Dynamic driving in seaports: Current and future applications

While striving for sustainable operations, carriers, shipping companies, freight forwarders, and container terminal operators aim to ensure efficiency and competitive operations. Slow steaming, particularly for ocean-going cargo vessels, is a popular method to save fuel, leading to more cost-effective operations and reduced emissions. We analyze the application domains of slow steaming, floating car data (FCD) as well as dynamic driving and the methods enabling it. Notably, the paper identifies dynamic driving for straddle carriers (SCs) as a research gap and discusses its application. We present a feasibility study and insights from a project that develops a digital twin for the EUROGATE Container Terminal Hamburg (CTH), Germany. Data from the project is used to specifically examining the application of dynamic driving for SCs. The results show an estimated reduction in fuel consumption of up to 21%. Furthermore, we estimate 3% lower emissions for the container terminal. • Fuel savings through dynamic driving with up to 21% for straddle carriers (SC). • Investigation of SC operational efficiency and driver acceptance of dynamic driving. • Central role of a digital twin for enabling SC driving pattern analysis is demonstrated. • Research enables planning and energy savings through refined operational strategies.

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Publication Details

Journal
Cleaner Logistics and Supply Chain
Published
2025-01-27
DOI
https://doi.org/10.1016/j.clscn.2025.100203
Citations
3
Primary Topic
Maritime Transport Emissions and Efficiency
Type
article
Field-Weighted Citation Impact
2.40

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article

Dynamic driving in seaports: Current and future applications

Leonard Heilig, Julian Neugebauer, Stefan Voß
3 citations
Cleaner Logistics and Supply Chain
Maritime Transport Emissions and Efficiency
2.40
article

Dynamic driving in seaports: Current and future applications

Leonard Heilig, Julian Neugebauer, Stefan Voß
article en
3 citations

Abstract

While striving for sustainable operations, carriers, shipping companies, freight forwarders, and container terminal operators aim to ensure efficiency and competitive operations. Slow steaming, particularly for ocean-going cargo vessels, is a popular method to save fuel, leading to more cost-effective operations and reduced emissions. We analyze the application domains of slow steaming, floating car data (FCD) as well as dynamic driving and the methods enabling it. Notably, the paper identifies dynamic driving for straddle carriers (SCs) as a research gap and discusses its application. We present a feasibility study and insights from a project that develops a digital twin for the EUROGATE Container Terminal Hamburg (CTH), Germany. Data from the project is used to specifically examining the application of dynamic driving for SCs. The results show an estimated reduction in fuel consumption of up to 21%. Furthermore, we estimate 3% lower emissions for the container terminal. • Fuel savings through dynamic driving with up to 21% for straddle carriers (SC). • Investigation of SC operational efficiency and driver acceptance of dynamic driving. • Central role of a digital twin for enabling SC driving pattern analysis is demonstrated. • Research enables planning and energy savings through refined operational strategies.

Cleaner Logistics and Supply ChainVol. 14
Pontificia Universidad Católica de Valparaíso (CL)
Bundesministerium für Verkehr und Digitale Infrastruktur
Life below water
Openalex Percentile: Top 14%
Maritime Transport Emissions and Efficiency
2.40
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