Norway launches first offshore CO2 storage

August 26, 2025

Norway has made history by completing the world’s first commercial carbon storage injection into the North Sea seabed. The milestone was achieved by the Northern Lights project, a consortium backed by Equinor, Shell, and TotalEnergies, which aims to cut industrial emissions across Europe through large-scale carbon capture and storage (CCS).

Tim Heijn, Managing Director of Northern Lights, confirmed:

“We have now safely injected and stored the very first CO2 in the reservoir. Our ships, facilities, and wells are fully operational.”

How the Northern Lights carbon storage works

The CCS process is designed to capture CO2 at its source, transport it safely, and store it deep beneath the ocean floor:

1. Capture: CO2 emissions are collected directly from industrial smokestacks.
2. Liquefaction & Transport: The gas is liquified and shipped to the Øygarden terminal near Bergen, Norway.
3. Injection: From the terminal, CO2 is piped 68 miles offshore and injected 1.6 miles beneath the seabed into secure geological reservoirs for permanent storage.

This technology is recognized by the UN’s IPCC and the International Energy Agency (IEA) as a crucial tool for hard-to-abate industries like cement, steel, and chemicals, where cutting emissions is otherwise extremely difficult.

First CO2 injection: heidelberg materials

The first official CO2 injection came from Germany’s Heidelberg Materials cement plant in Brevik, Norway. Cement is one of the most carbon-intensive industries, making it a prime candidate for early adoption of CCS.

Challenges facing carbon capture and storage

While the promise of CCS is significant, the technology faces major hurdles:

• High Costs: Without subsidies, it is still cheaper for industries to buy carbon credits on the European Emissions Trading System than to invest in CCS.
• Energy Demand: Pumping, transporting, and compressing CO2 consumes large amounts of energy.
• Public Debate: Some environmental experts argue CCS allows fossil fuel companies to continue polluting instead of switching to renewable energy.

Despite these challenges, advances in technology and government support are improving cost-efficiency.

Who is using Northern Lights so far?

Northern Lights has already signed three key contracts across Europe:

• Yara ammonia plant in the Netherlands.
• Two Ørsted biofuel plants in Denmark.
• Stockholm Exergi thermal power plant in Sweden.

Currently, the site can store 1.7 million tons of CO2 annually, with expansion plans to increase capacity to 5.5 million tons per year by 2030.

CCS vs. direct air capture: the debate

While Northern Lights focuses on capturing emissions at their source, some companies are pursuing direct air capture (DAC), which extracts CO2 directly from the atmosphere.

However, experts like Stanford Professor Mark Jacobson argue DAC is a “false solution”:

• He claims it is expensive, energy-intensive, and primarily benefits fossil fuel companies seeking to justify ongoing extraction.
• Jacobson stresses the need to focus instead on renewable energy sources such as wind, solar, and hydro.

Currently, the United States still relies on fossil fuels for 60% of its electricity, underlining the urgency of clean energy transition.

The future of carbon storage in Europe

Despite controversy, the launch of Norway’s Northern Lights CCS project marks a groundbreaking moment in global climate strategy. It demonstrates that large-scale offshore carbon storage is not only technically feasible but already in operation.

With continued innovation, expansion, and international collaboration, carbon capture could become a critical piece of the puzzle in Europe’s net-zero emissions goals—especially for industries where renewable alternatives remain limited.