Oklahoma is asking the federal government to build a nuclear energy campus here.

Nothing has been approved. No site has been chosen. No reactor design has been selected, and two of the five states still in contention will not be.

An official publication of the State of Oklahoma.Facts last reviewed .Every document behind this page.

Quick answers about nuclear safety

The process

What actually happens, start to finish

Four stages of one process, and a fifth left open. Pick a stage below to see it drawn. Every drawing is a generic archetype — not a vendor's design, not a facility's plan, and not a proposal for any site.

Diagram: generic enrichment and fabrication sequence. Not a specific facility and not a proposal for any site.

Where the fuel comes from

Generic conversion-and-enrichment archetype — gas centrifuge cascade

Uranium starts as ore in the ground. It is milled into a coarse powder, converted to a gas, and spun in centrifuges until the useful isotope is slightly more concentrated. Then it is pressed into ceramic pellets — one pellet, about the size of a fingertip, carries roughly as much energy as a ton of coal.

  1. 01

    Milled ore

    Mined uranium, crushed and concentrated into a stable powder.

  2. 02

    Conversion

    The powder becomes a gas, because a gas is what a centrifuge can spin.

  3. 03

    Centrifuge cascade

    Rows of spinning cylinders, each nudging the concentration up a little. It takes thousands, working in series.

  4. 04

    Enrichment level

    Commercial fuel stays around five percent — far below weapons grade, and physically incapable of exploding like a bomb.

  5. 05

    Fuel pellets

    The gas becomes a hard ceramic pellet, stacked and sealed inside metal rods.

Diagram: generic pool-type research reactor with beam lines. Not a vendor design and not a proposal for any site.

More than electricity

Generic research-reactor archetype — pool type, with beam lines

Before any material goes into a power reactor, it spends years being tested in a research reactor — a small core built for science, not electricity. The same neutrons that test new alloys also make the medical isotopes used to image and treat cancer. This is the campus work: research, materials development, and the people trained to do it.

  1. 01

    Research core

    A small core at the bottom of a deep pool of ordinary water. The water is the shielding — you can stand at the rail and look in.

  2. 02

    Materials development

    New alloys and fuels sit in the neutron flux for months or years, aging decades in fast-forward, before any power plant is allowed to use them.

  3. 03

    Beam lines

    Neutrons are piped out through tubes to instruments that can see inside solid metal.

  4. 04

    Medical isotopes

    The same core produces the short-lived isotopes hospitals use for imaging and cancer treatment.

Cutaway diagram of a generic integral pressurized water reactor A tall steel pressure vessel stands inside a domed containment shell. The core sits at the bottom of the vessel. Control rods enter from the top. A steam generator and a pressurizer sit within the same vessel, and a coolant loop circulates between them. Steam leaves through a pipe on the right toward a turbine.
Diagram: generic integral PWR archetype. Not a vendor design and not a proposal for any specific site.

What the plant actually is

Integral pressurized water reactor (iPWR). Generic by design — Oklahoma has not selected a reactor technology, and drawing a specific vendor's design would imply a decision that has not been made.

It is a very well contained hot thing that boils water. The steam spins a turbine, and the turbine makes electricity — the same last step as a coal plant or a gas plant. What differs is how the heat is made, and how much of the plant exists to make sure the heat never gets out.

  1. 01

    Containment vessel

    The steel and concrete shell around everything else.

  2. 02

    Reactor pressure vessel

    The thick steel bottle that holds the fuel and the water.

  3. 03

    Core

    Where the fuel sits. This is the part that gets hot.

  4. 04

    Control rods

    Slide down to slow the reaction. Gravity drops them if power is lost.

  5. 05

    Steam generator

    Hot water on one side boils clean water on the other. The two never mix.

  6. 06

    To the turbine

    Steam leaves here, spins a turbine, and makes electricity. Same as a coal or gas plant.

Diagram: generic deep-borehole concept. A disposal method under study — not a licensed pathway and not a proposal for any site.

Putting the fuel away

Generic deep-borehole disposal archetype

Spent fuel comes out solid and stays solid. It cools in a pool, then moves into steel-and-concrete casks. The long-term answer being studied is deeper still: a borehole drilled thousands of feet down, below any groundwater, into rock that has not moved in millions of years — then sealed behind it on the way back up.

  1. 01

    Cooling pool

    The first years after use, underwater. The water handles both the heat and the shielding.

  2. 02

    Dry casks

    Sealed steel and concrete, on a guarded pad, tracked gram by gram.

  3. 03

    The borehole

    Drilled far below any aquifer, into rock formations that have been stable for geological time.

