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DOME: The World’s First Nuclear Reactor Test Bed Now Open for Privately Developed Advanced Reactors

April 10, 2026
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The National Reactor Innovation Center (NRIC) at Idaho National Laboratory (INL) has officially unveiled the Demonstration of Microreactor Experiments (DOME), a pioneering test bed designed exclusively for the rapid development, testing, and demonstration of cutting-edge microreactor technologies. This groundbreaking facility marks a transformative milestone in advancing nuclear innovation within the United States, providing a dedicated and secure environment where emerging nuclear reactor concepts can be thoroughly evaluated under real-world operating conditions.

DOME is a first-of-its-kind installation, newly repurposed from the iconic Experimental Breeder Reactor-II (EBR-II) dome structure. Measuring 80 feet in diameter and towering 100 feet tall, the facility harnesses the physical legacy of EBR-II to create a state-of-the-art testing arena. This repurposed infrastructure now serves as a flexible, adaptable vessel capable of accommodating a spectrum of experimental microreactors with thermal output capabilities of up to 20 megawatts. The transformation of the EBR-II dome into this innovative test bed reflects a visionary approach to leveraging existing nuclear assets to meet contemporary energy challenges.

At its core, DOME offers unparalleled infrastructure for validating the next generation of advanced nuclear reactors. It facilitates an array of technical evaluations, including performance assessment, safety analysis, and operational validation. The data obtained through experiments conducted at DOME will play a crucial role in supporting reactor developers in design verification, regulatory compliance, and eventual licensing processes. By simulating authentic reactor environments, DOME enables precise characterization of system behaviors and safety parameters, thereby enhancing confidence in new technologies before commercial deployment.

The impetus behind the accelerated development of DOME was the imperative to address the United States’ urgent demand for advanced nuclear energy solutions. Recognizing the gap between innovative reactor concepts and practical demonstration capabilities, the Department of Energy championed a focused initiative to establish a world-class testing site. The construction timeline was expedited by nearly an entire year, underscoring the prioritization of nuclear innovation within national energy strategies. This facility embodies the strategic vision to reassert U.S. leadership in global nuclear technology spheres.

Experts from Idaho National Laboratory and the Department of Energy convened at the Materials and Fuels Complex to celebrate DOME’s grand opening on April 8, highlighting the test bed’s critical role in revitalizing nuclear energy research and development. Dr. Rian Bahran, Deputy Assistant Secretary for Nuclear Reactors, articulated how DOME forms a cornerstone of the Department’s comprehensive strategy to accelerate innovative reactor technologies. He emphasized the facility’s potential to catalyze breakthroughs essential not only for energy security but also for economic growth.

John Wagner, Director of INL, underscored the unique character of this infrastructure, which fosters “bold and creative” advancements in nuclear technology. Wagner highlighted how DOME serves as an accelerator, bridging the gap from conceptual innovation to tangible demonstration within a timeframe unprecedented in recent nuclear industry history. This rapid transition is vital for matching the accelerating pace of global climate imperatives and energy demand shifts.

One of the most significant technical aspects of DOME is its ability to simulate operational conditions representative of commercial nuclear reactors, but with enhanced flexibility to accommodate experimental designs. The test bed provides controlled environments to scrutinize thermal-hydraulic performance, neutron flux distributions, and materials behavior under irradiation conditions. Engineers and scientists can then observe and analyze reactor responses in real time, fostering iterative improvements in reactor design, safety systems, and fuel performance.

Another transformative feature of this initiative is its commitment to industry partnership. DOME operates on a model that invites private sector innovators to propose testing campaigns through an annual competitive application process. This protocol ensures that the scheduling and technical utilization of the test bed are aligned with technology readiness levels, fuel availability, and compliance pathways. This pragmatic approach accelerates technology maturation while maintaining rigorous standards for safety and regulatory oversight.

Looking ahead, INL is poised to begin hosting its inaugural experiment at DOME later this year, utilizing nuclear fuel in a rigorous demonstration program. Radiant’s Kaleidos Demonstration Unit is slated to embark on a year-long testing phase starting in the spring, marking a historic moment as the first microreactor experiment conducted within the facility. This practical application will provide valuable empirical data that further solidifies DOME’s role as a crucible for nuclear innovation.

The strategic opening of DOME exemplifies broader federal efforts to prioritize nuclear energy as a pillar of America’s clean energy future. By cutting down the traditionally lengthy timelines and high costs associated with nuclear reactor testing, DOME is set to empower a new generation of nuclear technologies capable of supplying steady, carbon-free power. Its comprehensive support infrastructure includes expert staff, advanced instrumentation, and integration with INL’s extensive scientific capabilities.

From a regulatory standpoint, the facility supports developers in meeting the rigorous demands of the Nuclear Regulatory Commission and other oversight bodies by providing credible data and validation experiences. This capability is expected to streamline licensing processes, reducing uncertainty and enabling safer, faster deployments of novel reactor systems. As such, DOME represents both a technological and regulatory innovation platform, fostering a conducive ecosystem for transformative advances.

The implications of DOME extend far beyond the test bed itself. By accelerating microreactor commercialization pathways, DOME enhances national energy resilience and positions the United States at the forefront of next-generation nuclear technologies. The ability to innovate within a secure, adaptable, and nationally supported environment ensures that American nuclear energy can meet future demands for diverse applications, including remote power generation, industrial process heat, and grid support.

Ultimately, DOME is more than a physical facility; it is a flagship symbol of nuclear resurgence and collaborative innovation. Its existence pivotally aligns with the national agenda to deliver abundant, reliable, and economically viable nuclear power. By directly addressing the challenges faced by emerging reactor developers, DOME catalyzes transformative energy solutions, contributing meaningfully to global sustainability efforts and reinforcing U.S. technological leadership in the nuclear sector.

Subject of Research: Advanced nuclear microreactors and reactor testing infrastructure
Article Title: The DOME Test Bed: Revolutionizing Microreactor Development at Idaho National Laboratory
News Publication Date: April 8, 2024
Web References: https://www.inl.gov/article/the-dome-test-bed-opens/
Image Credits: Idaho National Laboratory
Keywords: Nuclear energy, microreactors, advanced reactors, Idaho National Laboratory, Experimental Breeder Reactor II, DOE, nuclear innovation, reactor testing, energy security, nuclear licensing, clean energy, nuclear technology

Tags: advanced nuclear reactor testingDemonstration of Microreactor Experiments facilityExperimental Breeder Reactor-II repurposingIdaho National Laboratory nuclear researchmicroreactor operational testingmicroreactor technology developmentNational Reactor Innovation Centernext-generation nuclear energynuclear innovation in the United Statesnuclear reactor performance assessmentnuclear reactor safety validationsecure nuclear test bed infrastructure
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