
Discover the science and engineering of onboard carbon capture systems for ships, including solvent-based absorption, regenerator, liquefaction, and ship-to-ship or ship-to-shore CO2 offloading.
Explore how captured liquefied CO2 is transferred aboard ships through ship-to-ship and ship-to-shore methods, including containerized offloading, ensuring purity and enabling permanent storage or utilization.
Liquid CO2 is permanently stored in deep geological formations, such as depleted oil fields or saline aquifers, via deep borewells and offshore injection.
Explore global initiatives and pilot projects for onboard carbon capture and storage, linking ship capture to permanent offshore storage via end-to-end CCS value chains.
Discuss regulatory and market drivers shaping adoption of onboard carbon capture and storage. Highlight IMO net-zero targets, EU emission trading, penalties, and the 2028 safety and certification guidelines.
Assess the feasibility of maritime onboard carbon capture and storage, focusing on scalability, cost, safety, and energy penalties; Clipper Iris Pro Pilot project achieved 70% capture.
Maritime Onboard Carbon Capture & Storage (OCCS) Feasibility
The maritime industry faces a defining challenge: how to reduce greenhouse gas emissions while maintaining the efficiency of global shipping. While alternative fuels such as ammonia, methanol, and hydrogen are emerging, their large-scale adoption will take decades. In the meantime, Onboard Carbon Capture and Storage (OCCS) is gaining attention as a potential bridging solution to meet decarbonisation goals.
This course explores the technical, economic, and policy dimensions of OCCS and its integration into the maritime sector. Participants will gain a comprehensive understanding of:
The science and engineering behind onboard carbon capture systems
How captured CO₂ can be safely transferred to port reception facilities
The role of pipelines and offshore geological storage under the seabed
Global initiatives, pilot projects, and real-world case studies (e.g., Wärtsilä, Northern Lights, Rotterdam CO₂ hub)
The regulatory and market drivers (IMO 2050 targets, EU ETS, FuelEU Maritime) shaping adoption
Key feasibility questions: scalability, cost, energy penalties, safety, and infrastructure requirements
By the end of this course, learners will be able to critically evaluate OCCS as a decarbonisation pathway, understand the opportunities and limitations, and position themselves to engage in future-ready shipping strategies.
Who This Course Is For
Maritime professionals, engineers, and sustainability managers
Port operators, logistics providers, and infrastructure planners
Policy makers and regulators shaping climate strategies for shipping
Students and researchers in marine engineering, energy, and environmental sciences
Learning Outcomes
After completing this course, you will be able to:
Explain how OCCS works and its role in shipping decarbonisation.
Assess the feasibility of onboard capture, port reception, and offshore storage.
Identify the technical, economic, and regulatory challenges for adoption.
Apply case study insights to evaluate OCCS in real-world contexts.