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2025: The year in nuclear
As Nuclear News has done since 2022, we have compiled a review of the nuclear news that filled headlines and sparked conversations in the year just completed. Departing from the chronological format of years past, we open with the most impactful news of 2025: a survey of actions and orders of the Trump administration that are reshaping nuclear research, development, deployment, and commercialization. We then highlight some of the top news in nuclear restarts, new reactor testing programs, the fuel supply chain and broader fuel cycle, and more.
Patrick Achenbach, Mirco Christmann
Nuclear Science and Engineering | Volume 198 | Number 1 | January 2024 | Pages 1-6
Research Article | doi.org/10.1080/00295639.2022.2151301
Articles are hosted by Taylor and Francis Online.
Light dark matter (LDM) in the mega-electron-volt to giga-electron-volt mass region is an attractive candidate for the all-pervasive and encompassing matter making up the vast bulk of the mass of our universe. Beam dump experiments at high-intensity accelerators are a powerful tool to produce and detect LDM. They can probe an unexplored dark sector that is interacting with the standard model (SM) through one or more portals. At the lowest-beam-energy end, the DarkMESA experiment will run behind the dump of the 150-MeV electron beam of the MESA accelerator, currently under construction at the Institute for Nuclear Physics in Mainz. The concept for detecting direct scattering reactions of LDM comprises an electromagnetic calorimeter surrounded by an active veto system for rejecting backgrounds from SM particles. Suitable shielding will be located between the downstream detectors and the dump. A low-pressure, negative-ion, time-projection chamber could supplement these searches. At much higher beam energies, the Beam Dump eXperiment (BDX) is proposed to run parasitically behind the Jefferson Lab Hall-A beam dump making use of the up to 11-GeV electron beam. BDX employs the same detector concept. Direct LDM scattering reactions can be detected in an electromagnetic calorimeter operated inside hermetic layers of veto counters and a thick lead vault. Both experiments can explore uncovered regions of the parameter space of the LDM interaction strength versus mass, exceeding the discovery potential of existing experiments.