Questions people ask.

This is not a reactor with a fence around it.

A lifecycle campus covers the whole arc of the technology in one place: the research that designs a reactor, the manufacturing that builds its components, the fuel work at both ends of its life, and the training that staffs it. That means laboratories and machine shops alongside generation, and universities, private companies, national laboratories and government partners on the same ground.

Energy is the anchor but it is not the whole story. A campus like this pulls aerospace, advanced manufacturing, materials science and the supply chains underneath them, sectors Oklahoma already has.

Oklahoma has powered this country for over a hundred years. The workforce is here. The transmission is here. The agencies that permit large energy projects have been doing it since statehood. Advanced nuclear is the same work in its next form.

Oklahoma has no nuclear program to keep running alongside this one — no aging fleet, no forty-year-old decisions to design around, no habits inherited from a different era of the technology. The state builds it right from day one, with current technology, current standards, and a workforce trained for what is actually being built.

As for why now: the Federal Department of Energy opened a competition for a nuclear lifecycle campus and drew twenty-eight applications from twenty-six states. Five states are left — Oklahoma, Utah, Tennessee, Louisiana and Idaho. Three will be selected by the end of 2026.

Oklahoma signed a memorandum of understanding with the Department of Energy on July 27, 2026, and was named a finalist the same month. The state is competing, and it intends to win.

Not yet, but the decision is close. Twenty-eight applications came in from twenty-six states. Five states are left: Oklahoma, Utah, Tennessee, Louisiana and Idaho. Three will be chosen by the end of 2026.

The state commissioned the feasibility study and signed the federal memorandum of understanding.

If Oklahoma is selected, the state and the federal government launch a joint program to work the details out together — where it goes, what gets built, and on what schedule. Communities across the state compete to host it, using criteria published in advance.

Everything published so far is in the documents on this site, and everything that program produces will be added to them.

Private companies build it, and private capital pays for it with federal support.

The federal role is a partnership, not a purchase. The memorandum of understanding Oklahoma signed in July 2026 sets up the state and the Department of Energy to work the program out together if Oklahoma is selected. It is also published here.

The Nuclear Regulatory Commission does. It has regulated commercial nuclear power in the United States since January 1975, when Congress separated the job of regulating the industry from the job of promoting it. It is an independent federal agency, and it is not part of the Department of Energy, not part of the state, and not answerable to whoever wants the facility built.

The NRC writes the rules, reviews the design, issues the license, and inspects against it for the life of the facility. Its inspectors are resident at operating plants rather than visiting. It can order a plant to stop, and it has. A design that cannot demonstrate what the rules require does not get built, and no amount of state enthusiasm changes that.

The review is public. Applications, safety evaluations, inspection reports and hearing records are federal documents anyone can request or read online, and communities near a proposed site have formal standing to participate.

Oklahoma’s own agencies handle the parts that are not radiological — water allocation, roads and transport, emergency planning coordination with local responders, and the utility economics that fall to the Corporation Commission. Those processes are public too, and they are the ones an Oklahoman is most likely to have dealt with before.

Nuclear technology is not new. It is proven, well understood, and one of the most heavily regulated industries in the country. Every U.S. nuclear plant operates under continuous oversight from the Nuclear Regulatory Commission, an independent federal agency dedicated solely to nuclear safety, and every plant is built with multiple redundant safety systems designed so that no single failure can cause harm.

Most people think of three accidents: Three Mile Island, Chernobyl, and Fukushima. In two of the three, the same thing went wrong. The reactor was shut off, but the fuel was still hot, and the pumps that were supposed to keep cooling it lost power. Chernobyl was a different design with no containment building, and that type was never built in the United States.

The newest designs are smaller, safer, and go further. The reactors being talked about here cool themselves: if the power goes out and every wire is cut, water still moves on its own — heat pushes it up, gravity pulls it back down — and it keeps doing that for days with no outside intervention. Nobody has to drive to the plant. Nobody has to make a decision in the middle of the night. They are engineered to shut themselves down if something goes wrong, without human action or even electrical power required.

The safety comes from physics rather than from somebody reacting in time. A design has to demonstrate that to the Nuclear Regulatory Commission before it is licensed, and the demonstration is a federal document anyone can read.

The United States has operated commercial nuclear power plants for more than sixty years, and today 28 states have operating nuclear plants generating close to one-fifth of all U.S. electricity. That record is the product of a regulatory system built specifically to keep it that way.

