The Department of Energy’s Office of Nuclear Energy on June 21 announced just over $6.3 million in funding for 18 projects at 15 universities in 14 states. The funding builds up scientific infrastructure and upgrades research reactors at universities to expand the nation’s scientific capabilities and train the next generation of nuclear energy scientists and engineers.

Advanced reactor coolants, consent-based siting, and offshore nuclear production of hydrogen are just a few of the topics included among the 74 nuclear science and technology projects awarded more than $61 million by the Department of Energy on June 17. The Nuclear Energy University Program awards, Integrated Research Projects, Nuclear Science User Facilities awards, and Infrastructure awards will support nuclear technology development, infrastructure improvements, and career opportunities at more than 40 U.S. universities in 29 states.

More than $61 million in funding has been released for advanced nuclear energy technology projects in 30 states and in the U.S. territory of Puerto Rico, the Department of Energy announced on June 22. Of that total, $58 million is going to U.S. universities for nuclear energy research, cross-discipline technology development, and research reactor infrastructure.

The Department of Energy on June 23 announced the selection of 76 scientists from across the United States—26 from the DOE’s national laboratories and 50 from U.S. universities—to receive significant funding for research as part of the DOE Office of Science’s Early Career Research Program. The effort, now in its 11th year, is designed to bolster the nation’s scientific workforce by providing support to exceptional researchers during the crucial early career years, when many scientists do their most formative work.

To get a job done, you need the right tool. Researchers now have one that will make their job easier—the Radioactivity and Damage (RAD) Calculator from the Department of Energy’s Nuclear Science User Facilities.

Most experiments conducted through the NSUF have the same underlying goal: quantifying irradiation effects on nuclear fuels and materials. Rather than doing a back-of-the-envelope calculation or a costly in-depth analysis with a nuclear engineer, users now have the flexibility to rapidly change experimental design parameters—such as selecting the reactor to be used, the sample location within the reactor, displacements per atom desired, and the time frame—and see which NSUF reactor can produce the desired result, all within seconds.