A joint resolution under consideration in the Wisconsin legislature aims to declare and promote the state’s support for nuclear power and willingness to deploy additional sources.

A recent article on University of Michigan’s Department of Nuclear Engineering and Radiological Sciences (UMich NERS) website highlights the university’s work on the application of artificial intelligence to nuclear engineering. Python-based Michigan Artificial Intelligence Standard Environment (pyMAISE) is a project that is providing an “automatic machine learning benchmarking library—the first of its kind created by nuclear engineers for nuclear engineers.”

Seeking spacecraft that can “maneuver without regret,” the U.S. Space Force is investing $35 million in a national research team led by the University of Michigan to develop a spacecraft with an onboard microreactor to produce electricity, with some of that electricity used for propulsion. But this spacecraft would not be solely dependent on nuclear electric propulsion—it would also feature a conventional chemical rocket to increase thrust when needed.

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.

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.

The first Harper Academy 4 Future Nuclear Engineers was held recently at the University of Michigan. The four-week program provided eight rising high school seniors with classes in nuclear engineering fundamentals, mathematics, technical skills, design, community engagement, and college preparation. While taking the course, the students stayed at Bursley Hall on the university’s Ann Arbor campus.

Comprehensive analysis of 245 operational coal power plants in the United States by a team of researchers at the University of Michigan has scored each site’s advanced reactor hosting feasibility using a broad array of attributes, including socioeconomic factors, safety considerations, proximity to populations, existing nuclear facilities, and transportation networks. The results could help policymakers and utilities make decisions about deploying nuclear reactors at sites with existing transmission lines and a ready workforce.

Results of two new surveys have shed light on American public opinion regarding nuclear energy. The surveys, which were conducted with very different methods, offer generally encouraging news for the nuclear industry.

Ensuring that nuclear technology is used exclusively for peaceful purposes remains a critical challenge for our society today. The global community faces several grave nuclear security threats: nations that attempt to create (such as Iran) or augment (such as Russia, China, and North Korea) their nuclear arsenals, acts of aggression that target civilian nuclear reactors (as seen with Russia in Ukraine), and the looming menace of nuclear weapons deployment (emanating from Russia). Furthermore, addressing climate change necessitates an expansion of nuclear energy for electricity generation, which brings with it the need for safeguarding and regulating the deployment of advanced reactors.

The University of Michigan’s Fastest Path to Zero Initiative has launched the Global Fusion Forum, an online platform focused on fusion energy. It was created to foster international engagement and collaboration in the area of fusion technology.

Charles Harper (seated) with son Jeff (right) and grandson Phillip (left). (Photo: Otis Waters)

Charles L. Harper understands disadvantage. It was his personal drive and love for learning that pushed him to leave inner-city Detroit, join the U.S. Navy, earn degrees in psychology from Wayne State University and the University of Detroit, and enjoy a successful career as a clinical psychologist. He served as a strong role model for his son Jeffrey, who is an entrepreneur and international energy executive.

The Harper men have many things in common. According to Jeffrey, “Both my dad and I share a common self-motivation and a love for learning, but the most critical thing we share is the continual quest for opportunity, which led us both to moments of predestination that changed our lives.” And now, in honor of his father, the younger Harper has used these qualities to found Charles Harper Charities (CHC) with the aim of introducing disadvantaged youth to the world of nuclear engineering.

One CHC offering helps rising high school seniors attend a summer program to prepare them for college and introduce them to nuclear engineering. This summer’s Nuclear Engineering Opportunity Program, which will be CHC’s inaugural course, will be held at the University of Michigan in conjunction with the Department of Nuclear Engineering and Radiological Sciences (NERS) and the College of Engineering’s Office of Culture, Community, and Equity. The monthlong residential course will host rising seniors from Detroit at no cost to them and will introduce them to STEM subjects and provide tours of nearby nuclear facilities.

The Japan-U.S. Decommissioning Workshop Series continues on February 8–9 when its second forum meets to discuss the handling of low-level radioactive waste (LLW) generated during the decommissioning process and how improved LLW management can reduce risk.