Not in the way the phrase usually means. A power plant makes electricity and that is its whole job. This is a campus, and generation is one building on it.

The rest is the work around the technology: laboratories designing reactors and testing materials, manufacturing that builds components, fuel work at both ends of a reactor’s life, and the training programs that produce the people who do all of it. Universities, private companies, national laboratories and government partners share the site.

A reactor is expected to be part of it. Reactors are how a campus like this proves what it builds, powers what it runs, and produces the medical isotopes hospitals depend on.

The distinction matters for what a host community is actually getting. A power plant is a facility. A campus is an industry — research money, university programs, supply-chain firms, and careers that do not end when one project does.

No. The campus is a research park, an advanced manufacturing center and a training ground. Storing the country’s used fuel is not what it is for, and it is not what Oklahoma applied to host.

Where used fuel does come into it is as a research subject. The assumption underneath this question is that used nuclear fuel is finished. It is not. Roughly ninety-five percent of the energy in a fuel assembly is still in it when the assembly comes out of the reactor. It is removed because the geometry and the chemistry stop working, not because the energy ran out.

Recovering that energy is one of the open problems in nuclear engineering. France operates a plant that does a version of it, and other countries have built their own; the United States does not do it commercially. It is exactly the kind of problem a lifecycle campus exists to work on — a research question with laboratories, universities and national labs on the same ground.

That is a long way from a place where material is delivered and left. What used fuel is, and how it is handled at a plant today, is answered next.

Used fuel is what is left after fuel has done its work in a reactor. It is solid — ceramic pellets sealed inside metal tubes. It is not a liquid, and it is not a sludge in a barrel. It is countable: every assembly has a number, and somebody signs for it.

It sits in a pool of water for about five years while it cools off. The heat and the radiation both come from the fuel breaking down, and the parts that break down fastest go first — so used fuel is at its most active the day it leaves the reactor, and it gets quieter every day after. That is what the five years are for. By the end of them there is little enough heat left that the water is no longer doing any work.

Then, currently, it is sealed into a cask — steel on the inside, concrete on the outside, about the size of a grain silo. The casks stand on a concrete pad at the plant. They do not leak. They do not need power. That is what happens today, everywhere in the country; what this campus proposes for the long run is at the end of this answer.

There is less of it than people expect. Everything the whole country has produced in sixty years would fit on one football field.

What happens to it in the long run is a federal question. A permanent national site has been discussed since the 1980s and has not been opened. Storage, recycling and disposal are all still being evaluated at the federal level, which is why every plant in the country stores its own on site today.

Proposed in our application is the creation of deep bore drilling storage. Using the same technology used to drill wells, used fuel would be sealed into solid rock well below the water table in rocks which haven’t moved in a millenia where it can do no harm.

Oklahoma is going to have tornadoes, and anything built here has to be built for that. A reactor building is not a warehouse. It is a thick, steel-reinforced concrete structure with no windows, and part of what it has to prove to get licensed is that it can take a direct strike — the wind itself, and the pieces of everything else that the wind picks up and throws.

The more ordinary thing a tornado does to a power plant is cut its power. That is what happened in Ohio on the evening of June 24, 1998. A tornado came down at the edge of the Davis-Besse plant’s site on Lake Erie and tore out the transmission lines running away from it. The reactor shut itself down automatically the moment those lines went, the plant’s own backup generators picked up the cooling equipment, and nothing was released. The storm did far more to the barns and the apartment building down the road than it did to the plant.

An ice storm ends the same way, and so does a flood, and so does anything else that takes the grid down. The event a plant has to be ready for is almost always the loss of its outside power.

This is also not new ground. Arkansas, Missouri, Nebraska, Tennessee, Texas and Alabama all run nuclear plants, and every one of those states gets tornadoes. Building for severe weather is ordinary engineering in this part of the country, and the licensing standard is federal — the same one, whatever state the plant sits in.

That is the part the designs being considered here answer most directly. A reactor that keeps cooling itself with no electricity at all does not need the generators to start, and does not need anyone to reach the site in the middle of the weather. The thing severe weather is most likely to do will have no negative impact on SMR reactor designs other than temporarily shutting them down until external power is restored.

