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2026.03.22 · 21:25 UTC

Decentralized Power & Geopolitical Realignments: The Economic and Policy Impact of Early SMR Deployments on National Energy Sovereignty (2026-2028)

The global energy landscape is currently undergoing a structural transformation. Policymakers and energy analysts globally are demonstrating a growing interest in the potential of SMRs as a competitive, low-carbon technology component of future integrated energy systems [cite: 1]. As nations seek to balance the trilemma of energy security, environmental sustainability, and economic growth, SMRs offer a unique value proposition. They are physically much smaller than traditional reactors—producing up to 300 megawatts of electricity (MWe)—which allows their components to be factory-assembled and transported to a site for installation [cite: 2].

Why you should care: As artificial intelligence, hyperscale data centers, and blockchain ecosystems exponentially increase global energy consumption, SMRs offer the only decentralized, highly reliable, zero-carbon baseload capable of sustaining next-generation financial services infrastructure without compromising ESG mandates or exposing institutions to geopolitical energy volatility.
FUTURE TRENDSSMRS & ENERGYPOST-GLOBALISM ECONOMICS
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The deployment of SMRs is not merely a domestic infrastructure upgrade; it is a profound geopolitical maneuver. Over the past decade, China and Russia have systematically cornered the nuclear construction industry, utilizing state-funded nuclear exports as potent tools of geopolitical diplomacy to lock developing nations into century-long strategic partnerships 3, B9lGQBUFveSSIiz6xpr3WU48scI1jJT7vBtirubz3Ge1n7VYwJpPH6dSvP7OO4kqV6QhWpihziRhXdrUBAC1QzWKOlozYOmmW2Ip3sXiIf9t5ecYAfg4NGCr82-gK4FNx9vSBgBLvRplxEAtV9XdJRQWRVpZOt8KjC0N" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">fastbull.com">4]. The urgent push by the United States, the United Kingdom, Canada, France, and Japan to deploy SMRs by the late 2020s represents a coordinated effort to break this duopoly and re-establish the West as the premier provider of clean energy technologies 5, H3WvclHR49GptW6x73vLQDUHqF4RYXwaiyPFdxj5OrvkbpxP1OsXujBe0KJxZFIbbWh17LrH8RP3v2cMn4hgpduJ6A==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">jaif.or.jp">6].

Economic and Financial Paradigm Shifts

Utilities and private investors face a financial challenge when considering potential first deployments of SMRs due to the inherent risks of novel technology 7]. However, the economic multipliers are vast. Deployment of SMR fleets is expected to drastically increase national GDPs, create tens of thousands of skilled jobs, and provide decades of economic stability for host communities 8, y38HkC3xf9-QfSMxpaRNX5wpFpsWFE8JYKajSvabAOQIllgW2RapivtOlgPuxEVRC98x5rO-tNPJzBhxWGJfg-BFoxKNxrhfsA8JbnpUnmAVkFbrH4C6pa2D-8WaqC8hzoJMENB6CC6rZeCz9E=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">opg.com">9]. Public-private partnerships, supported by government grants, loan guarantees, and newly formulated tax credits, are proving essential to de-risk these early projects and attract institutional capital 7, OaoWZO5Afxl9qBsBHRSkchR4hql4LuxvztTXjuZp3NIuNXw1GOMjUycyaB0T5TjfUGtWszzYzD5bUymf56QA5inD4ydK4DByTMJ0zs7YAjqFE0-izQkxVslsJtwcYIhq3B4tI79Ipee-GjmqqsTIVICmqRvIw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">iea.org">10].

[1] Introduction: The Strategic Imperative of Small Modular Reactors (SMRs) [source]

The global energy transition has reached a critical bottleneck. While intermittent renewable energy sources such as wind and solar have seen massive deployment over the past decade, the fundamental need for stable, dispatchable, zero-carbon baseload power has never been more acute. Global electricity demand is projected to increase by more than 50% by 2050, and data centers could consume twice as much electricity by 2026, driven largely by the surge in AI, cryptocurrency, and electric vehicles 2, gQ=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">strategyinternational.org">11]. In this hyper-digitalized context, Small Modular Reactors (SMRs) are emerging as the definitive technological breakthrough for achieving national energy sovereignty and grid resilience 11].

Between 2026 and 2028, the world will witness the translation of SMR technology from the drafting table to the construction site. These years are poised to be the most consequential in the history of modern nuclear energy, featuring Final Investment Decisions (FIDs), regulatory construction permits, and the first concrete pours for commercial SMRs in North America and Europe 12, DKqnES9O9s8VCh-QyTxAubSqUWCyPsjpOYnXYEXRIM55KDq1PyqgRbCZOTXaaCPRHhaJJIMWTh9-bWGpsJkKAuu4cFwY8w-PBmqinystKU7ZENbqQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">opg.com">13]. SMRs differ fundamentally from the gigawatt-scale behemoths of the 20th century. By leveraging modularity, factory-based manufacturing, and passive safety systems, SMRs promise to drastically reduce the prohibitive upfront capital costs and decades-long construction schedules that have historically crippled the nuclear industry 1, Ws8m1VQUCzE-qMUeaMre7o-MmemQCx1b300wTHm7pJxny0iPlGUkluCqF4EcszEADymuAMkZfoC4pS3qOgIDAQs-WVafRyENausQVEf7VGOncGiybBlAnsc8NwOe3_sOr0h0EFobD-bZyuZQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">energy.gov">14].

However, the rapid acceleration of SMR policy and investment is not solely driven by climate change; it is deeply rooted in a post-globalized geopolitical reality. The realization that energy dependency translates directly into geopolitical vulnerability has spurred Western nations to accelerate domestic SMR programs. This deep research report systematically unpacks the economic mechanics, financial structures, geopolitical ramifications, and national policy frameworks that will define the early era of SMR deployment from 2026 to 2028, providing a comprehensive guide for leaders navigating the future of energy infrastructure.

[2] Overview of SMR Technology and Strategic Advantages [source]

[2] 1 Technical Fundamentals and Modularity [source]

Small Modular Reactors are officially defined by the International Atomic Energy Agency (IAEA) as advanced nuclear reactors that have a power capacity of up to 300 MW(e) per unit, which is about one-third of the generating capacity of traditional nuclear power reactors 1, IbbJgSdENaNy8fJyH7yuI-PZaTBMnE7bNm79nwnqMoqxMgsWC3As723liTOMEP0ocs6Cp-mdgJ6QBavl8zHH2f4BjtlN0Tvloyvrwi2fEvfddbUdVBM4GZPFwTqxf6hXCw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">gensler.com">2]. The strategic advantage of SMRs lies in the word "modular." Unlike conventional nuclear power plants that are bespoke, site-built megaprojects, SMRs are designed so that major components of the nuclear steam supply system can be fabricated in a controlled factory environment and shipped to the point of use 14].

This manufacturing model introduces economies of multiples rather than economies of scale. While large reactors rely on massive size to bring down the cost per megawatt, SMRs aim to achieve cost competitiveness through design standardization, supply chain optimization, and serial factory production 15]. A key differentiator of these advanced systems is their reliance on inherent and passive safety features. In the event of an emergency, these systems rely on the laws of physics—such as natural circulation, convection, and gravity—to automatically cool the reactor without the need for external power or operator intervention, vastly reducing the risk of a core meltdown and allowing for smaller emergency planning zones 16, 0ePDklv-ET" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">advancedenergy.org">17].

[2] 2 Siting Flexibility and the "Coal-to-Nuclear" Transition [source]

One of the most profound strategic advantages of SMRs is their siting flexibility. SMRs can provide power for applications where large plants are not needed or where sites lack the infrastructure to support a gigawatt-scale unit 14]. This flexibility has opened a massive global market for repurposing decommissioned or retiring coal-fired power plants.

According to a comprehensive report by the OECD Nuclear Energy Agency (NEA), SMRs could replace up to 450 GW of coal-fired capacity worldwide by 2050—more than today's entire operating nuclear fleet 18, FSrVKbDSzFJFO7oT-Pa7OQCYudQ3DFHgNwq80obwj9qBqxF8Iht5lbgCis9NRlGkvowue9fLWuX8-oAx1UtLHFBmIk8oHuKsnugst-0Nb-SMwCW6N9mvtaq5Q8y6wiMa2M6FHHFH2r1X7fyL-UNbI2xng==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">foronuclear.org">19]. The study identified an immediate global replacement potential of 143 GW by 2035, with North America (primarily the U.S.) accounting for 65% of this near-term opportunity 18, FSrVKbDSzFJFO7oT-Pa7OQCYudQ3DFHgNwq80obwj9qBqxF8Iht5lbgCis9NRlGkvowue9fLWuX8-oAx1UtLHFBmIk8oHuKsnugst-0Nb-SMwCW6N9mvtaq5Q8y6wiMa2M6FHHFH2r1X7fyL-UNbI2xng==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">foronuclear.org">19].

