Today’s three stories share a single thread: carbon removal and storage is crossing from slide decks into steel. Pipe bridges are being hoisted, offshore wells are taking CO2, and a third purpose-built ship is joining a cross-border fleet. The bottleneck is shifting from “can we build it” to “can we connect the pieces fast enough.”
Infrastructure is the story now
Stockholm Exergi lifted a pipe bridge roughly the length of a football field into place this week at its Värtan site, a visible milestone for the 720,000 ton per year bioenergy carbon capture project. Bioenergy with carbon capture and storage, or BECCS, pulls CO2 out of biomass flue gas and ships it to permanent storage. The project is one of the largest BECCS builds in the world and is backed by a Swedish reverse auction contract plus a Microsoft offtake deal for multi-million tons over ten years.
The pipe bridge is not glamorous. It is also the kind of thing that decides whether a plant starts up on schedule. The shift from permits and financing to heavy lifts means Stockholm Exergi is now executing, not planning.
China opens an offshore chapter
CNOOC started injection at China’s first offshore CO2 storage project in the Enping field off Hainan, targeting around 1.5 million tons over the life of the site. The CO2 comes from associated gas produced at the same offshore complex, so this is closer to carbon capture and storage tied to oil and gas operations than to atmospheric removal. It is not CDR in the strict sense.
It matters for CDR anyway. The project proves Chinese operators can drill, complete, and monitor a dedicated offshore injection well in the South China Sea. That same subsurface and monitoring capability is what future BECCS, direct air capture, and biomass-based removal projects in Asia will need if they want to store CO2 under the seabed. China has talked about offshore storage capacity in the tens of gigatons. Today it has one working well.
A direct reminder on framing: storing CO2 from an oil platform does not offset the emissions from burning the oil it produces. CDR exists for residual emissions that cannot be cut. It is not a license to extend fossil production.
Northern Lights builds the shuttle fleet
Northern Lights, the joint venture between Equinor, Shell, and TotalEnergies, confirmed a third dedicated CO2 carrier, expanding the shuttle fleet that moves liquefied CO2 from European capture sites to the receiving terminal at Øygarden in Norway. Phase one capacity is 1.5 million tons per year. Phase two, already sanctioned, takes that to at least 5 million tons per year.
A third ship sounds like a footnote. It is actually the clearest signal yet that Northern Lights expects booked volumes, including from Stockholm Exergi, Ørsted, Yara, and Heidelberg Materials, to show up on schedule. Shipping CO2 across borders was a theoretical question five years ago. It is now a logistics problem with a fleet size attached to it.
The pattern
Three continents, three different parts of the value chain, one message. The bottleneck is no longer whether capture technology works or whether storage sites exist on paper. It is whether pipes, ships, wells, and contracts line up in time. Stockholm Exergi is building the capture plant. Northern Lights is building the transport. CNOOC is proving the offshore injection model that others in Asia will copy.
Each link has to be ready within months of the others, or capture plants vent, ships sit idle, and wells wait. That choreography, not any single technology, is what the next two years of CDR delivery will be judged on.
What’s next
Watch two things. First, whether Stockholm Exergi hits its planned 2028 startup and how its first cargoes move through the Northern Lights chain, because that is the first fully integrated cross-border BECCS-to-storage route. Second, whether CNOOC announces a second offshore injection site, which would suggest China is treating Enping as a template rather than a one-off.