2022 Was a Black Swan Year for Nuclear Energy

In hindsight, 2022 may be the most consequential year for nuclear energy in decades.

Three events — geopolitical, technological, and scientific — collided within ten months and quietly reset the trajectory of global power demand and energy strategy.

Almost no forecast model captured all three.

1️⃣ February 2022: Energy Became National Security

Russia’s invasion of Ukraine shattered long-standing assumptions about global energy stability.

Gas supply became a geopolitical weapon. Fuel security became a strategic vulnerability. Allies were forced to reassess dependency risks in real time.

For the first time in decades, policymakers openly acknowledged:

Energy security is national security.

Nuclear reentered the conversation not merely as a climate solution, but as sovereign infrastructure.

That framing has not gone away.

2️⃣ November 2022: AI Broke the Load Forecast

For years, electricity demand projections in the U.S. were largely flat.

Efficiency gains were expected to offset growth. Planning assumptions reflected incremental change.

Then in November 2022, ChatGPT was released to the public.

Within months:

• Hyperscale AI data centers expanded rapidly

• Utilities revised long-term load forecasts

• Gigawatt-scale firm capacity planning reentered boardroom conversations

AI didn’t just add incremental demand.

It invalidated the assumption of flat demand that underpinned a decade of energy modeling.

AI load is:

• Continuous

• High-density

• Infrastructure-anchored

• Politically supported

The energy question shifted from:

“How do we decarbonize slowly?”

to:

“How do we build enough firm power — fast?”

3️⃣ December 2022: Fusion Ignition (With a Fission Reality)

In December 2022, Lawrence Livermore National Laboratory achieved fusion ignition via inertial confinement, producing more energy from the fusion reaction than delivered to the target capsule.

A major scientific milestone.

But one critical detail often goes unmentioned:

Fusion fuel — specifically tritium — does not naturally exist at scale.

Today, the primary practical source of tritium is inside a fission reactor.

Fusion’s fuel cycle depends on fission.

Existing light water reactors are not relics. They are foundational to the development of their technological successors.

The nuclear ecosystem is interdependent.

Meanwhile: Vogtle Rewired Construction Power

While these macro shifts unfolded, the U.S. construction market was absorbing the lessons of Vogtle Units 3 & 4.

Multiple EPC firms collapsed under fixed-price nuclear risk before Bechtel completed the project.

That experience fundamentally altered constructor behavior.

Today:

• Nuclear-capable EPC firms can no-bid projects

• They do not need to accept asymmetric design risk

• They select only the most mature, credible programs

There are far more reactor designers than there are constructors willing to build.

If a startup claims it will “self-perform” construction without deep EPC leadership on its team, that is not boldness.

It is a signal.

Capital follows bankability. Bankability requires constructability. Constructability requires discipline.

The Convergence

2022 changed:

• The demand curve (AI)

• The geopolitical rationale (energy security)

• The technological horizon (fusion)

• The construction risk landscape (post-Vogtle EPC consolidation)

Nuclear is no longer competing in a slow-growth environment.

It is operating in a capacity-constrained, security-driven, constructor-selective market.

That means:

Physics is necessary. Capital is necessary. But program maturity — licensing discipline, QA rigor, EPC credibility — is what separates deployable projects from PowerPoint.

2022 was a Black Swan year.

The next decade will reward the teams that understood what fundamentally changed.

Originally published by Sarah Gibboney on LinkedIn, February 17, 2026.