Transitioning from coal to nuclear delivers superior long-term value. Replacing a coal plant with an SMR allows developers to reuse existing grid connections, transmission lines, cooling water infrastructure, and site permits 20, 3iab-1HBuK9WX4wiqnPDnjdXkwSFldyMcJRuxXLZe9uPawLaetfmDWyIPGzQ4IMROPzsvmHK88jBd4wrZaFF32Yne9xb6vgPjz8ii0QSo8-ChmusWHyAjbTthJs8qNijIhEffE3LzWzpMPtCxAHsB542Zt86ttiD8GBR1lMvNOeAIlAL90xJftOO" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">oecd-nea.org">21]. This reuse yields estimated capital cost savings of 15–35% compared to greenfield nuclear builds 20]. Furthermore, coal-to-nuclear conversion offers deep cuts in CO₂ and air pollution while preserving high-wage jobs in communities that would otherwise face economic devastation from coal plant closures 19, 3iab-1HBuK9WX4wiqnPDnjdXkwSFldyMcJRuxXLZe9uPawLaetfmDWyIPGzQ4IMROPzsvmHK88jBd4wrZaFF32Yne9xb6vgPjz8ii0QSo8-ChmusWHyAjbTthJs8qNijIhEffE3LzWzpMPtCxAHsB542Zt86ttiD8GBR1lMvNOeAIlAL90xJftOO" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">oecd-nea.org">21].

Coal-to-Nuclear Transition MetricsProjection Data
Total Global Replacement Potential by 2050450 GW 18]
Near-Term Potential (by 2035)143 GW 18]
North America Share of Near-Term Market65% (approx. 104 GW) 19, energyinst.org">22]
Estimated Capital Cost Savings vs Greenfield15% - 35% 20]
Environmental ImpactReduces emissions from ~820 gCO₂/kWh to ~10–50 gCO₂/kWh 20]

[3] Detailed Analysis of Economic Impacts [source]

The deployment of SMRs between 2026 and 2028 will initiate a cascade of economic benefits for early adopter nations, fundamentally reshaping regional economies through intense capital investment, job creation, and the establishment of highly specialized supply chains.

[3] 1 Capital Costs, LCOE, and Financial Competitiveness [source]

The primary metric used by utilities and investors to compare energy generation technologies is the Levelized Cost of Energy (LCOE), which measures the total cost of generating electricity over a plant's lifetime, incorporating construction, operation, maintenance, and fuel 23, XiA90oCgc5wZSx96neDCmKMgirv9K-O67P02-EhTJNH3b9d-6utrS4I3Nz9qqsrlTegF00G6HDbXfNirIeXXxzI1KTcQNgUBXzEvGfT5YaeTl4ZkqCuYiRtXHZVPiM8HAjFk-Gz6lcPk0aeUR-0WBaJyOnJ3v11Oz15GcXLYxz3sXW0w==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">forbes.com">24].

For SMRs to become a mainstream energy solution, they must hit competitive LCOE targets. Current analyses suggest that mature, Next-of-a-Kind (NOAK) SMRs are aiming for an LCOE ranging from $50 to $120 per MWh 15, qNx8fUf49srgpLcIvgWwAyEVNRTcZ3LkjsEFKAiJfCrKokV3vG-Z89a7OALjvF3B9whswV7Lx4RvCzPdEIe23JaabXMio60HoXUJhF93ACb9d14FSjOkmd0HPBE8CfQvodsc9A=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">navajo.republican">20]. While utility-scale solar and wind currently boast lower raw LCOE numbers (often between $30 and $96 per MWh), these figures frequently exclude the heavy system-level costs of battery storage and grid-firming required to manage their intermittency 15, XiA90oCgc5wZSx96neDCmKMgirv9K-O67P02-EhTJNH3b9d-6utrS4I3Nz9qqsrlTegF00G6HDbXfNirIeXXxzI1KTcQNgUBXzEvGfT5YaeTl4ZkqCuYiRtXHZVPiM8HAjFk-Gz6lcPk0aeUR-0WBaJyOnJ3v11Oz15GcXLYxz3sXW0w==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">forbes.com">24]. When system integration costs and the 60-to-80-year operational lifespans of nuclear plants are factored in, SMRs become highly competitive 20].

However, First-of-a-Kind (FOAK) SMRs will initially face high costs. The learning curve effect will be critical; Wood Mackenzie expects LCOE of around $180/MWh for FOAK SMRs, but projects a reduction of 40% to $100/MWh by 2030, driven by innovation and scaling up 25]. Analysts note that an initial deployment of 10 GW to 20 GW of installed SMR capacity is required to flatten the learning curve and fully realize the economic benefits of mass production 25].

[3] 2 Job Growth and Workforce Development [source]

The domestic manufacturing, construction, and operation of SMRs represent a massive engine for job creation. Economic modeling demonstrates that nuclear power generates more high-paying, long-term jobs per megawatt than any other energy source.

A foundational economic impact study indicates that a prototypical 100 MW SMR costing $500 million to manufacture and install on-site is estimated to create nearly 7,000 jobs (including direct, indirect, and induced employment) 16, y2C5B5IVlcuD1ZLRoZSoVaFXLeWaD11M12iffkhTOiJ9Q3ZSQtuafnPlL4U9yQV9GLY-KsuJOwzsmHY5whUDdqf1VJBCyMD9Lsie-fN41PQQVam4-vvsaAt31F67F3baeVGxGfh8MqGcvRHRFqX8hk-11hANnMOkZt5WCkJROmuqGNKfmD0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">trade.gov">26]. Furthermore, this single 100 MW unit is projected to generate $1.3 billion in sales, $627 million in value-added economic impact, $404 million in payroll earnings, and $35 million in indirect business taxes during its manufacturing and construction phase 16, y2C5B5IVlcuD1ZLRoZSoVaFXLeWaD11M12iffkhTOiJ9Q3ZSQtuafnPlL4U9yQV9GLY-KsuJOwzsmHY5whUDdqf1VJBCyMD9Lsie-fN41PQQVam4-vvsaAt31F67F3baeVGxGfh8MqGcvRHRFqX8hk-11hANnMOkZt5WCkJROmuqGNKfmD0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">trade.gov">26].

Once operational, the economic benefits continue to compound. The annual operation of each 100 MW SMR unit is estimated to sustain about 375 jobs and generate $107 million in local economic sales 16, y2C5B5IVlcuD1ZLRoZSoVaFXLeWaD11M12iffkhTOiJ9Q3ZSQtuafnPlL4U9yQV9GLY-KsuJOwzsmHY5whUDdqf1VJBCyMD9Lsie-fN41PQQVam4-vvsaAt31F67F3baeVGxGfh8MqGcvRHRFqX8hk-11hANnMOkZt5WCkJROmuqGNKfmD0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">trade.gov">26]. Because SMRs have operational lifespans of 60 to 80 years, these facilities provide decades of economic stability and consistent tax revenues, fostering career growth across a dynamic field of engineers, technicians, and safety inspectors 8, qNx8fUf49srgpLcIvgWwAyEVNRTcZ3LkjsEFKAiJfCrKokV3vG-Z89a7OALjvF3B9whswV7Lx4RvCzPdEIe23JaabXMio60HoXUJhF93ACb9d14FSjOkm_d0HPBE8CfQvodsc9A=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">navajo.republican">20].

[3] 3 Regional Development and Industrial Revitalization [source]

The macroeconomic impacts at the regional and national levels are profound, especially for early adopters moving aggressively between 2026 and 2028.

In Canada, for example, the Conference Board of Canada analyzed the economic impact of Ontario Power Generation's (OPG) plan to build four GE-Hitachi BWRX-300 SMRs at the Darlington site. The study concluded that the deployment of these four units will increase Canadian GDP by $15.3 billion over the next 65 years and sustain an average of 2,000 jobs annually 9, c8VoQkk4QSOKsX3IYj6Vjhg50cm3iFGb45nyGSMaTjymr-nqbEHVbaiijDMPIfmip9A-P9bilvDWKPyGUpUnIdyBFI4ffvX3p7woVk0lktXk4Z3Ho5Sx46oxsn7EphlNWTn2ye1XLSx3TkrYlQogxK2otjKAXYDwdX6oRyUUyX9iGeqZWeUUEvxxt3AAw6IDhUC954xp9p0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">mugglehead.com">27]. Furthermore, the project is expected to generate $4.9 billion in tax revenues across all levels of government 9, c8VoQkk4QSOKsX3IYj6Vjhg50cm3iFGb45nyGSMaTjymr-nqbEHVbaiijDMPIfmip9A-P9bilvDWKPyGUpUnIdyBFI4ffvX3p7woVk0lktXk4Z3Ho5Sx46oxsn7EphlNWTn2ye1XLSx3TkrYlQogxK2otjKAXYDwdX6oRyUUyX9iGeqZWeUUEvxxt3AAw6IDhUC954xp9p0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">mugglehead.com">27].

