The ASA Nuclear Technology for Marine Propulsion class of 2024 poses at MIT. (All photos: MIT Department of Nuclear Science and Engineering)
Some 30 nuclear engineering departments at universities across the United States graduate more than 900 students every year. These young men and women are the present and future of the domestic nuclear industry as it seeks to develop and deploy advanced nuclear energy technologies, grow its footprint on the power grid, and penetrate new markets while continuing to run the existing fleet of reactors reliably and economically.
The cross-disciplinary AtomCraft team. (Photo: University of New South Wales)
Commercial nuclear power is illegal in Australia, and it has been since the 1990s. This past June, however, the country’s main opposition party announced plans to build seven commercial nuclear reactors in the 2030s and 2040s on sites presently occupied by aging coal-fired plants—should the party’s Liberal–National Coalition win power in federal elections next year. This statement has reignited a public debate regarding the potential role of nuclear energy in Australia.
Screen capture from a GameDay broadcast. (Image: University of Michigan)
Nuclear advocates across the country have been asking fans to cheer for more than just touchdowns this college football season. They want people to learn about and support nuclear energy.
They want them to “heart” nuclear as much as they do.
Participants visited the Augusta Convention Center to meet with representatives of hundreds of colleges and universities. (Photo: SRS)
More than 4,700 attendees recently filled the Augusta Convention Center in Georgia in search of higher education and career opportunities during the Savannah River Site Central Savannah River Area College Night. The Department of Energy’s Savannah River Site is in South Carolina.
Survey respondents (%) who favor or oppose the use of nuclear energy for electricity in the United States, 1983–2024. (Graph: Bisconti Research Inc.)
Ann Stouffer Bisconti has been surveying and analyzing the American public’s attitudes and knowledge about nuclear energy for more than four decades. Her research company’s 2024 survey proved to be especially revealing. “The 2024 National Nuclear Energy Public Opinion Survey contained such a wealth of information that I prepared nine reports” to cover all the collected data, she said.
A student demonstrates VR models of fission and fusion energy systems. (Photo: University of Michigan)
A new course at the University of Michigan offered by the Nuclear Engineering and Radiological Sciences (NERS) Department seeks to address the lack of community engagement in the design of energy technologies by pioneering a socially engaged approach.
Students using an ANS Visualizing Radiation Cloud Chamber. (Photo: Grace Stanke)
Nuclear science and technology is uniquely positioned to be a gateway for curiosity and exploration for students in grades K–12. Its study examines the literal fabric of reality, it has applications from the tiniest to the grandest of scales. It’s a constantly evolving industry with a bright future of discoveries and new technologies, and it’s an essential factor in our global effort to reduce carbon emissions and transition to cleaner energy sources. Frankly, learning about and doing things with atoms is pretty cool, from a kid’s perspective.
Representatives from Natura Resources, the Zachry Group, Abilene Christian University, the University of Texas–Austin, Texas A&M University, and the Georgia Institute of Technology with the construction permit at NRC headquarters. (Photo: Natura Resources)
The Nuclear Regulatory Commission issued a construction permit yesterday to Abilene Christian University, giving ACU and its partners the go-ahead to build the Molten Salt Research Reactor (MSRR) facility on its Abilene, Texas, campus. The 1-MWt research reactor is the first molten salt–fueled reactor to get a construction permit from the NRC. After Kairos Power’s Hermes, it is the second non–light water reactor construction permit issued by the NRC.
Tohoku University’s Sakura Hall was the site of a workshop coffee break and photo op. (All photos: University of Michigan/Tohoku University)
Tohoku University in Sendai, Japan, was the site of an advanced nuclear reactor workshop in late May that was hosted by the Fastest Path to Zero Initiative of the University of Michigan and Tohoku’s Center for Fundamental Research on Nuclear Decommissioning. The event was co-organized by the U.S. Consulate in Sapporo, Japan, and the Atlantic Council, which is associated with the North Atlantic Treaty Organization. The workshop, “The Potential Contribution of Advanced Nuclear Energy Technologies to the Decarbonization and Economic Development of Japan and the U.S.,” featured numerous American and Japanese academic authorities, government policymakers, executives of utilities and advanced reactor developers, and leaders of nongovernmental organizations. Also participating were students from both the University of Michigan and Tohoku University.