There was a positive vibe at this year’s NRC Regulatory Information Conference (RIC), which took place in Rockville, MD, on March 8-10. Held annually, “the RIC” is the largest conference of nuclear energy professionals in the world. RIC sessions cover numerous topics du jour, including justifiable pride by regulators and industry alike in the safety improvements made in the wake of the earthquake, tsunami, and nuclear emergency that occurred at Fukushima-Daiichi; anticipation of second license renewals that will further extend the useful life of our operating fleet of 100 reactors; and excitement about new, advanced design nuclear plants. The future was a recurring theme of the 2016 RIC.
While we can’t predict the future, there are a few things we can say for sure:
- The demand for electricity and the myriad benefits it brings will continue to grow.
- Demands will increase for our electricity be clean and carbon free, without compromising the reliability we’ve come to take for granted.
- Energy markets are not monolithic. There is no one-size-fits-all solution to the challenge companies face to provide clean, reliable and affordable electricity in the various regions communities they serve.
Because we know just those few things about the decades ahead, we are working hard to enable an all-of-the-above nuclear future that includes a portfolio of technology options, including
- Large LWRS
- Light water SMRs
- And non-LWR reactors
And the future of nuclear is here already.
In Tennessee, Watts Bar 2 received its operating license last October and will soon become the first new nuclear plant to come on line in the US since 1996. Utilities in Georgia and South Carolina are busy building the first plants licensed under the NRC’s new plant licensing process, known as Part 52. These four Westinghouse AP1000 units are also the first NRC-certified designs that employ passive features to achieve enhanced levels of safety.
|TVA CEO Bill Johnson celebrates receipt of Watts Bar 2 operating license.|
NuScale is farthest along among SMR vendors and plans to submit its design certification application to NRC by the end of this year. NuScale is working closely with Utah Associated Municipal Power Systems on plans to license and build the lead NuScale plant in Idaho in the early 2020s. TVA is also considering adding an SMR to its system and will apply to NRC for an Early Site Permit at the Clinch River site later this year.
|NuScale Power Module|
Beyond SMRs, advanced non-LWR reactors have great potential as a strategic energy technology to supplement the existing light water reactor technologies and provide reliable, clean carbon-free, affordable electricity generation.
Advanced reactors can be large or small, or even very small, and can differ substantially from LWRs. In addition to simplified, passive safety systems, non-LWR reactors may have advanced fuel cycles that reduce waste. Some operate at near atmospheric pressure, which offers significant design and safety benefits. Most operate at very high temperatures, making them well suited to process heat applications such as hydrogen production and desalination.
Though some years away from commercial availability, advanced non-light water reactors are generating a lot of interest today among policymakers, environmentalists, venture capitalists, industry leaders and leaders outside our industry such as Bill Gates. DOE is supporting advanced reactors in a variety of ways, including research, development, testing and demonstration. And Congress is weighing in too. The House and Senate passed companion bills last month supporting the use of DOE’s unique testing and analysis facilities to accelerate development of advanced reactors, and additional legislation is under consideration.
Generating companies need a range of advanced reactor options – an all-of-the-above menu, so to speak – so they can choose the technology that best meets their needs.
We are experiencing a convergence of experience and ingenuity that we want to leverage to make the design certification and licensing process more efficient in the future. We are feeding lessons learned from the lead AP1000 projects into the licensing and development of SMRs and other advanced technologies.
The success of these efforts will mean substantially improved process efficiency and plant economics, which is important to enable nuclear plants to provide the reliable and carbon free electricity that our industry, our country, and our planet so desperately need.