Similarly, in the U.S., a University of Tennessee economic impact analysis of a potential 300 MW SMR deployment by the Tennessee Valley Authority (TVA) projected that a $1 billion investment in in-state construction spending would grow the state's GDP by $1.6 billion, supporting over 16,000 person-year jobs during construction 28]. These figures illustrate how early SMR deployments act as industrial anchors, revitalizing manufacturing bases and drawing secondary supply chain investments to the host regions 28, ryBbC-e6okK0qBS4Mh4EkGJ8jOlrTquDmIkQ-FzB6CtSoxwfpXbLPIE2V-gHoP7Q47RydsyCDRASiOplBQmYAH4orZw4i44cXtcJJDuUp3LkLC9Ii-MsfRYA7fEq2vXXSmUKExm2rPtiNiViMyiMtfi19zSU7L3Ld9VwaVdslOoglBmzNTCly1ivxzYqiEx3FcfdzRVGVRhXguvkaTbpbnfkcNaNCWKSnmLaGYvVUDOn0Zl0nQZxxm8aicVWyoSxtx738WX8d9S1LWbI6pIKdg8-bb-5jkllNmrqIAWH4aL1gX2HxVgRSg1uj9XknmLe6U" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">researchgate.net">29].

[4] Financial Models and Public-Private Partnerships [source]

The transition from prototype to commercial operation requires vast amounts of patient capital. Nuclear projects are notoriously difficult to finance due to their scale, capital intensity, long construction lead times, and technical complexity 10]. Cost overruns and delays have plagued recent large-scale nuclear projects, making commercial banks hesitant to finance the early stages of new builds 10].

[4] 1 De-risking First-of-a-Kind (FOAK) Projects [source]

To bridge the "valley of death" for early SMRs, robust Public-Private Partnerships (PPPs) and government interventions are strictly required. Government involvement is crucial to facilitate the entry of commercial banks by ensuring predictable cash flows and absorbing a portion of the construction risk 10].

In the United States, the Department of Energy (DOE) is executing this via the Advanced Reactor Demonstration Program (ARDP). The DOE has committed up to $2 billion in cost-sharing to support the licensing, construction, and demonstration of TerraPower's Natrium reactor in Wyoming, matching private investment dollar-for-dollar 30, G0SwEHEe04dKXrkdhaTo2xIuZUYVJ9l87I1fk1TgZcEgL7LqF6A6ikbn710h2gd-NvnPscLVIVTu9Z2UwHODHOVUbEWvKKviZGCk-b-k-YP-rpcXUsyv9nKHFG5fwgF1R762c90frOqw1w2n0996thCNNH9UBmgyr-IBYLUDpW7os9U7" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">energy.gov">31]. Furthermore, the U.S. government has expanded Federal Production Tax Credits (PTCs) and Loan Guarantees through recent legislative packages like the Inflation Reduction Act to heavily subsidize the LCOE of early units 7, XiA90oCgc5wZSx96neDCmKMgirv9K-O67P02-EhTJNH3b9d-6utrS4I3Nz9qqsrlTegF00G6HDbXfNirIeXXxzI1KTcQNgUBXzEvGfT5YaeTl4ZkqCuYiRtXHZVPiM8HAjFk-Gz6lcPk0aeUR-0WBaJyOnJ3v11Oz15GcXLYxz3sXW0w==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">forbes.com">24].

The United Kingdom is pioneering a different approach via the Regulated Asset Base (RAB) model and direct competitive procurement. Through Great British Nuclear (GBN), the UK government has pledged over £2.5 billion to turbocharge SMR development, creating a clear route to market and allowing investors to recover capital during the construction phase, dramatically lowering the cost of financing 6, rRbFOEaZ3DkWzMYkBpYNAF2axilAG-6gAD1ewivD8x9c5W9zGNJ8hki-7mrjRrsh_OhUx3tynNRyHQPFYH81jOWyJGxaU1XBjt1YcAp9n0QcENmwEwlnpvxrPEQKxSDDbz4O96IeKSciytonx6EsFY1GJp2A==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">industrialinfo.com">32].

[4] 2 Hyperscaler Investments and Data Center Demand [source]

A radical paradigm shift occurred entering the mid-2020s: the explosion of Artificial Intelligence. Data centers currently account for around 3% of global electricity demand, and this figure is expected to double rapidly 11]. Tech hyperscalers (e.g., Microsoft, Google, Amazon) have realized that their staggering 24/7 power requirements cannot be met by intermittent renewables without severely violating their aggressive zero-carbon pledges 3, VDc6ACedg1RIQchRZIm1VPR7MK1tHyQFaanVssDZF86xjq7pN50m2vjX3htdEl1d8pPUktGd5YC0cAyFcgkMGKSw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">rayhanpress.com">12].

As a result, private capital from the technology sector is directly funding SMR commercialization. For instance, TerraPower successfully closed an $830 million funding round that included investments from NVentures (NVIDIA's venture capital arm), signaling immense market confidence from the AI industry 33]. In 2026, we are witnessing the advent of multi-billion-dollar hyperscaler Nuclear Power Purchase Agreements (PPAs), where tech giants commit to purchasing the entire energy output of planned SMR plants before they are even built, providing the bankability required to secure commercial debt 3]. SMRs are no longer just an energy sector initiative; they are the foundational infrastructure for the future digital economy 3, gQ=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">strategyinternational.org">11].

[5] Geopolitical Implications and Energy Sovereignty (2026-2028) [source]

The global race to commercialize SMRs is deeply intertwined with macro-geopolitics. The period from 2026 to 2028 will dictate whether Western democracies can successfully claw back market share from authoritarian competitors who have aggressively dominated the nuclear export landscape for the past decade.

[5] 1 Breaking the Russian and Chinese Nuclear Export Dominance [source]

Over the past ten years, China and Russia have systematically cornered the global nuclear construction industry. Since 2016, state-backed companies from Moscow and Beijing have accounted for over 90% of global nuclear power plants under construction (excluding a handful in the UK and South Korea) 4, nLYXDigil39mfSNfSpIYjPe5rb5O9jusyIu9VawfvaOObNyIqSBWk3lGFJQkeZ86k6THNShvwFtPc4mRGJ63VjhiNyfvYvZHdfrTmSXz7NmJMOkXM4c6hzQnQBc-n-7dhdXBbejpFgD4nnGNOfDW0esnPA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">intellinews.com">34]. Both nations view civil nuclear exports not merely as commercial ventures, but as profound instruments of foreign policy.

Russia's Rosatom operates on a "reactor-as-a-service" model, offering developing nations in Africa, the Middle East, and Asia turnkey solutions that include generous state financing, construction, fuel supply, and waste management 35]. This strategy embeds long-term dependency, binding host nations to Russian technical expertise and political goodwill for up to a century 34, xqJYpjVGY14eMTxIaWPCYnteDtzbEXAatWu-3SpB9xDkDymk1GKNGzzZQiYcpHdYkTDvQXdAHHURyffV0EJjXrlGIMDzEFD-tk212Xk8yFQqC73hkA1v4IPbFHT3jEqDN4wIaqxCbhvo" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">moderndiplomacy.eu">35]. China is executing a similar strategy via its Belt and Road Initiative, rapidly expanding its nuclear exports while simultaneously building an astonishing 27 domestic reactors to push its capacity to 110 gigawatts by 2030, surpassing the United States 4, PgCASqygS5kF9O7l4IzzTsSn74ODylzjVJwEzKbtVt-Yin5akEIZxK0tgwTtuIGC4hO29whWFrE9KytNdO-ezYtLJ-IXiIMB-zxCVTsAbyS3YCG9WhxEMDu01oHiQBnc-LMxikWy_EHE" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">fondapol.org">36].

If current trends persist, Russian and Chinese SMR designs—such as Russia's RITM-200 and China's Linglong One—are poised to dominate the global fleet by mid-century 35, balkangreenenergynews.com">37]. Russia has already deployed the world's first floating SMR (Akademik Lomonosov), and China aims for commercial operation of the Linglong One by 2026 4, balkangreenenergynews.com">37].

[5] 2 National Energy Sovereignty in a Post-Globalized Context [source]

For Western nations, developing a robust domestic SMR industry is an existential mandate for national energy sovereignty 3]. The geopolitical shockwaves of the 2020s, particularly the weaponization of natural gas supplies in Europe, underscored the extreme risks of relying on adversarial nations for critical energy resources 6, rRbFOEaZ3DkWzMYkBpYNAF2axilAG-6gAD1ewivD8x9c5W9zGNJ8hki-7mrjRrshOhUx3tynNRyHQPFYH81jOWyJGxaU1XBjt1YcAp9n0QcENmwEwlnpvxrPEQKxSDDbz4O96IeKSciytonx6EsFY1GJp2A==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">industrialinfo.com">32]. SMRs uniquely insulate nations from volatile fossil fuel markets by providing continuous baseload power fueled by uranium—a commodity whose supply chains are currently being aggressively re-shored by Western alliances 3, csis.org">38].

[5] 3 Reshaping International Energy Alliances [source]

The successful deployment of Western SMRs between 2026 and 2028 will reshape international energy alliances. By demonstrating functional, commercially viable SMRs at home (e.g., Darlington in Canada, Kemmerer in the US), OECD nations will be positioned to offer democratic, transparent alternatives to the Global South 37]. Developing an exportable SMR product allows the U.S., UK, and France to re-engage diplomatically with emerging economies, offering them reliable clean energy without the coercive geopolitical strings attached to Russian and Chinese financing 35, jqio8A9ygAvV5cVtt-empdOGk0DRBdVSU2Ee78W96OSN8oM0nCUCwqPropX4pOMDX4B93wV3aFRVR4hdQfKQXHas0_e5wSqSqNPljF9TZDKlX30x4g36V6Nz7OQNAC6kNl3mphTlj2Pl28qaLDEVEn36" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">forbes.com">39].

