald. “The decision was made not to do that.” FPL and Miami-Dade County have partnered on clean energy projects since 2018, including the Miami-Dade Solar Energy Center, dozens of solar arrays, battery storage projects, shore power for PortMiami, a microgrid at Florida International University (FIU) and a growing electric vehicle charging network. Last September, the U.S. Nuclear Regulatory Commission (NRC) approved the subsequent license renewal for FPL’s Turkey Point Nuclear Power Plant Units 3 and 4, enabling the continued operation of these units through 2052 and 2053, respectively. Turkey Point Unit 3 began commercial operation in 1972, followed by Unit 4 in 1973. Located 25 miles south of Miami, the site sits on 11,000 acres of land. In December 2019, Turkey Point became the first nuclear plant in the United States to receive subsequent license renewal approval for an additional 20 years; however, in 2022, the NRC concluded that its general environmental review under the National Environmental Policy Act required additional information and, consequently, resetting the previous operating license expiration dates of 2032 and 2033.
powerplant
Jan 21, 2025
POWER Engineering
Oklo And Rpower Team Up On Gas, Power Solutions For Data Centers
Oklo, an advanced nuclear power and nuclear fuel recycling company, has signed a memorandum of understanding with RPower, a provider of onsite prime and backup power solutions, to deploy a phased power model for data centers. The model combines immediate energy deployment using RPower natural gas generators with a planned transition path to energy from Oklo’s Aurora powerhouses, with the goal of eliminating reliance on diesel generators and supporting scalable, sustainable operations. “This collaboration aims to ensure that data centers can access reliable energy today while building a clear and practical pathway to clean energy in the future,” said Jacob DeWitte, Co-Founder and CEO of Oklo. “With a growing customer pipeline and a current order book of 14 gigawatts of energy, we are thrilled to work with RPower to address both immediate and long-term energy challenges.” Once implemented, the phased power model is expected to work in three stages. Initially, RPower’s natural gas generators will be deployed within approximately 24 months, depending on site conditions, to meet immediate power needs for data centers that the local utility cannot serve. Next, the plan is to add Oklo’s advanced nuclear power solutions, the Aurora powerhouses, which depends on the advanced reactors becoming commercially available. Finally, over time, the Aurora powerhouses will supply the majority of the energy needed, transitioning the RPower natural gas generators to backup and resilience roles and allowing RPower to provide extra power to the local grid in times of need. Data Center Developers: The POWERGEN International exhibition and summit has you covered! An Oklo-sponsored session, How To Deploy Advanced Nuclear in 36 Months, will explore how advanced nuclear can deliver affordable, reliable, and sustainable energy for data centers. Prefabricated designs enable deployment in just 36 months, self-cooling technology ensures safety without human intervention, and the ability to recycle nuclear waste transforms liabilities into assets. Register now and join us from February 11-13, 2025, in Dallas, TX! This relationship aims to offer a comprehensive, turnkey solution and speed to market for data centers and other large energy users. Oklo and RPower intend to work together to deploy this phased power strategy on behalf of their respective existing customers as well as new customers who could benefit from the combination of immediately deployable natural gas generation with the ability to transition to nuclear energy solutions in the future. “Our relationship with Oklo represents a powerful way to bridge today’s energy demands with tomorrow’s clean energy solutions,” said Jamie Smith, COO of RPower. “We are excited to bring this phased model to market, providing valuable and timely energy solutions to our customers while advancing their sustainability goals.” Oklo sees the huge growth of data center development as an opportunity. Last November, the company announced it has received letters of intent (LOIs) and is partnering with two major data center providers to deliver up to 750 megawatts (MW) of power for data centers across the U.S., expanding Oklo’s customer pipeline to approximately 2,100 MW. Under these LOIs, Oklo will work with “one of the fastest-growing data center companies,” otherwise unnamed, to deploy its powerhouses in select markets. Oklo said this collaboration supports its expanding footprint, including its announced sites in Idaho, Ohio, Texas, and Wyoming. Oklo’s Aurora powerhouse design provides power directly on-site or nearby, with 15 MW and 50 MW units that can be deployed in phases. This approach aims to minimize project risks and reduce financing costs. Last summer, Oklo announced it had non-binding letters of intent for about 1,350 MW of microreactor capacity, a 93% increase from its 700 MW project pipeline in July 2023. Of the 650 MW announced during the second quarter of this year, 600 MW were for data center projects. Earlier last year, Oklo signed a pre-agreement with data center colocation company Equinix to provide up to 500 MW of nuclear power. The company has signed an LOI with Wyoming Hyperscale to deliver 100 MW through its data centers. Oklo is developing next-generation nuclear power plants called “powerhouses.” The company’s Aurora powerhouse design is a fast neutron reactor that would transport heat from the reactor core to a power conversion system and is designed to run on material from used nuclear fuel known as HALEU, or “high assay, low-enriched uranium.” The reactor builds on the Experimental Breeder Reactor-II and space reactor legacy. Oklo’s first Aurora powerhouse is targeted for deployment in 2027 at the Idaho National Laboratory (INL). Oklo obtained a site use permit from the U.S. Department of Energy (DOE) for the INL site in 2019. The company applied with the U.S. Nuclear Regulatory Commission (NRC) in March 2020 to build and operate the INL reactor. This was the first combined license application ever accepted by the NRC for an advanced non-light water reactor. The company plans to build its second and third plants in southern Ohio, on land owned by the Southern Ohio Diversification Initiative (SODI). Last year, Oklo entered into land agreements with SODI, which built on the companies’ initial agreement from May 2023.
