Turning a 100,000-Ton Nuclear Liability into an AI Power Play

NEWPORT, R.I. – November 09, 2026 — In the relentless digital chaos of the artificial intelligence boom, the physical constraints of our energy grid have become the ultimate bottleneck. Tech behemoths are scouring the globe for reliable, round-the-clock baseload power to feed hyperscale data centers, increasingly turning their gaze toward nuclear energy. Yet, this aggressive pivot exposes a critical vulnerability: a domestic nuclear fuel supply chain that remains heavily reliant on foreign imports, while nearly 100,000 metric tons of used commercial nuclear fuel sits stranded in temporary storage across the United States.

Project Omega, a Rhode Island-based startup that emerged from stealth earlier this year, is attempting to bridge this gap. Today, the company announced an $80 million Series A funding round led by B Capital, with participation from noa VC, 645 Ventures, and existing investors like Starship Ventures and Decisive Point. The capital injection is earmarked for the construction of a first-of-its-kind nuclear fuel recycling facility and the accelerated manufacturing of modular expeditionary power systems.

For investors and policymakers alike, the proposition is a compelling exercise in macro-trend convergence: transforming a hazardous, politically toxic liability into a highly lucrative strategic asset.

“America’s growing demand for reliable power is colliding with a nuclear fuel cycle that remains dependent on foreign supply and leaves enormous value stranded in used fuel,” said Jeff Johnson, General Partner and Global Head of Energy at B Capital, who is joining Project Omega’s Board of Directors. “Project Omega’s technology has the potential to create multiple revenue streams from a largely untapped domestic resource, spanning long-duration power, reactor feedstock and strategic isotopes.”

The AI Energy Crunch Meets the Nuclear Graveyard

The narrative of a "nuclear renaissance" is increasingly mainstream, but the hidden cost of this revival is the fuel itself. Modern advanced reactors and the existing fleet require a steady supply of uranium, a market currently fraught with geopolitical tension. Concurrently, the back end of the U.S. nuclear fuel cycle has been effectively paralyzed for decades. Without a permanent deep geologic repository—a political impossibility since the abandonment of Yucca Mountain—utilities have been forced to store spent fuel in dry casks on-site, effectively treating a resource that retains up to 90% of its potential energy as mere waste.

Project Omega intends to mine this "nuclear graveyard."

"The country’s nuclear renaissance will not happen without the fuel. We have a domestic source for this, nearly 100,000 metric tons of used nuclear fuel, which is one of America's largest untapped energy resources," said Dr. Stafford Sheehan, founder and CEO of Project Omega. "We are building a vertically integrated strategy around an abundant domestic feedstock, with a non-aqueous recycling process that recovers useful isotopes, and products with clear strategic demand. That combination creates the potential for an entirely new nuclear innovation economy."

The company's approach aims to stimulate a sovereign supply chain, aligning perfectly with broader federal mandates to secure critical infrastructure and decouple from adversarial supply networks.

The Proliferation-Proof Fuel Cycle

The forensic scrutiny of any nuclear recycling venture inevitably lands on nonproliferation. Historically, the United States has shied away from commercial nuclear reprocessing due to the risks associated with the PUREX (Plutonium Uranium Redox EXtraction) method, an aqueous process that separates pure, weapons-grade plutonium.

Project Omega deliberately bypasses this hazard by utilizing a non-aqueous, molten-salt electrochemical platform known as pyroprocessing.

Nuclear nonproliferation researchers note that pyroprocessing is inherently more resistant to weaponization. Instead of isolating pure plutonium, the electrochemical process leaves plutonium mixed with other highly radioactive transuranic actinides. This co-extraction makes the resulting material exceedingly dangerous to handle and virtually useless for weapons manufacturing without further, highly complex separation facilities.

Despite this technical safeguard, the regulatory hurdles remain formidable. Operating a commercial-scale pyroprocessing facility in the U.S. will require navigating the labyrinthine licensing requirements of the Nuclear Regulatory Commission (NRC), specifically 10 CFR Part 70, which governs the domestic licensing of special nuclear material.

Furthermore, the capital expenditure required to bring such a facility online is steep. Industry analysts estimate that a first-of-a-kind commercial pyroprocessing plant could cost anywhere from $500 million to $1 billion. While the $80 million Series A is a significant milestone, it represents only the initial down payment on a massive infrastructure play. To mitigate technical risks, Project Omega has been advancing its recycling technology with the Idaho National Laboratory (INL) through the Department of Energy’s ARPA-E CURIE program, effectively leveraging federal resources to validate its molten-salt platform at the kilogram scale.

Persistent Power in Denied Environments

While commercial reactor feedstock is the long-term play, Project Omega’s immediate commercial viability hinges on its radiovoltaic power systems. These solid-state "nuclear batteries" convert the natural decay of radioisotopes directly into electricity, providing persistent, maintenance-free power for decades.

The strategic demand for this technology is surging, particularly within the defense and aerospace sectors. The Department of Defense faces massive logistical vulnerabilities regarding operational energy in remote, denied, or extreme environments. Supplying diesel fuel or replacing lithium-ion batteries for undersea sensors, autonomous drones, or space platforms is costly and often tactically impossible.

Project Omega is tapping into this demand through its participation in DARPA's Rads to Watts program. The company recently demonstrated stable electrical current from strontium-90 at the Pacific Northwest National Laboratory (PNNL), proving the core scientific principles of its radiovoltaic design.

Simultaneously, the company has launched the X Series, a family of modular, intelligent expeditionary power systems. Currently designed to integrate battery storage and generators with solar and wind inputs, the X Series serves as a trojan horse for the company's long-term vision. The architecture is explicitly designed to integrate isotope power in the future, allowing military and commercial clients to transition seamlessly from hybrid renewables to decades-long nuclear power once the regulatory and manufacturing pipelines mature.

The Economics of the Nuclear Century

The transition from a dedicated beat on software and cybersecurity to tracking the macro-trends of global infrastructure reveals a stark truth: the digital economy is entirely tethered to the physical world. The server farms powering next-generation AI models cannot run on venture capital alone; they require atoms, heat, and heavy machinery.

“Project Omega has progressed well beyond a compelling scientific idea,” noted Howard Morgan, Co-Founder, Chair and General Partner at B Capital. “The company is building the fuel-cycle infrastructure needed to support America’s growing nuclear industrial base and help power the country’s next era of innovation.”

The success of Project Omega will ultimately depend on its ability to execute a profoundly difficult vertical integration strategy. It must successfully navigate the NRC's stringent licensing process, scale a complex chemical processing technology that has historically struggled with commercial economics, and manufacture advanced radiovoltaic hardware that meets the exacting standards of the Department of Defense.

If the company can thread this needle, the payoff extends far beyond a typical venture return. It offers a blueprint for resolving a decades-old environmental stalemate, securing a sovereign energy supply chain, and providing the silent, persistent power required to push the boundaries of human presence from the deep ocean to deep space. In the high-stakes arena of 21st-century industry, turning a hazardous liability into the fuel for the next industrial revolution is the ultimate actionable intelligence.