Introduction

The Arctic Ocean is rapidly becoming one of the most strategically important regions in the global energy discussion, both for fossil fuels and for the transition toward clean and critical energy resources. Its unique geography, abundant natural resources, and rapidly changing environment have drawn governments, industry, and local communities into a complex mix of opportunity, competition, and risk.

Vast Resources Beneath the Ice

Oil and Gas

The Arctic holds some of the largest untapped hydrocarbon resources on Earth. Geological assessments estimate that approximately 13% of the world’s undiscovered oil (around 90 billion barrels) and 30% of undiscovered natural gas are located in the Arctic region, with a large share offshore beneath the Arctic Ocean.

The region is already home to around 230 drilling operations, and Arctic reserves have the potential to produce up to 240 billion barrels of oil and natural gas. Today, the Arctic supplies roughly 10% of global oil and about 25% of natural gas, primarily from Russia, Norway, and Alaska. As sea ice retreats, previously inaccessible offshore reserves are becoming easier to reach, prompting renewed interest in exploration and production despite growing environmental concerns.

Critical Minerals and Rare Earths

Beyond hydrocarbons, the Arctic, particularly Greenland and northern Canada, is rich in critical minerals essential for clean energy technologies. These include rare earth elements (REEs), graphite, lithium, copper, nickel, and other materials vital for batteries, wind turbines, electronics, and defense systems.

Greenland alone hosts deposits of many of the 34 minerals on the European Union’s critical minerals list. However, commercial development remains difficult due to low ore grades, extreme weather, limited infrastructure, environmental sensitivities, and complex processing requirements.

Energy Beyond Fossil Fuels

Renewables in the Arctic

The Arctic has significant renewable energy potential. Hydropower, geothermal energy, wind, and even solar power, particularly during long summer daylight periods, are increasingly being developed, especially in remote communities that have traditionally relied on imported diesel fuel.

Solar and wind energy offer cost-effective pathways to reduce dependence on fossil fuels while lowering the risk of oil spills and pollution in fragile Arctic marine environments. Expanding renewable energy production can also strengthen long-term resilience and sustainability for Arctic communities.

Some Arctic states already demonstrate what is possible: Iceland and Norway source nearly all of their electricity from renewable energy, and many Arctic communities now integrate wind, hydro, biomass, and geothermal power into local energy systems.

Community Energy and Microgrids

Many Arctic settlements rely on microgrids, localized energy systems that often combine diesel generation with renewable sources, because connection to large national grids is impractical. Transitioning these systems toward cleaner energy requires technical upgrades, financial investment, and logistical planning, but it also enhances energy security, local control, and resilience in remote environments.

Strategic and Policy Dimensions

Energy Security and Global Competition

Arctic energy development is shaped by a dense web of political, economic, technological, and climate-related forces. Energy is only one arena in which major powers, including the United States, Russia, and China, are now competing across economic, military, legal, and governance domains.

Western countries increasingly face a strategic dilemma: to maintain influence in the Arctic, they must invest heavily in ice-class shipping, port infrastructure, surveillance, and military capability, often with uncertain economic returns. Alternatively, failure to invest risks ceding leadership in the region to a growing Sino-Russian partnership, which has expanded cooperation in Arctic energy, shipping, and infrastructure.

This competition reflects a broader shift toward great-power rivalry in the Arctic, where traditional and hybrid forms of statecraft are reshaping governance, investment patterns, and security dynamics.

Current Production and Major Players

• Russia is the dominant Arctic energy producer, accounting for over 91 % of Arctic-sourced oil and gas production as of 2022. Key projects include Gazprom’s Prirazlomnaya offshore platform and the large-scale Vostok Oil development.
• Norway continues to expand offshore production in the Barents Sea, including projects such as Johan Castberg, despite legal and political challenges from environmental groups.
• The United States focuses on Alaska’s North Slope while it has intensified its strategic engagement with Greenland, driven primarily by concerns over critical minerals, Arctic security, and supply-chain resilience rather than oil and gas development.
• Canada and Greenland have taken more restrictive approaches. Canada has maintained an indefinite moratorium on offshore Arctic drilling since 2016, while Greenland banned new offshore oil and gas exploration in 2021, citing climate and economic concerns.

Conclusion: Energy, Power, and the Arctic Future

The Arctic sits at the intersection of energy, climate change, and geopolitics. While the region offers vast resources and strategic opportunities, its development increasingly reflects global power competition rather than purely economic logic. Decisions about Arctic energy are now inseparable from questions of security, influence, and international alignment.

Renewable energy and energy efficiency provide pathways toward more sustainable Arctic futures, particularly for local communities. However, geopolitical rivalry, long investment timelines, and uneven infrastructure development mean the Arctic will remain a contested and strategically sensitive space. How states balance resource development, environmental protection, and geopolitical ambition in the Arctic will shape not only the region’s future, but also broader global energy and security dynamics.