[6] Evolving Policy Frameworks and National Strategies [source]

Achieving commercial deployment by 2028 requires unprecedented alignment between regulatory bodies, federal governments, and private enterprises. The strategies adopted by leading advanced economies showcase distinct pathways to realizing SMR commercialization.

[6] 1 United States: Regulatory Milestones and Public-Private Momentum [source]

The United States has prioritized a highly competitive, private-sector-led approach heavily subsidized by federal grants. The defining milestone for the U.S. occurred in early 2026 when the Nuclear Regulatory Commission (NRC) issued a construction permit for TerraPower's Natrium reactor in Kemmerer, Wyoming 40, rtOKpnWcwBqYhfvZG597HGkPZJpmljRsFnIUJEkufCpyqx8rQwpbN6rJZqJ1HpLm5VWIKLfwV3XsEYZfU9DI2KLi2rsu40suLQU6jfhHSzES9XZZRbWjI2eiptCepkzOenyFvSmLTeviDMFKCps-BJDT0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">thebreakthrough.org">41]. This marked the first construction permit issued for a commercial non-light-water power reactor in over 40 years 40].

TerraPower’s 345 MW sodium-cooled fast reactor is uniquely integrated with a molten salt energy storage system, allowing it to boost output to 500 MW to complement intermittent renewables 40]. Built adjacent to a retiring coal plant, the project leverages existing infrastructure and local workforce capabilities, targeting completion by 2030 40, yaMwqZ4lBaEZGooapbsocwln8DYQhPVpnsQM-SG8JJ5rENooR9CEBVEGT6zd3hiFQQS2MeqLm8oiqKUOIsiNHjCRWF-1IdrImR6bfGdULLvl98CPsZ5CpYNpQTUoQaKPmdU1GSoGmzk1MJE-0UCClWkqlcLqu0eJjX98P" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">ans.org">42]. The expedited NRC review (completed in 18 months, ahead of schedule) signals a crucial shift toward a more predictable, risk-informed licensing process necessary for scaling the technology 41].

[6] 2 United Kingdom: Great British Nuclear and Competitive Procurement [source]

The UK government has taken a centralized, programmatic approach to revive its shrinking nuclear sector, launching Great British Nuclear (GBN) to manage a multi-billion-pound SMR technology competition 32, UFosFzz-FEDH564Dz9Qns7Lmsc1Do01OYa0KkKC8d9KOJ6BDkV9Wq9wcgI4KIIPKTVI5rILblBJrTR1t92Utws5sZMDg8ZjIAis35F7NJaSn2RfpRwyl9R7-Z4BoCS9CopdgszGu8pGIhREAOd91XEo77m8bjKZgJA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">ans.org">43]. The goal is to aggressively deploy SMRs to meet a target of 24 GW of nuclear capacity by 2050 6, rRbFOEaZ3DkWzMYkBpYNAF2axilAG-6gAD1ewivD8x9c5W9zGNJ8hki-7mrjRrshOhUx3tynNRyHQPFYH81jOWyJGxaU1XBjt1YcAp9n0QcENmwEwlnpvxrPEQKxSDDbz4O96IeKSciytonx6EsFY1GJp2A==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">industrialinfo.com">32].

Following a rigorous two-year procurement process, the UK government selected domestic champion Rolls-Royce SMR as the preferred bidder in mid-2025 to develop the country's first fleet of SMRs 43, fnW6g3t1K6L0u46cK6aom3xafUjTGZCUV5HJrtEBwjkqkSmtwcXIPcDvqxT9YqAnxSu7Y7LsRJ8l9wlIqErkOTqCProjJuDLtWgw-hEFz5O5kvu6X7bYA9n5CYfM5ygPacUEO0sCRtuqjtB1vL7QJdOvbvtiXnCjaOLPooXmSOXqNU=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">www.gov.uk">44]. This strategic technology partnership guarantees state backing and aims to connect the first projects to the grid in the mid-2030s, prioritizing homegrown intellectual property, supply chain localization, and the creation of up to 3,000 jobs at peak construction 44].

[6] 3 Canada: First-Mover Advantage and Provincial Collaboration [source]

Canada has arguably secured the global "first-mover" advantage among Western nations through exceptional federal-provincial collaboration. Ontario Power Generation (OPG) is leading the charge at the Darlington Nuclear Generating Station, where it has contracted GE-Hitachi to deploy four BWRX-300 SMRs 45, rRAP-mqr4yUYF-5dRsuye8icr9v8hUTGC6A-8YkYnTMhZPjfG5CLvTZ796RPtwrD0J8KcYJnUx4rvIOcVPbvoq8LSm4B17lmXOIufJYob6hFYt8XAZMxKJTnH8dM_7de7C-XvOwemQ2D8TItz2KC3HHx4M6zQKpCf" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">reddit.com">46].

The Canadian Nuclear Safety Commission (CNSC) granted the license to construct the first unit in April 2025, allowing nuclear construction to begin 13, AVoVsui2TyVDUDuBcg2i3YcQpn7iE3grqXh8rEgUX7803nUuNz6O0nAwNNic85X2RItntX9NWuGakbfP2K2cCWHyrJaJ8EGtf9qxaXbQpOvgxra6jP-2tvYsB5-Q0HZxOZpzbHE-BWM7bn373c7uDyLqZmEGdS" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">world-nuclear.org">47]. Significantly, the first Darlington BWRX-300 is projected to be operational by late 2028 or early 2029, positioning it as the first grid-connected commercial SMR in the G7 11, ThafLBqE648MrJqXhxijD2J-c0NbENQD-W7RIy0nDgUGCeTYaeu2GqNczgMjc6bejlw3-t3J1NEpwahxthaZwRwJ0yF5RFfBfhZiFa75Fq6XKhnPJi8CBM1Ng2k3c37swjE0if71xu7IHBU=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nucnet.org">48]. Canada’s strategy relies heavily on an integrated domestic supply chain and inter-provincial memorandums of understanding (between Ontario, Saskatchewan, New Brunswick, and Alberta) to share regulatory approvals and fleet-scale economics 49, Lido7JWh5YqITcvZ4534CtDpEm6g8tOEb1r3i6QVDsbpOE3qeessXdXmNwj7eHfygYEsr6q0UiAMM7ZzJWtd-5sfA12kD80Kx5UY78i9G4YkXtZTcSwyPH3TXkkiWuSy6UMSO07RKrEYf7zR6h8xshOAI-1GQnLYz2VSk6gVHFW6_GW4=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">620ckrm.com">50].

[6] 4 France: Nuward and European Sovereignty [source]

France, historically Europe's nuclear powerhouse, is pushing its domestic Nuward SMR design to ensure European energy sovereignty. Supported by a consortium including EDF, Naval Group, and TechnicAtome, the 340 MWe Nuward plant (consisting of two 170 MWe pressurized water reactors) is designed for extreme modularity and prefabrication 51, DmVcKs2Ujcc7o1T1SfQqR8gZ3XtbXkueDMEabmBouFra4snIpwOOpJZDWnIDGk8gGLLNMD9Rpnm29jVDn9LYZxJO52uQA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">neimagazine.com">52].

While originally targeting a first concrete pour in 2030, EDF recently pivoted to optimize the conceptual design, focusing strictly on proven technologies to guarantee strict budget and deadline adherence 51, DmVcKs2Ujcc7o1T1SfQqR8gZ3XtbXkueDMEabmBouFra4snIpwOOpJZDWnIDGk8gGLLNMD9Rpnm29jVDn9LYZxJO52uQA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">neimagazine.com">52]. France is proactively engaging with multiple European nuclear safety authorities to conduct a joint early regulatory review of the Nuward design, aiming to create a standardized licensing framework that enables rapid deployment across the European Union in the 2030s 51].

[6] 5 Japan: The 7th Strategic Energy Plan and Supply Chain Revitalization [source]

Following the 2011 Fukushima disaster, Japan's nuclear sector faced severe contraction. However, driven by soaring energy demands and a lack of domestic fossil resources, the Japanese government enacted a historic pivot in 2025 with the approval of its 7th Strategic Energy Plan 53, iqmHMsm0bH2WOB897Ai9utRfsgTGxNrp1q0xI32nFCYBcHhymCAYVnAMz5xtLJQ5y0rt-lRwCvGwZB4iKxNsB6hNNfDhUWewce0PqRBK8ykmJmHeKdxP3N4-KOxcyhJvw7huFoFFbf-j6OU3HkPmbbTmCziMRVQfBEKJikXbztDxjls5RQKTxpYUi7nIF1-vYEvz3TYXyc=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nippon.com">54].

