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Maritime Onboard Carbon Capture & Storage (OCCS) Feasibility
Rating: 4.6 out of 5(7 ratings)
135 students

Maritime Onboard Carbon Capture & Storage (OCCS) Feasibility

Exploring the Future of Shipping Decarbonisation through Onboard Capture, Port Reception, and Offshore Storage
Last updated 2/2026
English
English

What you'll learn

  • 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.

Course content

6 sections6 lectures58m total length
  • The science and engineering behind onboard carbon capture systems9:48

    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.

Requirements

  • Basic knowledge of shipping or maritime operations (helpful but not mandatory)
  • Familiarity with climate change and decarbonisation concepts such as CO₂ emissions, energy transition, or IMO targets
  • Interest in engineering, sustainability, or port/energy infrastructure
  • No advanced math or engineering required — key concepts will be explained in simple, practical terms
  • Open to professionals, students, and policymakers who want to understand the future of shipping decarbonisation

Description

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.

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