November 28, 2023

The Growing Demand for Uranium in a Nuclear-Energized World

The world is in the process of pivoting from fossil-fuel dependency to clean, sustainable power sources. Nuclear power is emerging as a crucial player, as a current and viable source of the large-scale, continuous, and carbon-neutral energy critical to achieving long-term environmental goals. This revival of nuclear energy is creating a substantial surge in uranium demand, even while global inventories deplete following a decade of stagnation in uranium exploration and deposit development. As nations worldwide intensify their nuclear programs, attention is drawn to the escalating demand for uranium, the fuel for these reactors and, by extension, the future of clean energy. 

The Global Shift Back to Nuclear Energy

The last few years has marked a notable resurgence in global interest in nuclear power. Traditional proponents of nuclear energy, including nations like China, India, Japan, France, and the USA, are vigorously expanding their nuclear capacity. They are extending the lives of existing reactors and initiating new projects, responding to the dual requirements of energy security and environmental stewardship. Additionally, countries without prior nuclear portfolios are embracing this technology, acknowledging its importance in achieving carbon neutrality.

A significant driver in this nuclear renaissance is anticipated to be development of Small Modular Reactors (SMRs). In concept, these reactors provide scalability and flexibility in power generation capacity, a reduced initial capital investment, diverse application possibilities, and an inherent potential for remote or off-grid deployment. Moreover, their enhanced safety features and ability to integrate with renewable technologies make them particularly attractive in today's growing energy scenario.

Current global nuclear capacity stands at approximately 390 billion watts of generation capacity (GWe) and is expected to exceed 900 GWe by 2050. The International Energy Agency's Net Zero Emissions (NZE) scenario suggests that the actual expansion of nuclear energy, driven by its proven benefits and the urgent need for decarbonization, could outpace these current predictions.

Understanding Uranium Demand 

Uranium is the fuel for nuclear power generation. The demand for uranium is complex, primarily driven by baseline fuel requirements for currently operating power plants. Demand is however also influenced by anticipated supply shortages in the near future, improving reactor efficiency, and geopolitical considerations.

Approximately 440 nuclear reactors are currently in operation globally, consuming an estimated 74,000 tonnes of uranium oxide concentrate each year. Demand will increase with the introduction of new reactors. There are over 60 new nuclear power plants currently in construction and an additional 110 on order and planned for construction. These new plants have very high initial fuel load requirements and will consistently augment uranium demand, which is forecast to reach 95,000 tonnes of uranium oxide by 2035. Current global uranium production from mining varies from year to year, but is on the order of 50,000 to 60,000 tonnes of uranium oxide annually, highlighting a significant anticipated supply/demand crunch for uranium in the near future.

Uranium demand is somewhat tempered as improvements in operational efficiency mean that less uranium is needed to produce the same power output. Notably, reactors in Europe have demonstrated a remarkable 25% reduction in uranium consumption per unit of electricity generated over two decades. However, this efficiency comes at a cost, as higher burn-up rates require fuel with greater initial uranium enrichment, presenting a delicate trade-off.

Geopolitical considerations also come into play, as countries look to reduce/eliminate their exposure to Russian uranium sources while at the same time seeking to secure their anticipated uranium supply requirements in the context of an upcoming supply shortage.

Nuclear Energy Beyond Electricity

In the broader landscape of global decarbonization, nuclear energy is stepping beyond its traditional role of electricity generation, presenting a transformative approach to energy use. Industrial sectors previously dependent on fossil fuels, particularly heavy industries like steel, chemicals, and cement production, are exploring nuclear energy as a viable, cleaner heat source. Among the most promising avenues are district heating, seawater desalination, and hydrogen production, which can leverage the intense heat of nuclear reactions. The transport sector, struggling with its carbon footprint, could see nuclear-derived hydrogen as a crucial component in fueling a new generation of vehicles.

This potential diversification from its role merely as an electricity provider underscores nuclear energy's versatility to support increasing energy demands and become a key component in the fight against climate change, emphasizing its importance in future global energy strategies.

International Energy Agency (IEA) Outlook and Industry Response

The International Energy Agency's World Energy Outlook 2023 analyzed the contemporary energy landscape, offering projections that have sparked considerable debate. The report emphasizes the essential role of renewable sources, yet it outlines a more conservative trajectory for nuclear power, overshadowed by the rapid ascent of solar and wind capacities.

Voices from the nuclear sector have responded, pointing out potential underestimations in the IEA's forecast. Experts argue that the report doesn't fully account for the expanding interest in nuclear technology globally, particularly in nations aggressively pursuing decarbonization. They highlight the recent upswing in nuclear investments, the push for Small Modular Reactors, and nuclear's expansion into industrial heat and hydrogen production, factors that could significantly amplify its share in the future energy mix.

Uranium’s Position in the Clean Energy Narrative

The transition towards clean global energy is refocusing attention on nuclear power and, by extension, uranium. Amidst this nuclear resurgence, the demand for uranium is set to climb even while global inventories deplete, with a currently anticipated shortfall between supply and demand as we approach 2030. This situation will be exacerbated by the fact that exploration for new uranium deposits and development of existing deposits has largely stagnated in the post-Fukushima uranium commodity slump, creating the potential for significant upward readjustment of the uranium price.

Companies like Fortune Bay Corp are strategically positioned to benefit from this new landscape. With two uranium exploration projects in the Athabasca Basin, adjacent to Uranium City, Fortune Bay is responding to the anticipated demand increase and the need to invest in exploration to discover new deposits to meet future supply requirements.

The global energy conversation requires a broader lens, one that acknowledges the extensive potential of nuclear power. Only through a comprehensive, forward-thinking approach can we ensure a robust, reliable, clean and diversified energy future where nuclear energy significantly contributes to global sustainability efforts.


“Net Zero Emissions by 2050 Scenario (NZE) – Global Energy and Climate Model – Analysis - IEA.” IEA,

Fortune Bay Corp Mining Projects |  Fortune Bay Corp. 

Fortune Bay Corp. 

Commences Maiden Exploration Drilling at the Strike Uranium Project |  Fortune Bay Corp. 

World Nuclear Association Comments on the IEA World Energy Outlook 2023 - World Nuclear Association. 

Uranium Markets: World Nuclear Association

Why You Should Have Uranium in Your Portfolio | Fortune Bay Corp. 

“What Are Small Modular Reactors (SMRs)?” IAEA

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