powerplant
Jan 17, 2025
POWER Engineering
Ge Vernova Is Closer To Commercializing Its 100% Hydrogen-Fueled Dry Low Nox Combustor
GE Vernova announced the completion of the validation test campaign for its Dry Low NOx (DLN) hydrogen combustion technology for B- and E-class gas turbines. The test campaign, conducted at GE Vernova’s Global Technology Center in Greenville, South Carolina, demonstrated successful operation on natural gas and hydrogen blends and on 100% hydrogen with dry emissions below 25ppm NOx, the company said. GE Vernova currently plans to make the new DLN system available for new and existing B- and E- gas turbines as early as 2026. “Developing a DLN combustion system able to burn 100% hydrogen safely and reliably is an engineering challenge,” said Jeremee Wetherby, Carbon Solutions leader, GE Vernova. “One of the ways hydrogen fuel differs from natural gas is that it burns much faster. Its flame speed is roughly eight times higher and presents risk of flashback. Through the test campaign, the GE Vernova team demonstrated very robust operation for the new DLN technology, without flash- back across a range of loads and fuel from pure natural gas to 100% hydrogen.” While combustion dynamics or noise can be challenging with hydrogen operation, GE Vernova said the prototype performed “very well” in that category with relatively low levels, even when operating on pure hydrogen. The company added that test results seem to indicate that the technology can deliver higher availability and longer maintenance intervals comparable to current DLN combustors operating on natural gas. A new micromixer-based fuel air pre-mixer is foundational to the prototype combustor capability. GE Vernova’s research on micromixer technology started in 2005 as part of collaboration with the US Department of Energy. Micromixer-based fuel premixers have been part of the product portfolio for over 7 years, notably on GE Vernova’s H Class gas turbine fleet. Recent research conducted at GE Vernova’s Advanced Research Center in NY and at the Global Technology Center in Greenville, SC focused on improving micromixer and axial fuel staging for hydrogen capability. This research culminated with the construction of a full size 6B DLN combustor prototype and testing in full scale conditions (pressure, flow, temperature) in the combustion test facility in Greenville, SC. GE Vernova’s industrial gas turbines (B- and E-Class) have an installed base of approximately 2,800 units around the world powering industrial processes and operations around the clock. Hydrogen combustor options already exist today with ratings up to 100% hydrogen, however existing combustors use a diluent like water to manage emissions. GE Vernova argues the new H2 DLN combustor technology is expected to present several benefits versus the existing systems: “Through successful tests GE Vernova validated this new 100% hydrogen capable combustion technology, aiming to provide our B- and E-class industrial gas turbines owners with the maximum flexible operability range on natural gas, hydrogen or blends of both without the use of diluent like water for emissions abatement,” said Wetherby.