The new policy shifts from reducing nuclear dependence to "maximizing" its use, targeting a 20% share of the national energy mix by 2040 53, iqmHMsm0bH2WOB897Ai9utRfsgTGxNrp1q0xI32nFCYBcHhymCAYVnAMz5xtLJQ5y0rt-lRwCvGwZB4iKxNsB6hNNfDhUWewce0PqRBK8ykmJmHeKdxP3N4-KOxcyhJvw7huFoFFbf-j6OU3HkPmbbTmCziMRVQfBEKJikXbztDxjls5RQKTxpYUi7nIF1-vYEvz3TYXyc=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nippon.com">54]. Japan is heavily prioritizing SMR development to replace aging infrastructure and support its advanced manufacturing and semiconductor industries 55]. Furthermore, Japan is leveraging its exceptional heavy engineering supply chain—establishing the Nuclear Supply Chain Platform (NSCP) to assist domestic companies in participating in overseas SMR projects, thereby strengthening the global Western nuclear ecosystem 56].

NationKey SMR Project / TechnologyPrimary Strategy & 2026-2028 Milestone
United StatesTerraPower Natrium (345 MW)Massive public-private funding (ARDP); NRC construction permit secured (2026) for Wyoming site 40, rtOKpnWcwBqYhfvZG597HGkPZJpmljRsFnIUJEkufCpyqx8rQwpbN6rJZqJ1HpLm5VWIKLfwV3XsEYZfU9DI2KLi2rsu40suLQU6jfhHSzES9XZZRbWjI2eiptCepkzOenyFvSmLTeviDMFKCps-BJD_T0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">thebreakthrough.org">41].
CanadaGE-Hitachi BWRX-300First-mover advantage; Active construction at Darlington aiming for operational status by 2028/2029 47, ThafLBqE648MrJqXhxijD2J-c0NbENQD-W7RIy0nDgUGCeTYaeu2GqNczgMjc6bejlw3-t3J1NEpwahxthaZwRwJ0yF5RFfBfhZiFa75Fq6XKhnPJi8CBM1Ng2k3c37swjE0if71xu7IHBU=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nucnet.org">48].
United KingdomRolls-Royce SMR (470 MW)State-run competition (GBN) selection completed; site allocation and regulatory advancement 43, fnW6g3t1K6L0u46cK6aom3xafUjTGZCUV5HJrtEBwjkqkSmtwcXIPcDvqxT9YqAnxSu7Y7LsRJ8l9wlIqErkOTqCProjJuDLtWgw-hEFz5O5kvu6X7bYA9n5CYfM5ygPacUEO0sCRtuqjtB1v_L7QJdOvbvtiXnCjaOLPooXmSOXqNU=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">www.gov.uk">44].
FranceNuward (340 MW)Optimizing design for European standardization; joint cross-border regulatory reviews 51, DmVcKs2Ujcc7o1T1SfQqR8gZ3XtbXkueDMEabmBouFra4snIpwOOpJZDWnIDGk8gGLLNMD9Rpnm29jVDn9LYZxJO52uQA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">neimagazine.com">52].
JapanMultiple (BWRX-300/NuScale partnerships)7th Strategic Energy Plan approved; massive supply chain revitalization for domestic and export markets 54, fE4LqTLAdWINOcb56nSrHbxkgR4xxNKQsEW57TDdOPbyJKLGHRSV4z-IdJYaq6WT11kF70B9-ZYmlZawAPWExrjbbQxwGB2CPzNDspCKqp4024sxJi8ub3lkkT0RRckJQomiP" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">dbj.jp">56].

[7] Competitive Landscape: SMRs vs. Renewable Energy Technologies [source]

To fully grasp the market potential of SMRs, it is critical to contextualize their position relative to the dominant clean energy technologies of the current era: wind and solar.

[7] 1 Intermittency vs. Baseload Stability [source]

The fundamental limitation of renewable energy is intermittency. Solar panels do not generate power at night, and wind turbines rely on unpredictable weather patterns. As grids integrate higher percentages of renewables, they become inherently unstable 24]. To counteract this, massive investments in grid-scale battery storage, synchronous condensers, and redundant transmission lines are required.

SMRs uniquely address this gap in energy security. They provide firm, dispatchable, zero-carbon baseload power that operates 24/7 regardless of weather conditions 24, pdXFmT2jEiN17kQY8LattQTGSy5nGgfOaQDmlUPZNEIIspKHoZPoU5PYAnCEhkAik=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">siemens-energy.com">57]. Advanced SMR designs, such as TerraPower's Natrium, are specifically engineered to load-follow—meaning they can dynamically ramp their electrical output up or down to compensate for the sudden drops in renewable generation, functioning as the ultimate grid-stabilizing asset 58].

[7] 2 The Role of SMRs in Grid Decentralization [source]

Traditional power grids rely on a centralized hub-and-spoke model, where giant, gigawatt-scale power plants transmit electricity over vast distances to urban centers. This model is highly vulnerable to extreme weather events, cyber-attacks, and physical sabotage.

SMRs represent a paradigm shift toward grid decentralization. Because of their small physical footprint and reduced safety exclusion zones, SMRs can be embedded directly within industrial parks, massive AI data center campuses, or remote municipalities 2, VDc6ACedg1RIQchRZIm1VPR7MK1tHyQFaanVssDZF86xjq7pN50m2vjX3htdEl1d8pPUktGd5YC0cAyFcgkMGKSw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">rayhanpress.com">12]. This localized generation model creates resilient "micro-grids" that can operate autonomously if the broader national grid fails, offering unparalleled energy security for mission-critical digital and financial infrastructure 2].

[8] Forward-Looking Perspective: 2028 and Beyond [source]

As the world approaches the end of the 2026-2028 deployment window, the narrative surrounding SMRs will shift from regulatory viability to industrial execution.

[8] 1 Critical Milestones for 2028 [source]

By 2028, the success or failure of the "first-mover" projects will define the trajectory of the industry for the next two decades. Canada’s Darlington BWRX-300 project is the primary bellwether; if it achieves its target of becoming operational by late 2028 or early 2029 on time and within budget, it will instantly validate the SMR economic model and trigger a flood of global orders for the GE-Hitachi design 46, ThafLBqE648MrJqXhxijD2J-c0NbENQD-W7RIy0nDgUGCeTYaeu2GqNczgMjc6bejlw3-t3J1NEpwahxthaZwRwJ0yF5RFfBfhZiFa75Fq6XKhnPJi8CBM1Ng2k3c37swjE0if71xu7IHBU=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nucnet.org">48]. Concurrently, the progress of physical construction on TerraPower's Natrium reactor in Wyoming will serve as the ultimate stress test for America's advanced nuclear supply chain and workforce readiness 40, gstw2-f93CWkIIAbHEyRMCzMQTlxO6HbLqEEBauO6wwzqgq4vphbJpsTshGMFSuq4VpDYzlKPGQpC1hPkL_LUQGCCHDR0yYsQ2JyObJIXdVIFHhycvQsSgBqikZ38EpcnRdmvGK-lEGFVzAURv60OUxUvj-hPSZQZGjL0e3-PFPQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">world-nuclear-news.org">58].

[8] 2 Long-Term Scaling and the HALEU Fuel Bottleneck [source]

Looking beyond 2028, the industry faces severe scaling challenges, the most acute being the supply of specialized nuclear fuel. Many advanced Generation IV SMR designs (though not all) require High-Assay Low-Enriched Uranium (HALEU), which is enriched to between 5% and 20% 59]. Prior to the geopolitical fracturing of the 2020s, Russia was the only commercial supplier of HALEU in the world 3, zYURXzKKHeFo9NgpyTshHvLEBDfWf9qPY2oODEyc" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">enkiai.com">33].

The success of the Western SMR rollout in the 2030s depends entirely on the accelerated development of domestic uranium mining, conversion, and enrichment facilities in North America and Europe to break this final chain of dependency 3, MndIIUlj3rDiGlJKA5PHPVufssjOs9KlZEDofCTLEXzquG1oMbdbrCYqxVq1PzS8vIk2pvnEjcjR7oZf9DHguSrWKbu1FMPcGupAvCSzY=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">informaticsjournals.co.in">59]. Massive state-backed initiatives are currently underway to stand up Allied HALEU consortiums, and their operational success by the late 2020s is a non-negotiable prerequisite for the SMR revolution 3].

In conclusion, the deployment of Small Modular Reactors between 2026 and 2028 represents far more than an evolution in power generation. It is a strategic realignment of global energy geopolitics, an industrial renaissance for regional manufacturing bases, and the foundational bedrock of a decentralized, zero-carbon grid required to power the exponential growth of the digital economy.

