The shipping industry's plans to replace fossil fuels with green fuels have several well-described climate and environmental benefits, but far less well-studied are the possible environmental risks linked to a large-scale use of green fuels in ships. Sufficient knowledge of the physical and chemical properties, toxicity to the environment, as well as dispersion and degradation dynamics of the green fuels in the environment are therefore fundamental prerequisites for the shipping industry to implement the green transition with minimal risk of simply replacing one problem with another.
In this project, we will carry out the first in-depth mapping and environmental risk assessment of potential derived environmental effects that may arise from both emissions to the atmosphere and discharges to the marine environment from these green marine fuels. The project includes, among other things, a thorough review of the properties of the green fuels in both air and water, experimental studies on the impact on aquatic organisms, natural degradation mechanisms, the spread in both the atmosphere and marine environment during normal operation and in the event of accidents/spills, as well as life cycle assessment (LCA).
ongoingThe shipping industry is responsible for around 3% of global greenhouse gas emissions, and this is expected to increase as global trade and shipping activity continues to grow. As such, reducing emissions from shipping is an important part of global efforts to tackle climate change.
ongoingMISSION targets GHG emissions reductions in the maritime transportation chain, specifically optimizing the port call process. Within the project, integrated port call system solutions are build to increase transparency and communication about resource readiness and estimated arrival times to finally orchestrate the overall port call process. The project contains demonstration cases that will highlight the gains from the system solutions.
ongoingMAN Energy Solutions is developing a new two-stroke dual fuel natural gas-diesel marine engine based on new premixed combustion technology. The current project aims to study the methane slip which is one of the main challenges of the premixed technology. The pilot diesel fuel injection parameters will be optimized to obtain higher efficiency and lower emissions.
The project uses digital innovation to monitor RoRo shipping emissions and optimize the industry operational and strategic planning. By doing so, we reduce the fuel consumption of the used vessels, which have the highest impact factor on the GHG emissions produced during maritime shipping.