powerplant
Jan 15, 2025
POWER Engineering
Investors, Ipps See Opportunities In Natural Gas Generation
With lucrative renewable tax credits and rising electricity demand forecasts, the U.S. power market remains highly desirable for international investors. The latest action took place this week, when a subsidiary of the Abu Dhabi Investment Authority (ADIA) agreed to make a $500 million minority investment in AlphaGen, one of the largest independent power portfolios in the U.S. AlphaGen, led by former Vistra CEO Curt Morgan, was formed by ArcLight Capital Partners about a year ago. The 11 GW power portfolio includes 22 natural gas- and oil-fired plants in California and the Northeast. The ADIA investment remains subject to regulatory approvals and is expected to close in the first half of 2025. As Scott Wilmot of Enverus noted, large international companies are making significant investments to establish growth platforms and capitalize on the market trends mentioned above. This includes Repsol’s $700+ million acquisition of ConnectGen and Engie’s $1 billion purchase of Broad Reach Power in 2023. “With these dynamics and the growing influence of artificial intelligence, we expect the U.S. to remain a key target for international investors,” said Wilmot, who is Vice President of Power & Renewables at Enverus. International investor or otherwise, the mega trends of cheap, incentivized renewables and surging demand growth continue to drive investment and Merger & Acquisition (M&A) activity in the power generation market More recently, Enverus is seeing increased interest in reliable gas generation capacity. “Many independent power producers (IPPs) and private equity funds are looking to gain exposure to gas fired generation portfolios with the belief that growing power demand will improve their economics,” said Wilmot. While Wilmot notes 2022-2023 was focused on renewables, more recent deals like TransAlta’s Heartland acquisition (Nov 2023), Capital Power’s $1.1 billion investment in California and Arizona assets (Nov 2023) and Quantum’s $3 billion dollar acquisition of Cogentrix (Aug 2024) highlight the growing interest in gas-fired assets. Last week, Constellation announced the acquisition of Calpine in what becomes one of the biggest in the history of power generation. Constellation already owns and operates the largest fleet of nuclear plants in the United States. It now plans to bring aboard Calpine’s fleet of 78 energy facilities – including natural gas-fired, geothermal, solar and battery storage, representing around 27,000 MW of capacity. Wilmot also said there has been a shift in policy to support new natural gas builds, such as the Texas Energy Fund. The program provides 3% interest loans to build or upgrade gas-fueled power plants — an idea lawmakers passed after the 2021 winter storm overwhelmed the state grid, triggering blackouts that left millions of Texans without electricity or heat for days in freezing conditions.
powerplant
Jan 14, 2025
POWER Engineering
Constellation To Acquire Calpine For $16.4B In Massive Power Generation Deal
Editor’s Note: This is an update from a previous version of the story published January 9. Two of the largest U.S. power generating companies are officially merging together. Constellation Energy plans to acquire Calpine in a cash and stock transaction valued at an equity purchase price of approximately $16.4 billion. Constellation will assume approximately $12.7 billion of net debt from Calpine. After accounting for cash that is expected to be generated by Calpine between signing and the expected closing date, as well as the value of tax attributes at Calpine, the net purchase price is $26.6 billion, the companies report. Previous reports had valued the deal at approximately $30 billion, including debt. The deal becomes one of the biggest in the history of power generation at a time when demand for electricity has exploded. Constellation already owns and operates the largest fleet of nuclear plants in the United States. According to its website, Calpine has a fleet of 78 energy facilities – including natural gas-fired, geothermal, solar and battery storage, representing around 27,000 MW of capacity. Calpine holds a majority stake in “The Geysers,” a collection of 19 geothermal power plants outside Sonoma, California that is collectively the largest producer of geothermal power in North America, at 725 MW. Calpine is also running carbon capture pilot projects at multiple gas-fired plants in the U.S. The Houston-based company went private in 2017 in a $17 billion deal. Constellation sees the deal as a chance to expand its power generation portfolio in a time a record electricity demand growth. After years of flat demand, electricity load growth forecasts have exploded, largely driven by data centers, industry and electrification. “By combining Constellation’s unmatched expertise in zero-emission nuclear energy with Calpine’s industry-leading, best-in-class, low-carbon natural gas and geothermal generation fleets, we will be able to offer the broadest array of energy products and services available in the industry,” said Constellation President and CEO Joe Dominguez. The transaction is expected to close within 12 months of signing, subject to customary conditions.
