Efficient Harbor Craft Monitoring System: Time-Series Data Analytics and Machine Learning Tools to Achieve Fuel Efficiency by Operational Scoring System

Z. Y. Tay, J. Hadi, D. Konovessis, De Jin Loh, David Kong Hong Tan, Xiaobo Chen
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引用次数: 6

Abstract

This paper presents the analysis to reduce carbon emission from tugboat operations by utilizing a proposed unsupervised machine learning operational scoring system. The time-series analysis is performed by transforming data into a common domain for clustering. The data are collected from a tugboat to investigate the correlation between environmental and location data with fuel consumption to achieve fuel efficiency. The relevant parameters that influence the fuel consumption of the tugboat, such as fuel consumption, vessel route, vessel speed and wind metrics are collected from sensors installed onboard the ship and data provider to monitor and to gauge the vessel’s performance. The raw readings are conditioned (data cleaning and data pre-processing) before transformation to Score Dataset: the Raw mass-flowrate readings are cleaned by using the Haar wavelet; the wind raw reading is converted to wind effect data; the Location data is converted to vessel speed data. Together, they form a Score Dataset by applying the time series K-means clustering. The subsequent unsupervised learning identifies the activity labels that describe qualitatively the operations of the vessels and are obtained by using the non-time series K-mean clustering. By using the Hidden Markov Model approach, this paper attempts to explain the stochastic correlation among parameters explained earlier. The correlation is the information of newly discovered knowledge in terms of likelihood matrices, also known as the knowledge base (KB). The KB may be consumed to perform predictions. Hence, it is possible to suggest the optimal ship operation, i.e., speed that produces the optimum fuel consumption. The Score Dataset and clustering that are produced in this paper could also be used in the Artificial Neural Network for future work.
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有效的港口船只监测系统:时间序列数据分析和机器学习工具,通过操作评分系统实现燃油效率
本文介绍了利用提出的无监督机器学习操作评分系统来减少拖船操作碳排放的分析。时间序列分析是通过将数据转换为公共域进行聚类来完成的。这些数据是从一艘拖船上收集的,用于研究环境和位置数据与燃油消耗之间的关系,以实现燃油效率。影响拖船燃油消耗的相关参数,如燃油消耗、船只路线、船只速度和风速指标,由安装在船上的传感器和数据提供商收集,以监测和衡量船只的性能。原始读数在转换为分数数据集之前是有条件的(数据清洗和数据预处理):使用Haar小波清洗原始质量流量读数;将风的原始读数转换为风效应数据;位置数据转换为船舶速度数据。它们一起通过应用时间序列K-means聚类形成一个分数数据集。随后的无监督学习识别定性描述船舶操作的活动标签,并通过使用非时间序列k -均值聚类获得。本文试图利用隐马尔可夫模型的方法来解释前面解释的参数之间的随机相关性。相关性是以似然矩阵的形式表示新发现知识的信息,也称为知识库(KB)。可以使用KB来执行预测。因此,有可能建议最佳船舶操作,即产生最佳燃料消耗的速度。本文生成的分数数据集和聚类也可以用于人工神经网络的未来工作。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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