  4. 04

    Sealed canisters

    Fuel goes down in corrosion-resistant canisters, one after another, in the bottom section of the hole.

  5. 05

    The seal

    The hole is plugged with rock, clay, and concrete on the way out. Nothing about it depends on anyone maintaining it.

The same last step

People have been boiling water to do work for three hundred years.

  1. 1712

    The first working steam engine

    Thomas Newcomen built an engine to pump water out of a coal mine. Fire boiled water, steam moved a piston, the piston did the work.

  2. 1884

    Steam starts making electricity

    Charles Parsons' steam turbine turned boiling water into electric current. Every coal, gas, and nuclear plant since has used the same last step.

  3. 1905

    Glenn Pool

    The strike near Tulsa that made Oklahoma an energy state before it was a state. Statehood followed two years later.

  4. 1913

    Oklahoma builds out its grid

    PLACEHOLDER — needs a sourced Oklahoma milestone for early generation. Do not publish without a citation.

  5. 1957

    The first commercial nuclear plant

    Shippingport, Pennsylvania. Heat from fission replaced heat from coal. The turbine did not change.

  6. 2015

    Oklahoma becomes a wind state

    PLACEHOLDER — needs the sourced year and ranking for Oklahoma wind generation.

  7. 2026

    SB 130 and the federal MOU

    The Oklahoma Energy Initiative Act directed a feasibility study, delivered March 2026. A memorandum of understanding with the federal government was signed July 27, 2026.

The heat source keeps changing; the work does not. Oklahoma has carried every era of it for more than a century: oil before statehood, then gas, then wind. What is proposed now is the next era, not a departure.

The whole case

Six questions, answered first and argued second.

Is it safe, and what happens if it fails?

A modern reactor can lose all power and still cool itself. That is the design change that matters, and it is the reason this is being considered at all.

The accidents people remember are Three Mile Island, Chernobyl, and Fukushima. Two of the three came down to the same thing: 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, of a type that was never built in the United States.

The reactors under discussion here are built so that if every pump stops and every wire is cut, water still moves — by gravity and by heat rising — for days without anyone doing anything. Nobody has to get to the site. Nobody has to make a decision.

That is not the same as saying nothing can go wrong. It means the specific way things went wrong before has been engineered against. What is left is on the list of things this site concedes below.

What happens to the spent fuel — what is usually called nuclear waste?

It stays on site, in steel and concrete casks, above ground, indefinitely. There is no national repository, and pretending otherwise would be the easiest lie on this page.

Spent fuel is the technical term. Most people say nuclear waste, and that is the phrase this page will use once so it is clear we are talking about the same thing.

After about five years in a pool of water, used fuel is sealed into a cask — steel inside, concrete outside, roughly the size of a grain silo. The casks sit on a concrete pad at the plant. They do not leak, they do not need power, and they are inspected on a schedule that is public.

The honest part is this: they were meant to be temporary. A permanent national repository has been promised since the 1980s and has not been built. Every plant in the country is storing its own spent fuel because there is nowhere else to send it. If Oklahoma builds this, Oklahoma will be storing its own too, and it should be assumed that will be the case for the life of the plant and beyond.

What does it do to my water, my land, and my property?

Water use is the real constraint, and it is the question the state has answered least well so far.

A thermal plant needs water to condense steam back into liquid. How much depends entirely on the cooling design, and the difference between the options is large — large enough that quoting a single number before a site and a design are chosen would be misleading.

What can be said now: no site has been selected, no water right has been requested, and any request would go through the Oklahoma Water Resources Board in a public process with the same standing to object that any other applicant faces.

On property: there is no eminent domain authority attached to this proposal. If that changes, it changes in public, in statute, and this page will say so.

Source
  • Oklahoma Water Resources Board — allocation data — contested: No site-specific water assessment has been published, because no site has been selected.

What does it pay, who gets hired, and when?

Construction jobs come first and are temporary. The permanent operating jobs are fewer, better paid, and roughly a decade out.

The pattern at every plant of this kind is the same, and it is worth being straight about the shape of it rather than the size.

Construction employs the most people and employs them for the shortest time. Those are trades jobs — electricians, pipefitters, welders, operators — and they end when the plant is finished. Operating the plant afterward takes far fewer people, pays better, and lasts sixty years.

The federal program’s own figure is about 25,000 jobs spread across every campus it selects, which is up to three states. Oklahoma’s share is not established. Any number you see for Oklahoma alone right now, including numbers from people who support this, is an estimate that has not been independently reviewed.