powerplant
Jan 10, 2025
POWER Engineering
Powergen Session Spotlight: A Hydrogen-Blending Solution In Texas
As energy demand surges in Texas, the challenge of balancing reliable power with ambitious emission reduction goals takes center stage. At POWERGEN International 2025, Kurt Lyell, Solar Program Manager at HDR, will unveil an innovative concept that could redefine carbon-neutral energy solutions. “The most pressing challenge in the utility industry is balancing cost efficiency with environmental sustainability,” Lyell told Power Engineering. “As the sector transitions to cleaner energy, this balance is crucial for long-term viability and public support.” In his session, part of the show’s Unlocking Hydrogens Power Potential track, Lyell will present a case study on a 400 MW natural gas peaking plant integrated with a green hydrogen facility in West Texas. This design envisions harnessing the state’s abundant solar and wind resources to produce green hydrogen, which would then be blended into existing natural gas pipelines. Over a year, the energy from hydrogen would offset the plant’s natural gas consumption, achieving carbon neutrality without sacrificing operational efficiency. Lyell’s presentation will explore the project’s economic feasibility, exploring the levelized cost of energy and potential pathways for large-scale hydrogen adoption. He said attendees will understand the key challenges, including infrastructure adaptation and regulatory hurdles. Lyell brings over two decades of experience in renewable energy development worldwide. His session, A Hydrogen-Blending Solution in Texas, is scheduled for Tuesday, February 11, from 3 pm to 3:45 pm. POWERGEN is February 11-13 at the Kay Bailey Hutchison Convention Center in Dallas. Register for the POWERGEN technical conference program here.
powerplant
Jan 10, 2025
POWER Engineering
Eight Indiana Coal Sites Offer ‘Intriguing Opportunities’ For Nuclear Plants, Per New Purdue Study
by Casey Smith, Indiana Capital Chronicle A new, quietly-released study showed that small nuclear reactors could present “substantial opportunities” for Indiana to meet its energy demands, and identified eight current or former coal sites across the state that could serve as coal-to-nuclear opportunities. Purdue officials announced in May that the university was selected to study small nuclear technology and how it can potentially be used to power Indiana in the future. The university previously released a separate study on nuclear energy feasibility at its West Lafayette campus. In the state-funded report, released by the Indiana Office of Energy Development in November, researchers lauded small modular reactors, or SMRs, as “24/7 dispatchable sources” of carbon-free electricity that have the capacity to meet the state’s growing energy needs. The state office granted Purdue’s team $300,000 to complete the report, according to Indiana’s Transparency Portal. The study described SMRs as compact nuclear reactors — smaller than traditional nuclear power plants — that can generate up to 500 megawatts of electrical power. The International Atomic Energy Agency cites a lower range, qualifying SMRs as producing under 300 megawatts. Indiana law defines SMR power capacity up to 470 megawatts. The federal government hasn’t settled on a firm definition. The smaller reactors are designed to offer “scalable energy solutions” with “enhanced safety features” compared to traditional nuclear plants, researchers said. Currently, no electricity-generating nuclear power plants exist in the state, though there is one major nuclear manufacturing facility located in Mount Vernon, in southwestern Indiana. And of the few projected SMR sites across the United States — and the world — none are currently operational. Major Indiana employer Rolls Royce is developing an SMR. Much of Indiana’s electricity continues to come from coal, and state lawmakers have been slow to commit to other energy options. Proponents say the new technology is cheaper and safer than larger nuclear reactors currently in use today. But upfront adoption costs can balloon, and some scientists and environmental groups are concerned that operating expenses are actually much higher, and worry that SMR plants are more dangerous than developers let on. Even so, Purdue researchers said SMRs are a missed opportunity, and that coal-to-nuclear could help Indiana tap into an energy supply — with the benefit of net-zero carbon emissions. “SMRs present a viable opportunity for Indiana to transition to a cleaner, resilient, and diversified energy future,” researchers said within the study. “By addressing the outlined challenges — construction costs, supply chain constraints, regulatory compliance, workforce training, and community engagement — Indiana could position itself as a leader in next-generation nuclear technology while creating economic opportunities and ensuring energy security.” The total amount of electricity generated within Indiana has fallen by 26% over the past two decades, the study noted. Electricity consumption, however, has only decreased by 3% over the same time period. In 2023, Indiana was the nation’s second-largest coal consumer, after Texas, according to the U.S. Energy Information Administration. Coal fueled 45% of Indiana’s electricity net generation that year, the seventh-highest share of any state. Purdue researchers noted that Indiana’s energy demands are expected to increase by up to 3% from 2022 to 2030, “a big change compared to the 0.2% annual growth rate over the prior decade.” Over the long term, SMRs can “mitigate the economic impacts of closing a coal plant,” and open the door to “significantly cheaper” energy, they said. Researchers pointed, too, to high-paying jobs during both the construction and operation of the facility, an increase of the tax base in the state, and the potential