References

[1] SMR Community, Economic Impact. 8] IbbJgSdENaNy8fJyH7yuI-PZaTBMnE7bNm79nwnqMoqxMgsWC3As723liTOMEP0ocs6Cp-mdgJ6QBavl8zHH2f4BjtlN0Tvloyvrwi2fEvfddbUdVBM4GZPFwTqxf6hXCw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">gensler.com">2: U.S. Nuclear Regulatory Commission, Economic and Employment Impacts of Small Modular Nuclear Reactors. 16] lVorWpvaJGXOzthJ351lYKf9uBDbwUMf5St8TTM6K6zODCb70-P70qY25XXyK1YbwUUSmRk97CBB4vTgeSYDtIhlyWbei0LwHQaBqGZy2qVPC1v35SBr" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">openpr.com">3: U.S. Department of Energy, Benefits of Small Modular Reactors (SMRs). 14] B9lGQBUFveSSIiz6xpr3WU48scI1jJT7vBtirubz3Ge1n7VYwJpPH6dSvP7OO4kqV6QhWpihziRhXdrUBAC1QzWKOlozYOmmW2Ip3sXiIf9t5ecYAfg4NGCr82-gK4FNx9vSBgBLvRplxEAtV9XdJRQWRVpZOt8KjC0N" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">fastbull.com">4: Baker Center, SMR Economic Impact Analysis for TVA. 28] IU346QtKV-noyjwZpSAEGirnidMm9EKGFqhYQO2idddCLfUWvnsnFMjsYStoKwKbN5ViHvpKZAAXW1iq71zFbLQmDD34U-slcExiGeuff0fDdNNtzFB2ciyQutSClzOGzTTqUBUrDDg8F-M7l23RDw8XXrvAUiEnbdVVV6OdXPaeA68Cb-" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nei.org">5: The Conference Board of Canada, Economic Impact Analysis of SMRs. 9] H3WvclHR49GptW6x73vLQDUHqF4RYXwaiyPFdxj5OrvkbpxP1OsXujBe0KJxZFIbbWh17LrH8RP3v2cMn4hgpduJ6A==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">jaif.or.jp">6: Rayhan Press, Small Modular Reactors: Industrial Renaissance or Vaporware? 12] fdQIPUXsgUsx7mQ7ALZFngRubo8n7nlFqgTAIIm8izIeQFF5-Z9gNRgwF0QzDdPJsF3VEUhwn1n5o4-3WTvGJdsEKW6nUq7GKAqAbeqr13yZs2Jd56gV8x4l-zqTk5vN9rO7oiFGjnVlwJszY-NODC7BlsYyIISIeQrlE2LoViwfPCnjhnl1hLg6HBT5KCna2olM6btcyzyyUeqUl2PDLdHBmtZqqdWyK5GiH3pn5JNFLXyKWhFQlYIxHpDhAmiczW44oOeQuUn-oK9HFIB-iM3DgkqyZ4CTvICcWMBLAsv3IB2" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nei.org">7: Informatics Journals, Global Uranium Supply and SMR Demand. 59] OSY4m5TuGBab3HhXj9qBOiqnlLRQVQM11KtAOC22g3mLERXnKWJ6DemWh0bsecNmd8Jm-v3rwBzVFg0g==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">smrcommunity.com">8: Strategy International, SMRs and the Digital Economy. 11] y38HkC3xf9-QfSMxpaRNX5wpFpsWFE8JYKajSvabAOQIllgW2RapivtOlgPuxEVRC98x5rO-tNPJzBhxWGJfg-BFoxKNxrhfsA8JbnpUnmAVkFbrH4C6pa2D-8WaqC8hzoJMENB6CC6rZeCz9E=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">opg.com">9: NucNet, Darlington BWRX-300 To Receive Construction Permit By End 2024. 48] OaoWZO5Afxl9qBsBHRSkchR4hql4LuxvztTXjuZp3NIuNXw1GOMjUycyaB0T5TjfUGtWszzYzD5bUymf56QA5inD4ydK4DByTMJ0zs7YAjqFE0-izQkxVslsJtwcYIhq3B4tI79Ipee-GjmqqsTIVICmqRvIw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">iea.org">10: World Nuclear Association, World Nuclear Outlook Report - Canada. 47] gQ=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">strategyinternational.org">11: GE Vernova, BWRX-300 Small Modular Reactor at Darlington. 45] VDc6ACedg1RIQchRZIm1VPR7MK1tHyQFaanVssDZF86xjq7pN50m2vjX3htdEl1d8pPUktGd5YC0cAyFcgkMGKSw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">rayhanpress.com">12: Ontario Power Generation, Darlington SMR Project Updates. 13] DKqnES9O9s8VCh-QyTxAubSqUWCyPsjpOYnXYEXRIM55KDq1PyqgRbCZOTXaaCPRHhaJJIMWTh9-bWGpsJkKAuu4cFwY8w-PBmqinystKU7ZENbqQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">opg.com">13: MLT Aikins, The State of Nuclear Energy in Canada. 49] Ws8m1VQUCzE-qMUeaMre7o-MmemQCx1b300wTHm7pJxny0iPlGUkluCqF4EcszEADymuAMkZfoC4pS3qOgIDAQs-WVafRyENausQVEf7VGOncGiybBlAnsc8NwOe3sOr0h0EFobD-bZyuZQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">energy.gov">14: American Nuclear Society, NRC approves TerraPower construction permit. 42] kN6fwNq8wNQOI4e4BJmEF5znuOflexunwWp5zqHyC6MJfYwuJuPMWlJTrpOaOBqYMjSFbsaSAkJj8r8ZZ2VozfqGtcpbaumqH8v3xOOo288dgjklowSxRPdr-0Cga68bA=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nucnet.org">15: NucNet, US Regulator Clears Construction Permit For TerraPower. 30] BW9hf0erUlixIilh-5dQf3A0H5DbmGyYG0vONeLuazv7okouNKJQlvOKlnKGvKh5T1ywvDVxlONzymdfmIvl1TxBKtnBkTzhsY83xw6Kft5djWrHxDUKFyk0kj3QD9BweQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nrc.gov">16: Department of Energy, Next-Gen Nuclear Plant and Jobs in Wyoming. 31] 0ePDklv-ET" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">advancedenergy.org">17: Enki AI, TerraPower's Natrium SMR Powers AI Future. 33] 1GUY1xMmsxHLGJLIGjkcd5fESW4t8ItuNNBynOFHaVVvpaI1ldKmZ944cgRo0jlcsurTbpoDfe6r-2GuxBtwzt15p28TG1eDoTZ19rUykFNv2Ic0RN90GNeG4-DNSdE6TNRrJvxP22J9EAlrFpHgJALEMqbIDSGiZWnlbI9hhFmLuIoz43eetmnwYEMt76xyybuN5wyj73tOZQeCWBo=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nucnet.org">18: Industrial Info, UK Launches Small Nuclear Reactor Competition. 32] FSrVKbDSzFJFO7oT-Pa7OQCYudQ3DFHgNwq80obwj9qBqxF8Iht5lbgCis9NRlGkvowue9fLWuX8-oAx1UtLHFBmIk8oHuKsnugst-0Nb-SMwCW6N9mvtaq5Q8y6wiMa2M6FHHFH2r1X7fyL-UNbI2xng==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">foronuclear.org">19: UK Government, Rolls-Royce SMR selected to build small modular nuclear reactors. 44] qNx8fUf49srgpLcIvgWwAyEVNRTcZ3LkjsEFKAiJfCrKokV3vG-Z89a7OALjvF3B9whswV7Lx4RvCzPdEIe23JaabXMio60HoXUJhF93ACb9d14FSjOkmd0HPBE8CfQvodsc9A=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">navajo.republican">20: American Nuclear Society, UK's own Rolls-Royce wins SMR competition. 43] 3iab-1HBuK9WX4wiqnPDnjdXkwSFldyMcJRuxXLZe9uPawLaetfmDWyIPGzQ4IMROPzsvmHK88jBd4wrZaFF32Yne9xb6vgPjz8ii0QSo8-ChmusWHyAjbTthJs8qNijIhEffE3LzWzpMPtCxAHsB542Zt86ttiD8GBR1lMvNOeAIlAL90xJftOO" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">oecd-nea.org">21: Foro Nuclear, Licensing process begins for Nuward SMR in France. 60] zFKsYyq1L0PAHBHkJIhbgN3YtJE5BEcjlZQ1LxDnQ8-q4Ra1pI-YA" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">energyinst.org">22: World Nuclear News, Second phase of Nuward review completed. 51] eR6EyJHatYz8lZzl4gXfN7AipC1J3GhrbwGG5-KdHgfKw9Z7DFGx3sRRSyM5asNwPcZcfWJOWclLhg==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">utah.gov">23: Nuclear Engineering International, EDF revamps Nuward SMR design. 52] XiA90oCgc5wZSx96neDCmKMgirv9K-O67P02-EhTJNH3b9d-6utrS4I3Nz9qqsrlTegF00G6HDbXfNirIeXXxzI1KTcQNgUBXzEvGfT5YaeTl4ZkqCuYiRtXHZVPiM8HAjFk-Gz6lcPk0aeUR-0WBaJyOnJ3v11Oz15GcXLYxz3sXW0w==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">forbes.com">24: Embassy of Japan, Japan's 7th Strategic Energy Plan and SMRs. 53] NgfZeGhj-2olyh2QG9RfCimXUN0EGmeDuly7qvLMD5-TRHIy-rd9tn8NfjLV1FYxz-NtNj3mLWUuAy-Cdpra9WohHLoEE1vtu6Dg8ZkfL2tUtV1axKxpfz-kPGswOpOY-jD1OD6RjJpzZpI6qglx6buVMTxq" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">iaea.org">25: Nippon, Japan's Energy Plan: New Policy Shifts Nuclear Power Stance. 54] y2C5B5IVlcuD1ZLRoZSoVaFXLeWaD11M12iffkhTOiJ9Q3ZSQtuafnPlL4U9yQV9GLY-KsuJOwzsmHY5whUDdqf1VJBCyMD9Lsie-fN41PQQVam4-vvsaAt31F67F3baeVGxGfh8MqGcvRHRFqX8hk-11hANnMOkZt5WCkJROmuqGNKfmD0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">trade.gov">26: Japan Atomic Industrial Forum, Strategic Energy Plan Updates. 55] c8VoQkk4QSOKsX3IYj6Vjhg50cm3iFGb45nyGSMaTjymr-nqbEHVbaiijDMPIfmip9A-P9bilvDWKPyGUpUnIdyBFI4ffvX3p7woVk0lktXk4Z3Ho5Sx46oxsn7EphlNWTn2ye1XLSx3TkrYlQogxK2otjKAXYDwdX6oRyUUyX9iGeqZWeUUEvxxt3AAw6IDhUC954xp9p0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">mugglehead.com">27: OECD NEA, Small Modular Reactors: Challenges and Opportunities. 1] h80yQei2CwpRA0o7nh37LTUDyhlLrMwZqn4h4-Q4nxIp6V2KXY85JGHj00bWQXFj4Zlv247gMZn3vboYvpKHRGdkGmbiLnHCxdguWmFl-wJXwLO7pGu56WqAouiSmWWVtFgy9jU35SNJDAM4pw6K9NXX1cINPxJ7jJHDFUAVnSZ5zCnG7O6Bg5EyOpzxeQgWeEywYLec2nh3vkM=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">tn.gov">28: Nuclear Energy Institute, SMR Start Economic Analysis. 7] ryBbC-e6okK0qBS4Mh4EkGJ8jOlrTquDmIkQ-FzB6CtSoxwfpXbLPIE2V-gHoP7Q47RydsyCDRASiOplBQmYAH4orZw4i44cXtcJJDuUp3LkLC9Ii-MsfRYA7fEq2vXXSmUKExm2rPtiNiViMyiMtfi19zSU7L3Ld9VwaVdslOoglBmzNTCly1ivxzYqiEx3FcfdzRVGVRhXguvkaTbpbnfkcNaNCWKSnmLaGYvVUDOn0Zl0nQZxxm8aicVWyoSxtx738WX8d9S1LWbI6pIKdg8-bb-5jkllNmrqIAWH4aL1gX2HxVgRSg1uj9XknmLe6U" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">researchgate.net">29: IEA, The Path to a New Era for Nuclear Energy: Financing Projects. 10] v7l59oJzalSTA4dIRPPD3KDyMQg702VPhs8rdWQ9sOPBr65mwOy1-0E1zdFUn8ktFVP6FwhK4CJYN1MOTYR7YNe3GPgW5Jfa1Tqyd3Y63kPC4-njCvMKgcukfC465C2ealwsppGIgAUFsutz5fBYg46vBaFrki9odE1qwvROg==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nucnet.org">30: Utah Government, Small Modular Reactor and Alternative Power Portfolios Study. 