Registration for the online event is required. The registration deadline is 2:00 a.m. (EST) on February 5.

Tohoku University and the University of Michigan are jointly sponsoring a series of workshops focused on sharing experiences between Japan and the United States on the decontamination and decommissioning of commercial nuclear power plants.

A full agenda for the workshop can be found here.

The deadline for registration is August 1. A registration form, along with further information, can be found here.

Fusion energy research has seen exciting recent breakthroughs. The National Ignition Facility (NIF) at Lawrence Livermore National Laboratory has achieved ignition,^1,2 and in the United Kingdom, the Culham Centre for Fusion Energy’s Joint European Torus (JET) has produced a record 59 megajoules of fusion energy.³ Against this backdrop of advances, we provide an account of the earliest fusion discoveries from the 1930s to the 1950s.* Some of this technical history has not been previously appreciated—most notably the first 1938 reporting of deuterium-tritium (DT) 14-MeV neutrons at the University of Michigan by Arthur Ruhlig.⁴ This experiment had a critical role in inspiring early thermonuclear fusion research directions. This article presents some unique insights from the extensive holdings within Los Alamos National Laboratory’s archives—including sources typically unavailable to a broad audience.

The Department of Energy’s Advanced Research Projects Agency–Energy (ARPA-E) announced $10 million in funding on February 17 for eight projects designed to determine whether low-energy nuclear reactions (LENR)—historically and sometimes disparagingly known as “cold fusion”—could someday be a carbon-free energy source. ARPA-E intends the funding to “break the stalemate” and determine if LENR holds any merit for future energy research.

In a follow-up to A Step-by-Step Guide to Nuclear Innovation Policy, which was released by think tank Third Way in 2016, the Fastest Path to Zero Initiative of the University of Michigan has now published “Young Carla,” an eponymous “prequel” about a fictional nuclear engineering student. Carla was introduced in the 2016 report as a graduate nuclear engineering student with an idea for a new type of nuclear energy technology. The report explained how wise policy decisions in the United States could improve government-private partnerships so that Carla’s idea could be commercially demonstrated.

The use of small modular reactors would be an excellent, cost-effective way to recharge electric heavy-duty vehicles (HDVs), such as trucks, according to a recent study published in Applied Energy. The Idaho National Laboratory–funded study was conducted by researchers at the University of Michigan.

Busby

American Nuclear Society member Jeremy Busby has been named associate laboratory director for the Fusion and Fission Energy and Science Directorate at the Department of Energy’s Oak Ridge National Laboratory, effective January 1.

Busby will oversee the directorate’s facilities, capabilities, and scientists and engineers who are tackling such challenges as extending operations of the current U.S. nuclear reactor fleet, investigating economical and flexible advanced reactor systems, and making fusion energy a viable part of the nation’s energy portfolio.

“ORNL has a proud history of addressing compelling challenges in both fusion and fission energy systems, and I’m honored to contribute to our success moving forward,” Busby said. “ORNL’s Fusion and Fission Energy and Science Directorate has the world-leading expertise to advance the development and deployment of both fusion and fission. Combined with the additional strengths across ORNL’s research and support organizations and ORNL’s unique capabilities, we will fortify our nation’s energy transition.”

The 2022 Michigan Engineering Research and Graduate Education (EMERGE) event will be held from Sunday, October 30 to Tuesday, November 1, at the University of Michigan College of Engineering in Ann Arbor. The expenses-paid, three-day event is designed to introduce a diverse cohort of prospective students to Michigan engineering doctoral programs.

With three commercial teams under contract to produce reactor designs for nuclear thermal propulsion rockets that would use solid high-assay low-enriched uranium fuel to heat hydrogen propellant, NASA’s investment in nuclear thermal propulsion (NTP) has increased in recent years. But just as there is more than one way to fuel a terrestrial reactor, other fuels are under consideration for future NTP rocket engines.