SOFCs in Maritime Research

HELENUS

As part of the HELENUS project, a highly efficient, low-emission SOFC system for marine applications is being developed for a large MSC World Europa-class ocean-going cruise ship and demonstrated on MODULARIS, the DLR’s seagoing technology platform. This 200 kW SOFC solution, at TRL 7, will serve as a blueprint for scaling the system up to 20 MW in future shipbuilding projects. In combined heat and power (CHP) mode, the SOFC will simultaneously generate electricity and heat, thereby enabling efficiency gains of up to 23 per cent in a scaled-up system. HELENUS will also demonstrate the fuel flexibility of SOFCs using alternative renewable fuels across various maritime operating cycles. Through collaboration between key players from all sectors of the maritime value chain, HELENUS will pave the way for climate-friendly shipping.

HELENUS
As part of the HELENUS project, a highly efficient, low-emission SOFC system for marine applications is being developed for use on a large ocean-going cruise ship and demonstrated on MODULARIS, the DLR’s seagoing technology platform. This 200 kW SOFC solution, at TRL 7, will serve as a blueprint for scaling the system up to 20 MW in future ship designs.

Fuel Cells of the Future

The maritime industry is responsible for 90 % of global trade and 2.5 % of global greenhouse gas emissions, as well as 13 % of the EU's transport emissions. To address this, the International Maritime Organisation (IMO) aims for a 50% reduction in GHG emissions by 2050 from 2008 levels. The European Commission's Fit for 55 initiative sets even higher goals, targeting a 55% reduction by 2030 and 90% by 2050 from 1990 levels. Achieving these targets requires adopting advanced energy technologies, renewable fuels, and energy-saving measures like onboard electrification.

The HELENUS consortium includes a wide range of stakeholders, from technology developers to field implementers, to drive innovation and commercialization. This project will pave the way to a decarbonized maritime future, enhancing innovation and significantly boosting the EU maritime industry's competitiveness.

Full integration of SOFC in the machine area onboard cruise ship
Background schematic based on MSC graphic

Expected Impact

  • Commercialisation of SOFC products with a capacity of several megawatts for use at sea, including new-build vessels
  • Expansion of the use of SOFC technology in other forms of water transport, including inland waterway and deep-sea shipping
  • Facilitating and accelerating the maritime sector’s transition to renewable and carbon-neutral fuels
  • Developing a sound technological basis for classification societies to draw up and assess class rules for the integration of SOFC systems on large vessels
  • Establishing a sound technological basis for policy-makers, regulatory authorities and classification societies to enact appropriate regulations to promote the adoption of clean energy systems
  • Safeguarding the competitiveness of the European maritime industry by promoting the development and adoption of clean propulsion technologies
  • Creating a demand for new skilled jobs for the operation of SOFC systems on ships and in ports

Participating DLR Institutes

HELENUS at a glance

Project

HELENUS

High Efficiency Low Emission Nautical SOFC

Project Partners

  • GENEVOS
  • Wärtsilä
  • Chantiers de l’Atlantique
  • Bureau Veritas Marine & Offshore
  • MSC
  • Delft University of Technology
  • BALance Technology Consulting
  • IFEU
  • German Aerospace Centre (DLR)

Project Duration

July 2022 - June 2027

Funding

Horizon Europe (Project No. 101056784)

More information

https://www.helenus.eu/

The HELENUS project has received funding from the Horizon Europe Research and Innovation Programme under Grant Agreement 101056784.

Contact

Prof. Dr. Dheeraj Gosala

Head of Department
German Aerospace Center
Institute of Maritime Technologies and Propulsion Systems
Energy Converters and Systems
Falckensteiner Str. 2, 24159 Kiel
Germany