Global
Austria
Bulgaria
Croatia
Czech Republic
Denmark
Estonia
Finland
France
Germany
Greece
Hungary
Ireland
Italy
Latvia
Lithuania
Luxembourg
Netherlands
Norway
Poland
Portugal
Romania
Russia
Serbia
Slovakia
Slovenia
Spain
Sweden
Turkiye
United Kingdom
Global
Argentina
Aruba
Bolivia
Brazil
Chile
Colombia
Costa Rica
Dominican Republic
Ecuador
El Salvador
Guatemala
Honduras
Mexico
Panama
Paraguay
Peru
Puerto Rico
United States of America
Uruguay
Global
Bahrain
Israel
Jordan
Kuwait
Lebanon
Oman
Pakistan
Palestine
Qatar
Saudi Arabia
South Africa
United Arab Emirates
Global
Australia
Bangladesh
India
Indonesia
Japan
Kazakhstan
Malaysia
New Zealand
Philippines
Singapore
South Korea
Sri Lanka
Taiwan (Chinese Taipei)
Thailand
Vietnam
CCS is a technological process that involves capturing carbon dioxide (CO2) emissions, typically from large industrial facilities or power plants reliant on fossil fuels or biomass. This captured CO2 can be repurposed in various applications or sequestered (stored) in underground geological formations like depleted oil and gas reservoirs or saltwater aquifers. By capturing CO2 emissions at their source and storing them securely underground, CCS can help mitigate climate change while enabling the continued operation of essential industrial sectors.
The International Energy Agency (IEA) underscores the pivotal part CCS can play in the energy transition. In its Net Zero Roadmap, the agency sees CCS accounting for eight percent of the needed greenhouse emissions reductions by 2030. While CCS has gained significant momentum in recent years, with over 500 projects currently in progress, its development has lagged expectations. To meet global climate targets, according to the IEA, a substantial acceleration in CCS implementations is required.
Delivering secure, sustainable and affordable energy for everyone is key to a successful energy transition. CCS can play a vital role in this, particularly for developing economies, aiding them in managing emissions from existing energy sources and industrial processes while shifting towards more sustainable power.
CCS also acts as the linchpin in so-called “blue” hydrogen production. By capturing and storing the CO2 emitted during the process of producing hydrogen from fossil fuels, CCS significantly reduces the carbon footprint of this energy carrier. CCS technology is necessary for transitioning from “grey” hydrogen (produced using fossil fuels), which has high emissions, to a lower-carbon alternative. While blue hydrogen is not entirely emission-free, it represents an important step towards decarbonization in sectors where electrification is challenging, such as heavy industry and long-distance transportation.
ABB’s support for CCS extends across industries and value chains. For example, ABB's commitment to accelerating CCS uptake is evident in the longstanding collaboration with Imperial College London. The partnership has established a pilot plant equipped with over 250 ABB instruments and sensors to advance carbon capture technology research. This one-of-a-kind facility has provided hands-on experience to more than 4,500 students since its inception in 2012, fostering the development of the next generation of engineers and scientists focused on the energy transition.
Software innovation will play a central role in CCS as well. Here, ABB and Pace CCS have joined forces to deliver a solution that reduces the cost of integrating CCS into new and existing industrial operations. The partnership uses digital twin technology, which provides a virtual replica of a real, physical process or facility.
The ABB CCS 360 digital twin solution can track the highly complex lifecycle of capturing, transporting and storing CO2 molecules. This virtualization helps make CCS technology more accessible for industry by decreasing upfront capital costs associated with entering this field.
ABB is also collaborating with Canadian simulation software provider Computer Modelling Group (CMG) to provide a full end-to-end solution for CCS. ABB is integrating its Ability™ OPTIMAX® energy management system with above-ground digital twin technology and CMG’s subsurface modeling. This allows operators to test options in a virtual setting, helping speed the build-out of CCS capacity. Being able to simulate scenarios provides visibility and reduces risks, such as losses or escaping leaks caused by unexpected chemical reactions underground between the carbon dioxide, water and nearby minerals.
ABB is enabling the energy transition in hard-to-abate sectors through a partnership with Captimise, a leading cleantech company, to develop and implement innovative solutions to reduce carbon emissions in cement production processes. In line with the United Kingdom’s ambitious goals to reduce industrial carbon dioxide emissions, the partnership aims to make CCS more accessible and cost-effective. By combining ABB's expertise in electrification, automation and digitalization with Captimise's CCS project experience, the collaboration provides a complete approach for identifying and implementing tailored CCS solutions for the cement sector, one of the biggest sources of greenhouse gases.
An important link in the CCS value chain is transporting captured CO2. ABB's technology will be a critical component of the world's first open CO2 transport and storage infrastructure, the Northern Lights project, which aims to capture and store carbon dioxide emissions from industrial facilities in Europe.
ABB’s distributed control system (DCS) ABB Ability™ System 800xA will play a key role in the project by enabling the remote operation of the carbon capture terminal, located in Øygarden, Norway, and optimizing its efficiency.
ABB has also been engaged to provide a magnetic shaft generator system for two ships that will transport captured greenhouse gases from industrial facilities to the onshore terminal of the Northern Lights project. The captured CO2 will then be piped to a secure underground storage site 2,600 meters beneath the North Sea.