23] G0SwEHEe04dKXrkdhaTo2xIuZUYVJ9l87I1fk1TgZcEgL7LqF6A6ikbn710h2gd-NvnPscLVIVTu9Z2UwHODHOVUbEWvKKviZGCk-b-k-YP-rpcXUsyv9nKHFG5fwgF1R762c90frOqw1w2n0996thCNNH9UBmgyr-IBYLUDpW7os9U7" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">energy.gov">31: NucNet, Analysis Shows Competitive LCOE Target for SMRs. 15] rRbFOEaZ3DkWzMYkBpYNAF2axilAG-6gAD1ewivD8x9c5W9zGNJ8hki-7mrjRrshOhUx3tynNRyHQPFYH81jOWyJGxaU1XBjt1YcAp9n0QcENmwEwlnpvxrPEQKxSDDbz4O96IeKSciytonx6EsFY1GJp2A==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">industrialinfo.com">32: Forbes, Nuclear vs Renewables: LCOE Comparison. 24] zYURXzKKHeFo9NgpyTshHvLEBDfWf9qPY2oODEyc" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">enkiai.com">33: IAEA, Levelized cost of energy for SMRs. 25] nLYXDigil39mfSNfSpIYjPe5rb5O9jusyIu9VawfvaOObNyIqSBWk3lGFJQkeZ86k6THNShvwFtPc4mRGJ63VjhiNyfvYvZHdfrTmSXz7NmJMOkXM4c6hzQnQBc-n-7dhdXBbejpFgD4nnGNOfDW0esnPA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">intellinews.com">34: OpenPR, Geopolitical Market Analysis of SMRs. 3] xqJYpjVGY14eMTxIaWPCYnteDtzbEXAatWu-3SpB9xDkDymk1GKNGzzZQiYcpHdYkTDvQXdAHHURyffV0EJjXrlGIMDzEFD-tk212Xk8yFQqC73hkA1v4IPbFHT3jEqDN4wIaqxCbhvo" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">moderndiplomacy.eu">35: FastBull, China and Russia's Global Nuclear Power Play. 4] PgCASqygS5kF9O7l4IzzTsSn74ODylzjVJwEzKbtVt-Yin5akEIZxK0tgwTtuIGC4hO29whWFrE9KytNdO-ezYtLJ-IXiIMB-zxCVTsAbyS3YCG9WhxEMDu01oHiQBnc-LMxikWyEHE" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">fondapol.org">36: IntelliNews, Russia and China dominate global nuclear power construction. 34] balkangreenenergynews.com">37: CSIS, Geopolitics of Russia's Civil Nuclear Exports. 38] csis.org">38: Modern Diplomacy, The Geopolitical Powerplay of Small Modular Reactors. 35] jqio8A9ygAvV5cVtt-empdOGk0DRBdVSU2Ee78W96OSN8oM0nCUCwqPropX4pOMDX4B93wV3aFRVR4hdQfKQXHas0e5wSqSqNPljF9TZDKlX30x4g36V6Nz7OQNAC6kNl3mphTlj2Pl28qaLDEVEn36" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">forbes.com">39: Balkan Green Energy News, Russian, Chinese SMR designs poised to dominate. 37] lyv4NO2fAfRgyP4QGVPRfIXsMMymkC-04Chbw939LrYM7mm-hxiaqfNjce03CYULxDBaF1W1vKBSh4eHpCRUuaTzZIVxK6tgTk-DnLds=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">energy.gov">40: Forbes, China and Russia Now Dominate the Global Nuclear Trade. 39] rtOKpnWcwBqYhfvZG597HGkPZJpmljRsFnIUJEkufCpyqx8rQwpbN6rJZqJ1HpLm5VWIKLfwV3XsEYZfU9DI2KLi2rsu40suLQU6jfhHSzES9XZZRbWjI2eiptCepkzOenyFvSmLTeviDMFKCps-BJDT0=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">thebreakthrough.org">41: NEI, Russia and China Are Dominating Nuclear Energy Exports. 5] yaMwqZ4lBaEZGooapbsocwln8DYQhPVpnsQM-SG8JJ5rENooR9CEBVEGT6zd3hiFQQS2MeqLm8oiqKUOIsiNHjCRWF-1IdrImR6bfGdULLvl98CPsZ5CpYNpQTUoQaKPmdU1GSoGmzk1MJE-0UCClWkqlcLqu0eJjX98P" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">ans.org">42: Advanced Energy, Nuclear Energy's Next Generation. 17] UFosFzz-FEDH564Dz9Qns7Lmsc1Do01OYa0KkKC8d9KOJ6BDkV9Wq9wcgI4KIIPKTVI5rILblBJrTR1t92Utws5sZMDg8ZjIAis35F7NJaSn2RfpRwyl9R7-Z4BoCS9CopdgszGu8pGIhREAOd91XEo77m8bjKZgJA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">ans.org">43: Gensler, Future of Energy: Small Modular Reactors. 2] fnW6g3t1K6L0u46cK6aom3xafUjTGZCUV5HJrtEBwjkqkSmtwcXIPcDvqxT9YqAnxSu7Y7LsRJ8l9wlIqErkOTqCProjJuDLtWgw-hEFz5O5kvu6X7bYA9n5CYfM5ygPacUEO0sCRtuqjtB1vL7QJdOvbvtiXnCjaOLPooXmSOXqNU=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">www.gov.uk">44: Navajo Republican, The Case for Transition from Coal to Nukes. 20] lyIUyefxU-HjotDjLU6XzWz-TVdxPuybEdOAZdRIFwDAr3agZUY1oDNtqO1MvnkB7Iz9oNElj0syfujVnZWVrAOUxn6Q9iyzXAlaChzG54Yerq4efnBIdONhtwZc5SSXaoiiy4wPnz7sUs07-ve70HipFg8yUMnIoi5b6zhX7xqa1r7-Tlh7U2bMjw==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">gevernova.com">45: Siemens Energy, SMRs and Advanced Reactors. 57] rRAP-mqr4yUYF-5dRsuye8icr9v8hUTGC6A-8YkYnTMhZPjfG5CLvTZ796RPtwrD0J8KcYJnUx4rvIOcVPbvoq8LSm4B17lmXOIufJYob6hFYt8XAZMxKJTnH8dM7de7C-XvOwemQ2D8TItz2KC3HHx4M6zQKpCf" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">reddit.com">46: Foro Nuclear, SMRs could replace 450 GW of coal power by 2050 says NEA. 19] AVoVsui2TyVDUDuBcg2i3YcQpn7iE3grqXh8rEgUX7803nUuNz6O0nAwNNic85X2RItntX9NWuGakbfP2K2cCWHyrJaJ8EGtf9qxaXbQpOvgxra6jP-2tvYsB5-Q0HZxOZpzbHE-BWM7bn373c7uDyLqZmEGdS" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">world-nuclear.org">47: Department of Energy, NRC Issues Construction Permit for TerraPower's Natrium. 40] ThafLBqE648MrJqXhxijD2J-c0NbENQD-W7RIy0nDgUGCeTYaeu2GqNczgMjc6bejlw3-t3J1NEpwahxthaZwRwJ0yF5RFfBfhZiFa75Fq6XKhnPJi8CBM1Ng2k3c37swjE0if71xu7IHBU=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nucnet.org">48: The Breakthrough Institute, NRC Issues Construction Permit for TerraPower. 41] mltaikins.com">49: World Nuclear News, NRC issues construction permit for first Natrium plant. 58] Lido7JWh5YqITcvZ4534CtDpEm6g8tOEb1r3i6QVDsbpOE3qeessXdXmNwj7eHfygYEsr6q0UiAMM7ZzJWtd-5sfA12kD80Kx5UY78i9G4YkXtZTcSwyPH3TXkkiWuSy6UMSO07RKrEYf7zR6h8xshOAI-1GQnLYz2VSk6gVHFW6GW4=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">620ckrm.com">50: NucNet, SMRs Have Potential To Replace 450 GW Of Coal Generation. 18] ZCAQKRIEffGTn3Z6hkiZ7n0pkpqo3BjSRM7LLxregl374H0G6UzELf8LUqfiMYWqQ5Y1eg0kboFixsiDj5x6bsgRMBkC-Wdb0tsQ-1-PKe3MJxLmcQCkc4356I5mB21vfHfPnj0n3rkIFJpH-HPAA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">world-nuclear-news.org">51: Foro Nuclear, SMRs could replace 450 GW of coal power by 2050. 19] DmVcKs2Ujcc7o1T1SfQqR8gZ3XtbXkueDMEabmBouFra4snIpwOOpJZDWnIDGk8gGLLNMD9Rpnm29jVDn9LYZxJO52uQA==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">neimagazine.com">52: OECD NEA, SMRs for Replacing Coal. 21] i90XPwW5EqcJUANh1HjI7zgaPWnlEh-KdUyULUgteDignvTiwKiUmoIvVAtwh4PqgmPYIZ1SKVikIeZ0YyNAAvaXev7Our07FfBN4ZzhZ4IXpwlrqP3oez-A==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">emb-japan.go.jp">53: Energy Institute, The potential market for coal replacement. 22] iqmHMsm0bH2WOB897Ai9utRfsgTGxNrp1q0xI32nFCYBcHhymCAYVnAMz5xtLJQ5y0rt-lRwCvGwZB4iKxNsB6hNNfDhUWewce0PqRBK8ykmJmHeKdxP3N4-KOxcyhJvw7huFoFFbf-j6OU3HkPmbbTmCziMRVQfBEKJikXbztDxjls5RQKTxpYUi7nIF1-vYEvz3TYXyc=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">nippon.com">54: U.S. NRC, 100 MW SMR Economic Impact Data. 16] YaiqrMNxZdjt7R1IBEguGdxMh6v0P2N7C0Kiwwyu0E1TvNjsa5XPO1QcOCtBraZXgXcfXZSzDDCnl-1BLUbstSEY1HoSSOSaOvsxbeuj6FalA9se6sr3WQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">jaif.or.jp">55: Trade.gov, Economic impact of SMRs. 26] fE4LqTLAdWINOcb56nSrHbxkgR4xxNKQsEW57TDdOPbyJKLGHRSV4z-IdJYaq6WT11kF70B9-ZYmlZawAPWExrjbbQxwGB2CPzNDspCKqp4024sxJi8ub3lkkT0RRckJQomiP" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">dbj.jp">56: ResearchGate, Role of Small Modular Reactors in Decentralizing Energy. 29] pdXFmT2jEiN17kQY8LattQTGSy5nGgfOaQDmlUPZNEIIspKHoZPoU5PYAnCEhkAik=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">siemens-energy.com">57: Reddit / Conference Board of Canada, Darlington BWRX-300 GDP Impact. 46] gstw2-f93CWkIIAbHEyRMCzMQTlxO6HbLqEEBauO6wwzqgq4vphbJpsTshGMFSuq4VpDYzlKPGQpC1hPkLLUQGCCHDR0yYsQ2JyObJIXdVIFHhycvQsSgBqikZ38EpcnRdmvGK-lEGFVzAURv60OUxUvj-hPSZQZGjL0e3-PFPQ==" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">world-nuclear-news.org">58: Mugglehead, SMRs will create jobs and economic benefits to Ontario. 27] MndIIUlj3rDiGlJKA5PHPVufssjOs9KlZEDofCTLEXzquG1oMbdbrCYqxVq1PzS8vIk2pvnEjcjR7oZf9DHguSrWKbu1FMPcGupAvCSzY=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">informaticsjournals.co.in">59: Macdonald-Laurier Institute, Strong domestic supply chain for new nuclear. 61] prJCknqYbEi5ujeODXY8vHxea9cHAcxqyUgYqnvr-NndqZt7QJIO5bFQ1YPJ7eFj1soy-1M-aiMDCD6LHvty-OW5tMkgCRrsZa4fjOC7hUO3YFyulK8RhbLEoVbIpPgrtVGCsENIBbET0XZLwwdbE4GXEAPm-haV22rHBmLxszY0yN8oAx8AxTFROPMZcHZUpL8LjMSWxVBTt2wzOk=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">foronuclear.org">60: 620 CKRM, Are SMRs the solution to Canada's net-zero ambitions?. 50] ZBYoODzD43oBN4OT-lCp4bDiJt5xpxbAWBwSuGleNo-MVVa7J5gPc311k6Pgl3VXKadVa2l-DzLYiVlQdvnFyOM9cfPhR-cEN6laTVGjFlaMLF2dAFoh9QhZuFKZoqmN2E1Nvlgeks3z5OsyJI2qbjQkLPjxTbdljDarsfXGjHm-Y-aJU63sdvjE6W5RqIwDyqjEoLmwQ8f38OCFyNS68Fef2YiFL-xaRTQFuQMILZvYanIsK-eXvvGg1To=" class="text-muted hover:text-primary border-b border-dotted border-grid-line" target="_blank" rel="noopener">macdonaldlaurier.ca">61: DBJ, Russia and China 90% of global nuclear and Japan 7th Strategic Energy Plan. 56] 36]">62: Fondapol, Nuclear Energy: Changing the Balance of Power. 36] 6]">63: JAIF, Towards Nuclear New Builds: Nuclear Financing and Investment Recovery. 6] [source]