to boost employment throughout Indiana by various supply chain providers, including in nuclear manufacturing. The study cited just two projects currently in the planning phases for coal-to-nuclear conversion: one sought by Duke Energy in North Carolina, and another planned by TerraPower in Wyoming. In Mount Vernon, BWX Technologies currently makes the large components of naval nuclear reactors, including the reactor vessels and parts of the steam generator. They also complete the final assembly of the naval nuclear reactors on site before shipping them out to customers. The Virginia-based company recently conducted a study to explore development of SMR reactor vessels in their Indiana plant. They’ve so far determined that manufacturing those reactor vessels would require construction of an entirely new, $80 million, 120,000-square-foot facility. It’s not clear whether the company will seek out any SMR projects in Indiana. Separately, officials at Rolls Royce, which has a major manufacturing footprint in Indiana, said they’re exploring construction of an SMR with a capacity of up to 470 megawatts. The British engine maker was the driving force behind a 2023 amendment to state law that increased permitted SMR electric generating capacity from 350 to 470 megawatts. The Rolls Royce project is also early-stage and could take nearly a decade to come to fruition. A U.S. Department of Energy report published in 2022 found that Indiana has 8 to 10 coal plants suitable for the development of nuclear plants. Only Texas has more, with up to 15 suitable coal power plant sites. The Purdue study made similar findings, identifying eight coal sites to be suitable for SMR development, including six existing and two recently retired coal plant sites. An additional eight sites within Indiana passed the researchers’ highest level of technical screening but have one or more factors — like high population density within a four-mile radius of a site, increased potential for earthquakes, location within a 100-year floodplain, nearby hazardous facilities, too few available tax incentives and a lack of water resources — that would make the locations less ideal. Cost-wise, researchers said that operating a nuclear power plant tends to be “about half” of the operating cost of a gas turbine plant or coal plant of the same size. A nuclear plant typically creates twice the number of local jobs compared to a similarly sized coal plant, with SMR workers earning 18% more than coal plant workers on average, researchers said. A nuclear power plant’s revenue is also estimated to be about 78% higher than a coal plant “because nuclear plants have a higher capacity factor.” In total, the economic output of a 300-500 megawatt nuclear power plant was typically two times higher than the economic output of a coal plant of the same size in communities with more than 90,000 people, according to the study. Among other benefits, using existing coal sites minimizes environmental impacts and allows SMR projects to take advantage of infrastructure that’s already there — such as roads, water, grid interconnection equipment, office buildings, fencing and security, according to the report. Additionally possible is the reuse of coal plant components like heat sinks and electric plant equipment. Plus, when a coal plant is replaced with nuclear, “it is replacing a baseload power resource directly and can serve the same load as the coal plant served previously,” researchers said. Although the study found that small nuclear reactors “show promise,” their deployment is not without challenges. Construction costs remain high, especially for first-of-a-kind units, which have unique challenges and higher upfront costs, researchers said. Around 50% of total SMR costs are attributed to reactor plant equipment. Because that equipment is “the most novel,” it can also be challenging to procure. Still, the study highlighted that subsequent “nth-of-a-kind” units are expected to be “significantly cheaper as experience and efficiencies improve.” Supply chain stability is another major challenge. High-cost components, like reactor vessels and turbines, require reliable supply networks — which is likely to necessitate multi-state or multi-company orders to be cost-effective. Careful planning will additionally be required to navigate federal and state regulatory frameworks, researchers emphasized. Currently, each SMR installation must meet “stringent safety and environmental standards.” SMR deployment will require “comprehensive feasibility studies, regulatory alignment, workforce development, and robust community engagement” for the technology to be “safely and successfully integrated into Indiana’s energy portfolio,” researchers continued. The study recommended that Indiana leaders create a “broad-based program or incentive” that drives nuclear component manufacturing in-state, where possible, “and when the opportunity is significant and justified.” Hoosier energy stakeholders should proceed with feasibility studies, build partnerships for SMR development and prioritize stakeholder engagement, researchers advised. More specific recommendations include the development of educational resources to help explain the benefits of nuclear energy and minimize “perceived” safety and environmental concerns; updates to existing state requirements to help bolster SMR construction, especially at existing or retired coal plants; and taking advantage of existing supply chain resources within the state “to ensure Indiana’s economy benefits from SMR construction anywhere in the nation.” Indiana Capital Chronicle is part of States Newsroom, a nonprofit news network supported by grants and a coalition of donors as a 501c(3) public charity. Indiana Capital Chronicle maintains editorial independence. Contact Editor Niki Kelly for questions: [email protected].
powerplant
Jan 09, 2025