We all know that nuclear energy is the best energy source available—the safest and most reliable with the lowest life-cycle carbon footprint and the lowest environmental impact of any source, according to the latest UN report (unece.org/sites/default/files/2021-11/LCA_final.pdf).

The Wyoming Energy Authority (WEA) recently recommended nearly $10 million—$9,999,802 to be exact—in funding from its Energy Matching Funds (EMF) program for a proposed project to deploy a BWXT Advanced Technologies microreactor in the state. (BWXT AT is a subsidiary of BWX Technologies Inc.)

Steven Arndt
president@ans.org

It has always amazed me how broad and diverse the nuclear science and technology field is. It is one of the things that drew me to the nuclear business in the first place. The American Nuclear Society, with its eighteen technical divisions, embraces this diversity from accelerator applications and space nuclear to isotopes and robotics. We are truly a disparate group of engineers and scientists. Based on this, I guess I should not be surprised by the renewed interest we are seeing in uses of nuclear energy beyond the generation of electricity. In recent years, engineers and scientists from all around the world have focused on reducing the impact of electric energy generation on the environment and on finding ways to also reduce the impact of other industrial processes. What I have been seeing—including at COP27—is a renewed interest in nuclear power not only for electric generation but also for its unique capabilities in a diverse set of applications. To name only a few, I have seen strong interest in desalinization, hydrogen generation, process heat, and district heat.

Curtiss-Wright Corporation and small modular reactor developer X-energy have announced the signing of a preferred strategic supplier agreement to advance the design and deployment of the latter’s Xe-100 SMR.

Representatives of Ultra Safe Nuclear Corporation (USNC) of Seattle, Wash., and Hyundai Engineering of Seoul, South Korea, traveled last week between USNC project sites in Oak Ridge, Tenn., and Ontario, Canada, to sign two agreements extending their collaboration on the deployment of USNC’s high-temperature, gas-cooled Micro Modular Reactor (MMR). The agreements expand on a business cooperation agreement signed in January 2022 and an engineering agreement signed in June, and follow the closure earlier this month of a previously announced $30 million equity investment after its review by the U.S. Treasury Department’s Committee on Foreign Investment in the United States.

Can nuclear power plants prosper in the grid of 2030 or 2035, when new wind and solar farms will make electricity prices even more volatile? Can plants install energy storage that will help them keep running at full power, 24/7, to ride out times of surplus and sell their energy only when prices are high?

The U.K. government last week issued a “call for evidence” inviting stakeholders to weigh in on its choice of the high-temperature gas reactor for Britain’s £170 million (about $236 million) advanced modular reactor (AMR) demonstration program. The deadline for input on the government’s selection is September 9.

According to the Department for Business, Energy, and Industrial Strategy, the key objective of the AMR program is to demonstrate high-temperature heat production that can be used for low-carbon hydrogen production, process heat (for industrial and domestic use), and cost-competitive electricity generation in time for an AMR to support the government’s commitment to reduce greenhouse gas emissions to net zero by 2050. The target for enabling an AMR demonstration is the early 2030s.

Global First Power’s (GFP) Micro Modular Reactor (MMR) project has moved to the formal license review phase with the Canadian Nuclear Safety Commission (CNSC), becoming the first small modular reactor to do so.