Sources:

  1. oecd-nea.org
  2. gensler.com
  3. openpr.com
  4. fastbull.com
  5. nei.org
  6. jaif.or.jp
  7. nei.org
  8. smrcommunity.com
  9. opg.com
  10. iea.org
  11. strategyinternational.org
  12. rayhanpress.com
  13. opg.com
  14. energy.gov
  15. nucnet.org
  16. nrc.gov
  17. advancedenergy.org
  18. nucnet.org
  19. foronuclear.org
  20. navajo.republican
  21. oecd-nea.org
  22. energyinst.org
  23. utah.gov
  24. forbes.com
  25. iaea.org
  26. trade.gov
  27. mugglehead.com
  28. tn.gov
  29. researchgate.net
  30. nucnet.org
  31. energy.gov
  32. industrialinfo.com
  33. enkiai.com
  34. intellinews.com
  35. moderndiplomacy.eu
  36. fondapol.org
  37. balkangreenenergynews.com
  38. csis.org
  39. forbes.com
  40. energy.gov
  41. thebreakthrough.org
  42. ans.org
  43. ans.org
  44. www.gov.uk
  45. gevernova.com
  46. reddit.com
  47. world-nuclear.org
  48. nucnet.org
  49. mltaikins.com
  50. 620ckrm.com
  51. world-nuclear-news.org
  52. neimagazine.com
  53. emb-japan.go.jp
  54. nippon.com
  55. jaif.or.jp
  56. dbj.jp
  57. siemens-energy.com
  58. world-nuclear-news.org
  59. informaticsjournals.co.in
  60. foronuclear.org
  61. macdonaldlaurier.ca
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