How to reduce emissions in maritime transport without compromising efficiency? Customer challenge

Reducing greenhouse gas emissions has become one of the top priorities in transport, including maritime transport. Regulatory requirements, such as the IMO 2050 strategy, set ambitious but necessary targets for reducing environmental damage: a 40% reduction in CO₂ emissions by 2030 and as much as 70% by 2050 (compared to 2008 levels). For shipbuilders and fleet operators, this means the rapid implementation of low-emission propulsion systems.

Many solutions, such as battery engines and synthetic fuels, still have limitations in terms of range, cost, or infrastructure. Therefore, fuel cell propulsion is gaining increasing interest, especially in combination with hydrogen as an energy carrier. However, the implementation of this technology requires a reliable automation system: for hydrogen pressure control, process temperature control, and energy and cooling management.

Our customer is a manufacturer of modern passenger vessels. They were looking for a solution that would enable the integration of a fuel cell-based power supply system while maintaining high standards of safety, precision, and compliance with maritime standards.

How to integrate fuel cells into a marine automation system? Support for hydrogen propulsion

In order to enable the safe and effective implementation of fuel cell technology on a vessel, it was necessary to design an automation system capable of monitoring key hydrogen parameters and ensuring precise control of the cell's operating conditions. The customer decided to use PEM (proton exchange membrane) fuel cells, which generate electricity based on the reaction of hydrogen with oxygen. The system had to enable continuous monitoring of the hydrogen circuits, cooling and auxiliary systems, in compliance with marine standards.

Pressure and temperature monitoring in the hydrogen circuit

The project involved the modernization of the automation system for modern vessels to be equipped with fuel cells with a capacity of up to 1 MW. The customer wanted to implement a propulsion system that complies with IMO requirements and to become independent of fossil fuels such as natural gas. The technology used was to be based on the use of alternative energy sources, including green hydrogen, converted directly into electricity in the fuel cell.

Hydrogen, as a highly reactive element, requires precise control, especially in terms of pressure and temperature. JUMO MIDAS S07 MA sensors, designed for marine applications, were used to monitor the hydrogen system. The sensors monitor, among other things, the pressure before and after the hydrogen refueling stage, and their signals are integrated into the control system.

Temperature and level transmitters have been installed in the cooling system to support cell operation control. Such a system not only increases safety but also enables full control over the process, reducing the risk of emissions of environmentally harmful substances. For a customer in the Polish shipping industry, this meant not only compliance with regulations, but also a real transition to fuel cells as a source of zero-emission propulsion.

About the author

My name is Ewelina Szmit and I have been working in content marketing for several years, combining my professional skills with my passion for writing. I am convinced that even the most technical topics can be presented in an interesting and accessible way for everyone. Outside of work, I unleash my creativity by creating newspaper collages. I like to spend my free time being active, walking my dog or running.

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