Training pathways through the CareerTech system and the state’s universities are under discussion and are not yet committed. When they are, they will be listed in the record with dates.

Source
  • U.S. Department of Energy, Nuclear Lifecycle Innovation Campus program materials — contested: Program-wide figures cover up to three states. No Oklahoma-specific employment estimate has been published or independently reviewed.

Why Oklahoma, and why now?

Because the federal government is choosing up to three states by the end of 2026, and Oklahoma applied.

The timing is not Oklahoma’s. The Department of Energy opened a competition for a Nuclear Lifecycle Innovation Campus, five states are finalists — Oklahoma, Utah, Tennessee, Louisiana, and Idaho — and up to three will be selected by the end of 2026.

The case Oklahoma made is the one it has: an existing energy workforce, existing transmission, and a regulatory apparatus that has permitted large energy infrastructure for a century. That is a real argument and it is also the same argument the other four states are making.

Why it is being discussed now, publicly, is simpler. The state signed a memorandum of understanding on July 27, 2026, and a memorandum of understanding is the point at which a thing stops being internal.

Source
  • Memorandum of understanding, State of Oklahoma and the U.S. Department of Energy, July 27, 2026
  • SB 130, the Oklahoma Energy Initiative Act

What is not yet decided?

Almost everything. No site, no reactor design, no cost to ratepayers, and no guarantee Oklahoma is selected at all.

This is the section most likely to be out of date, so it carries the review date at the top of the page.

Not decided: which county, which reactor technology, which utility or federal entity would own it, what it costs, who pays for it, what happens to rates, and whether the Department of Energy selects Oklahoma at all. Two of the five finalists will not be selected.

Decided: that the state asked, that the study was done and published, and that the memorandum was signed.

If Oklahoma is not selected, this page will say so, and the explanatory material about fission and the fuel lifecycle will remain here because it was true either way.

Source
  • Memorandum of understanding, State of Oklahoma and the U.S. Department of Energy, July 27, 2026
Stated plainly, before anyone else states it

What is genuinely wrong with this, and what nobody knows yet.

Nothing below is contested by the state. These are the real costs, the real risks, and the questions that do not have answers yet. If any of it changes, this section changes with it and the date on the page moves.

If it happens

What it would actually be worth.

These are program-wide federal figures across every campus the Department of Energy selects, not Oklahoma's share. Oklahoma's share depends on a decision that has not been made. Where a number is a range, the range is shown.

1 of 5
states still in contentionSourceU.S. Department of Energy, Nuclear Lifecycle Innovation Campus programIn the record
up to 3
states selected, by the end of 2026SourceU.S. Department of EnergyIn the record
~25,000
jobs, program-wide across all selected campusesRangeOklahoma's share is not established. Internal state estimates run 10,000–15,000.SourceU.S. Department of Energy program materialsDisputedNo independent estimate of Oklahoma-specific employment has been published.AssumesAll three campuses built and operating. Includes construction, which is temporary.
The record

Everything this page is built on, and everything still owed.

Documents are listed whether or not they exist yet. A row with an expected date is a commitment; a missing row would be an absence.

Not yet publishedExpected March 1, 2027State of Oklahomareportv1.0

Site selection criteria

The criteria by which a site would be screened, if Oklahoma is selected. Not yet written.

This row exists because the question “where would it go” is the one asked most often, and an empty space where the answer belongs reads as concealment. When this document exists, it will appear here with its comment period.

Not yet released. Expected March 1, 2027.

PublishedState of Oklahoma and the U.S. Department of Energyagreementv1.0

Memorandum of understanding with the U.S. Department of Energy

The agreement signed on July 27, 2026, under which Oklahoma proceeds as a finalist for the Nuclear Lifecycle Innovation Campus program.

A memorandum of understanding is not a contract and not an approval. It sets out what each party will do while the selection is pending.

PublishedOklahoma Corporation Commission, with the Hamm Institute for American Energystudyv1.0

Nuclear feasibility study

The study SB 130 required, delivered in March 2026. It assesses whether advanced nuclear generation is technically and economically feasible in Oklahoma, what it would require of the grid, and what the regulatory path would look like.

It is a feasibility assessment. It does not recommend a site or a technology.

PublishedOklahoma Legislaturestatutev1.0

SB 130 — the Oklahoma Energy Initiative Act

The statute behind everything else on this page. It directed the Oklahoma Corporation Commission to study whether nuclear generation is feasible in Oklahoma, and it is the reason the study below exists.

It does not approve a reactor, authorize a site, or commit state money to construction.

The full register