Abstract

On the basis of empirical experimental data, relationships were identified indicating the influence of navigators' response to such vessel control indicators as maneuverability and safety. This formed a hypothesis about a non-random connection between the navigator's actions, response and parameters of maritime transport management. Within the framework of this hypothesis, logical-formal approaches were proposed that allow using server data of both maritime simulators and operating vessels in order to timely identify the occurrence of a critical situation with possible catastrophic consequences. A method for processing navigation data based on the analysis of temporal zones is proposed, which made it possible to prevent manifestations of reduced efficiency of maritime transport management by 22.5 %. Based on cluster analysis and automated neural networks, it was possible to identify temporary vessel control fragments and classify them by the level of danger. At the same time, the neural network test error was only 3.1 %, and the learning error was 3.8 %, which ensures the high quality of simulation results. The proposed approaches were tested using the Navi Trainer 5000 navigation simulator (Wärtsilä Corporation, Finland). The simulation of the system for identifying critical situations in maritime transport management made it possible to reduce the probability of catastrophic situations by 13.5 %. The use of automated artificial neural networks allowed defining critical situations in real time from the database of maritime transport management on the captain's bridge for an individual navigator.

Highlights

  • The development of modern information navigation systems is aimed at the maximum possible coverage of data coming from navigation devices and displayed on captain’s bridge information panels [1]

  • The task of complex human-computer interaction of the navigator with computerized vessel control systems is determined based on the results of navigation situation perception

  • This approach is based on the applied aspects of the theory of risks caused by the human factor [15, 16] and takes into account the psychological patterns of critical situation perception [17], as well as psychological mechanisms of expected behavior [18]

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Summary

Introduction

The development of modern information navigation systems is aimed at the maximum possible coverage of data coming from navigation devices and displayed on captain’s bridge information panels [1]. The studies [4] have shown that despite the significant expansion of the information field of data forming the navigator’s perception of the navigation situation, the opposite effect is possible. The reason for this is the large volume of simultaneously perceived heterogeneous navigation data. The task of complex human-computer interaction of the navigator with computerized vessel control systems is determined based on the results of navigation situation perception. Considering that at present, autopilot systems and artificial intelligence modules do not allow making effective decisions in complex navigation and critical situations, specialized control systems are needed. There is a need to create automated means for analyzing responses during vessel control in order to prevent catastrophic consequences

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