For North American nuclear projects, the quality and life-cycle program behind a secure-power system matters as much as the hardware itself.
The United States and Canada are preparing to build and renew nuclear capacity at a scale not seen in decades. New construction, refurbishments, reactor restarts, license renewals, and a pipeline of small modular reactors and microreactors are advancing at once, driven by increasing power demands.
Romania’s navy conducts controlled blasts in the Danube River. (Image: Fortele Navale Romane)
The effects of this summer’s historic heatwave continue to be felt across Europe. Soaring temperatures and drought in the region have led to elevated river temperatures, low river levels, and wildfires, which have significantly impacted nuclear power plants across the continent.
France’s Electricité de France has reported elevated river temperatures which have forced production cuts, including recent cuts at Golfech, and nuclear power plants in Hungary, Romania, and the United Kingdom, have faced exceptional challenges in recent days.
The top flange of the ZiaCore microreactor experiment. (Photo: LANL)
Last week, Los Alamos National Laboratory announced that its ZiaCore microreactor was brought to zero-power criticality at high temperatures in April through May of this year during four weeks of experiments on the Deimos test bed at the National Criticality Experiments Research Center (NCERC).
Photos from the GAO report that show boilers (classified as low-level radioactive waste) from the decommissioned Magnox reactors at the Berkeley nuclear power plant being transported through a U.K. town for shipment to Sweden for recycling in 2012. This action is part of the U.K. government’s new emphasis on waste minimization and recycling, changing previous policy that would have kept the boilers on-site until 2074. (Source: GAO-26-108082; photos: U.K. Nuclear Decommissioning Authority)
Several countries, including Canada, France, and the United Kingdom, recently have taken steps to accelerate the cleanup of nuclear waste. In a new report, the U.S. Government Accountability Office said that these actions should serve as lessons for the United States.
According to the GAO, the Department of Energy’s Office of Environmental Management should “strategically engage with other countries to identify and evaluate alternatives that could help reduce risks and costs or accelerate its cleanup activities.” The report noted that DOE-EM agreed with the recommendation.
Grainger Professor of Nuclear Engineering Paul Wilson (third from left) shares details about UW-Madison’s TRIGA reactor with Wisconsin Gov. Tony Evers (second from left) in February 2026. (Photo: Taylor Wolfram/UW-Madison)
With more than six decades as a top-ranked program in its rearview, the Department of Nuclear Engineering and Engineering Physics (NEEP) at the University of Wisconsin–Madison is hardly slowing down. In fact, NEEP is continuing to grow and develop its faculty, curriculum, and research.
GRETA installed at Michigan State University’s Facility for Rare Isotope Beams. (Photo: Shumpei Noji/FRIB)
The Gamma-Ray Energy Tracking Array (GRETA), which is installed at the Facility for Rare Isotope Beams (FRIB) at Michigan State University, has successfully completed a commissioning and characterization run, establishing that it is ready for scientific operations.
According to Lawrence Berkeley National Laboratory, which made the announcement, the measurements that scientists make with GRETA will improve the theoretical models of the atomic nucleus that underpin research in nuclear physics, astrophysics, energy, medicine, and national security.
An aerial view of the Paducah Gaseous Diffusion Plant site in Kentucky. (Photo: DOE)
The Department of Energy has announced two partnership agreements to construct AI data centers combined with energy infrastructure at DOE sites. This week, agency announced a partnership with Big Rivers Electric Power Corporation, Brookfield Corporation, Jackson Purchase Energy Cooperative, NextEra Energy, and Paducah Power System aimed at redeveloping parts of the former Paducah Gaseous Diffusion Plant into a data center campus with energy infrastructure.
Concept art of an ARC-100 facility, which is planned to house a 100-MWe sodium fast reactor. (Image: ARC)
Earlier this week, ARC Clean Technology announced that it has entered into a Strategic Partnership Project agreement with Battelle Energy Alliance—the management and operating contractor of Idaho National Laboratory.
That agreement establishes a multiyear framework for ARC and INL to collaborate on the design, demonstration, and first deployment of the company’s ARC-100, a 100-MWe sodium-cooled fast reactor.
Jill Gibson and Daniel Garcia at the LANL New Employee Training Academy. (Photo: Los Alamos National Laboratory)
According to a Defense Nuclear Facilities Safety Board (DNFSB) report, a fire occurred in a glovebox in the plutonium facility at Los Alamos National Laboratory on June 15. A test involving nonnuclear material was underway in the furnace inside the glovebox at the time of the incident.
Heinrich Laqua, HiPMiB project manager, standing next to what is currently the world’s most powerful gyrotron. It can deliver a maximum of 1.3 MW. (Photo: Frank Fleschner/MPI for Plasma Physics)
The Max Planck Institute for Plasma Physics (IPP) announced yesterday that it is developing 2-MW gyrotrons to be used as the main plasma heating system of the Wendelstein 7-X (W7-X).
W7-X, located at IPP, is currently the largest superconducting stellarator facility in the world. The project conducts research aimed at filling key knowledge and technology gaps for developing a stellarator-based power plant.