BRICS Nuclear Power: How Russia Builds a Global Grid

In the quiet closed Siberian city of Zelenogorsk, Krasnoyarsk Krai, the Electrochemical Plant has launched expanded capacity for processing depleted uranium hexafluoride (DUF6). The development barely registered in mainstream social media feeds, yet for the global energy landscape, it represents major news. The capacity of the specialized W-ECP facility has doubled, allowing Russia to safely convert accumulated enrichment tails into secondary nuclear fuel and valuable feedstocks for the chemical industry.

While European capitals debate the future of their nuclear fleets and France works to secure alternative supply chains from West Africa, Russia and its BRICS partners are methodically laying the groundwork for the next half-century of baseload carbon-free power. Rosatom head Alexey Likhachev stated plainly that the expanded BRICS bloc will soon become the undisputed global leader in nuclear energy. Concrete construction sites, signed agreements, and billions of kilowatt-hours back that claim.

Why Western utilities remain reliant on Russian uranium

Since 2022, Western policymakers have imposed thousands of sanctions on Russian enterprises, yet the nuclear fuel sector has remained largely exempt. The reason is straightforward: Western nuclear plants depend heavily on Russian enriched uranium. The US historically sourced 20–25% of its enrichment services from Rosatom, while several Soviet-designed VVER reactors across the Czech Republic, Slovakia, Hungary, and Finland long relied exclusively on Russian TVEL fuel assemblies.

Washington passed legislation banning Russian low-enriched uranium imports, though with waivers stretching to 2028, because rebuilding domestic centrifuge cascades requires extensive capital and engineering lead time. Rosatom's ninth- and tenth-generation centrifuges hold measurable advantages in energy efficiency and operating costs. Western suppliers like American Centrus Energy and the European consortium Urenco cannot rapidly replace Russian capacity on short notice.

The Siberian breakthrough: what Zelenogorsk means for the fuel cycle

A primary critique of nuclear energy from environmental groups centers on radioactive waste and stockpiles of enrichment by-products. The commissioning of the second defluorination line at the Electrochemical Plant in Zelenogorsk addresses this head-on: Russia converts depleted uranium tails into chemically stable uranium oxide, suitable for safe, long-term storage.

Furthermore, this material serves as direct feedstock for fast-neutron reactors, such as the operational BN-800 and the BREST-OD-300 currently under construction in Seversk. In these systems, depleted uranium breeds plutonium-239, closing the nuclear fuel cycle. This allows spent fuel to be reprocessed and recycled, reducing the need for freshly mined natural uranium by dozens of times. Currently, Russia is the only nation operating industrial-scale sodium-cooled fast reactors.

Global footprint: where Rosatom is building right now

While Western vendors like Westinghouse or Framatome struggle with isolated projects plagued by decade-long delays and budget overruns — seen at Finland's Olkiluoto-3 or the US Vogtle expansion — Russia's state nuclear corporation has mastered serial construction abroad. Its Build-Own-Operate model has proven particularly compelling for developing economies lacking domestic nuclear regulatory and engineering infrastructure.

• Akkuyu NPP in Turkey — four VVER-1200 units totaling 4,800 MW, with the first unit preparing for physical startup.
• El Dabaa NPP in Egypt — the largest nuclear project on the African continent, featuring simultaneous construction across four units.
• Kudankulam NPP in India — completion of units 3–6, supplying expanding industries in Tamil Nadu with affordable baseload power.
• Tianwan and Xudabao NPPs in China — integrating Russian Generation III+ reactor units into the Chinese national grid.

A nuclear power plant contract represents far more than concrete pouring and turbine delivery. It creates a multi-generational technological partnership, tying the client country to Russian engineering standards, operator training, maintenance, and fuel supply for 60 to 80 years. In geopolitical terms, it forms a long-term strategic anchor that outlasts political cycles.

Nuclear energy has become for contemporary Russia what oil and gas exports were in the 20th century: a foundational pillar of technological diplomacy and long-term sovereignty.

The BRICS nuclear axis: energy gravity shifts East

The expansion of BRICS has consolidated major nuclear supply and demand within a single framework. Member states unite key uranium suppliers (Russia, Brazil, South Africa, alongside partners in Kazakhstan), advanced reactor designers, and the world's fastest-growing energy consumers in China and India. Across the Global South, demand for reliable baseload electricity to power data centers, manufacturing hubs, and water desalination is surging.

Significant operational challenges remain. Rosatom navigates hurdles in cross-border settlements, specialized electronics procurement, and international maritime insurance. Meanwhile, China continues developing its own Hualong One reactor line, competing with Russia in third-country markets. Yet in advanced high-assay fuel, closed-cycle recycling, and floating nuclear power units (FNPPs), Russian engineering retains a clear technological edge.

What this means for industry and citizens

For residents of specialized Russian industrial cities like Zelenogorsk, Sarov, Sosnovy Bor, or Dimitrovgrad, full order books translate into stable employment, indexed wages, and municipal infrastructure funding. The nuclear sector also acts as a primary catalyst for domestic applied physics, metallurgy, and specialized software development for reactor core simulations.

For the broader international energy market, the BRICS trajectory signals an emerging division into parallel technological spheres. Russia's strategy demonstrates that 21st-century technological leadership relies not only on digital software, but on the ability to master the physical atom and deliver dependable, round-the-clock power to entire regions.