Advanced Data Analytics Based Hybrid Engine-Propeller Combinator Diagram for Green Ship Operations

L. Perera, K. Belibassakis, E. Filippas, M. Premasiri
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Abstract

Ship owners should comply with the forthcoming IMO legislations that mandates a reduction of ship emissions of at least 40% by 2030 compared with the 2008 baseline. However, it is unlikely that the shipping industry will be able to achieve its 2030 and 2050 emission reduction targets relying only on existing vessel technologies. Hence, the required green ship technologies that relate to industrial digitalization and AI applications should be utilized onboard vessels to achieve these emission reduction targets. This study proposes to analyze a hybrid engine-propeller combinator diagram from both theoretical calculations, i.e. from the vessel hull design, as well as data driven calculations, i.e. from ship performance and navigation data sets, to compare their performance in a single model framework. That would consist of various machine learning applications to create AI. It is expected that such combinations will support to understand the variations among system-model uncertainties in vessels and ship systems as a system of systems and that can also support industrial digitalization in shipping. Furthermore, the hybrid engine-propeller combinator diagram can be utilized to establish the basis for advanced data analytics that will be used to identify optimal vessel navigation and ship system operational conditions.
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基于先进数据分析的绿色船舶混合动力发动机-螺旋桨组合图
船东应遵守即将出台的国际海事组织立法,该立法要求到2030年,与2008年的基线相比,船舶排放量至少减少40%。然而,仅依靠现有船舶技术,航运业不太可能实现其2030年和2050年的减排目标。因此,应在船上利用与工业数字化和人工智能应用相关的所需绿色船舶技术来实现这些减排目标。本研究提出从理论计算(即船体设计)和数据驱动计算(即船舶性能和导航数据集)两方面分析混合动力发动机-螺旋桨组合图,以便在单一模型框架下比较它们的性能。这将包括各种机器学习应用程序来创建人工智能。预计这种组合将有助于理解船舶和船舶系统作为系统的系统模型不确定性之间的变化,并且还可以支持航运业的工业数字化。此外,混合动力发动机-螺旋桨组合图可用于建立高级数据分析的基础,这些数据分析将用于确定最佳船舶导航和船舶系统运行条件。
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