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About this Training Course
CO₂ Shipping and LCO₂ Carriers are becoming vital parts of the carbon capture and storage value chain. As global decarbonisation accelerates, carbon capture and storage (CCS) is transitioning from pilot-scale projects to large-scale deployment, with global capacity expected to grow significantly over the next decade. Governments and industries across Europe, North America, and Asia-Pacific are committing to ambitious net-zero targets, driving strong demand for reliable CO₂ transport solutions. In this evolving landscape, CO₂ shipping is emerging as a flexible and scalable alternative to pipelines, particularly for regions with dispersed emitters and limited fixed infrastructure. This is especially relevant in Asia, where industrial clusters are fragmented and storage sites are often located offshore or across borders.
As carbon capture and storage (CCS) scales globally, CO₂ transport is emerging as a critical enabler. Shipping plays a key role in connecting dispersed emitters to storage locations. This 3-day comprehensive training course provides an understanding of CO₂ shipping and LCO₂ carriers, focusing on system-level integration, economics, infrastructure requirements, and real-world deployment considerations, based on cross-project benchmarking.
Aligned with current market trends and project developments, the course addresses key technical and commercial challenges, including CO₂ properties, conditioning requirements, shipping economics, and infrastructure design. Participants will explore trade-offs between shipping and pipeline transport, assess cost drivers such as CAPEX and OPEX, and evaluate logistics, fleet utilisation, and terminal operations. Participants will examine regulatory frameworks, commercial models, and regional deployment constraints, providing a holistic view of the CCS value chain. Through real-world case studies and scenario-based analysis, participants will gain practical insights to support decision-making in CO₂ transport and carbon management strategies.
1) What is CO₂ shipping?
CO₂ shipping is the transport of captured carbon dioxide by ship. The CO₂ is cooled and stored as liquid CO₂ during transport. This method helps move CO₂ from industrial plants to storage sites. It is useful when pipelines are not available or are too costly.
2) Why are LCO₂ carriers important for CCS?
LCO₂ carriers support carbon capture and storage projects. They help connect emitters with offshore or cross-border storage sites. They also support regions with scattered industrial plants. CO₂ shipping gives CCS projects more flexibility and easier expansion.
3) How does CO₂ shipping compare with pipelines?
CO₂ shipping is more flexible than pipelines. Ships can serve different routes and storage sites. This works well for smaller or spread-out emitters. Pipelines may still be better for large and steady CO₂ volumes over short distances. The best option depends on cost, scale, and location.
4) What infrastructure is needed for CO₂ shipping?
CO₂ shipping needs capture plants, liquefaction systems, storage tanks, ports, and vessels. Ports also need loading and offloading systems for liquid CO₂. Storage sites must support injection and long-term monitoring. Good links between all systems are important for smooth operations.
5) What challenges affect CO₂ shipping projects?
CO₂ shipping projects face technical and commercial challenges. High costs and limited storage sites are major issues. Operators must also manage CO₂ pressure, temperature, and purity during transport. Port delays and weak logistics can also increase operating costs.
6) How do regulations affect CO₂ shipping?
Regulations affect ship safety, carbon tracking, and cross-border CO₂ transport. Clear rules help reduce project risk and support investment. International standards also improve reporting, storage management, and operational safety across CCS projects.
7) What is the future of CO₂ Shipping and LCO₂ Carriers?
CO₂ Shipping and LCO₂ Carriers are expected to grow as CCS projects expand worldwide. Future projects may use larger ships and shared storage hubs. Better port systems and stronger regulations may also improve efficiency and reduce transport costs.