Seismic conditions are one of the first things a nuclear site has to characterize. Before a design is chosen, an applicant measures the ground — the faults near it, the soil under it, the strongest shaking the site can reasonably be expected to see — and then the facility is engineered to withstand more than that. The Nuclear Regulatory Commission reviews that analysis independently, and a site that cannot support the case does not get licensed. It is a site-specific requirement, not a national default.

Plants operate in far more active ground than this. California runs a two-unit plant on a coastline with mapped active faults, designed and licensed for that setting. Seismic engineering for nuclear facilities is a mature field with decades of practice behind it, and it is one of the most heavily reviewed parts of any application.

What Oklahoma would bring to that review is unusual: a decade of instrumented seismic data and a regulator that has already used it. A site is easier to characterize honestly when the shaking has been measured for years rather than estimated.

A big thermal plant needs a lot of cooling water. A small reactor is a different scale of machine altogether — far less heat to shed, and far less water to shed it with. Several designs in this class are cooled by air instead, which uses almost none.

Any water a plant did need would be applied for through the Oklahoma Water Resources Board, in public.

As to the question of what used fuel might do to Oklahoma drinking water, there will be none. When the fuel is well and truly finished, then deep bore technology will seal it in steel and rock well below the water table where it will lie essentially inert for thousands of years.

Nobody has the power to take land for this project. It is not a condemnation proceeding and it is not a route being drawn across a map in Oklahoma City.

The process runs the other way around. A community that wants it raises its hand. A community that does not, does not — and that is the end of it for that community.

A Nuclear Lifecycle Innovation Campus brings with it research dollars, manufacturing income, jobs, technology, and all the benefits that surround it. Communities who wish to benefit from these things will have a chance to compete to host the final campus.

That invitation is open to Tribal Nations, county and municipal governments, universities, industry, and landowners who want their area considered. The communities that host help shape what gets built on the site, which is part of Oklahoma’s proposal to the Department of Energy.

Building the campus employs the trades. Electricians, pipefitters, welders, equipment operators. That work comes first and it is substantial.

The campus’s own permanent work is making things. This is where small modular reactors and their components would be manufactured — fabrication floors, machine shops, and the fuel work at both ends of a reactor’s life. Those are manufacturing careers: machinists, welders certified to code, quality inspectors, instrument technicians. They belong to the campus itself, and they last as long as the industry does. These are jobs our grandchildren should continue to enjoy.

Then there are the plants. The reactors built here are meant to go into service around the state and beyond, and every one that does needs a permanent staff for as long as it runs — sixty years is normal. A licensed plant is closer to a small town than to a power station: it staffs its own around-the-clock emergency response, its own health physics and chemistry, its own security force.

The third piece: research and development, materials science, and the medical isotopes that hospitals depend on. Those are laboratory and engineering careers, and they arrive with the universities and the research money that follow them.

That is a technical sector Oklahoma has been looking to expand. Once it exists it is not tied to any single project: the training pipelines, the university programs and the specialist firms serve whatever the state does next. A student who wants that work would have a reason to train here, and somewhere to go when they finish.

The Nuclear Lifecycle Innovation Campus represents more than a single construction project — this is an opportunity to build something generational for Oklahoma. The jobs it creates would include high-paying, technical careers in nuclear operations, engineering, and safety that could support families for decades. Oklahoma’s universities are already building training pipelines so today’s students and workers can step into these careers, meaning the benefits extend to the next generation of Oklahomans, not just the current workforce.

Beyond jobs, the project would bring new investment in infrastructure that could serve entire regions of the state well beyond the campus itself, and it would establish Oklahoma as a hub for research and education in nuclear science — strengthening university programs, attracting new researchers and students, and giving young Oklahomans a reason to build their careers at home instead of leaving the state.

The benefits of hosting a campus in Oklahoma could reach well beyond the campus itself, including:

• Positioning Oklahoma as a national leader in nuclear innovation and power generation
• Sustained infrastructure investment — roads, power, and water — benefiting regions across the state, not just the host community
• New opportunities for local businesses and manufacturers in the supply chain
• Expanded, long-term workforce training pipelines through Oklahoma’s universities and CareerTech system
• Billions of dollars in additional private investment in the state
• Faster deployment of advanced nuclear technology, keeping Oklahoma ahead of other states pursuing similar projects

Read the record. Every document behind this program is published on this site — the statute, the feasibility study, the federal memorandum of understanding — and each one carries its date, its issuing body and its version. Documents that do not exist yet are listed too, with the date they are expected.