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Local ice load estimation using LSTM-based missing value imputation for strain gauge data in icebreaking vessels

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초록

This study investigates a method for estimating the missing strain data from hull-mounted strain gauges during ice collisions, focusing on the icebreaking research vessel (IBRV) Araon. Strain gauges installed on the internal partition walls of the vessel are used to measure the hull response to ice loads encountered during operations in polar regions. Annual research efforts aim to estimate the local ice load on the hull; however sensor data are often missing values, making accurate estimations challenging. These missing values disrupt the strain calculation, which relies on an influence coefficient matrix derived from multidirectional forces and ice impact dy-namics. Simple interpolation methods such as mean substitution or regression analysis are insufficient because of the complex and multidirectional nature of sea ice collisions. To address this issue, we propose a Long Short-Term Memory (LSTM)-based interpolation method. LSTM models are well-suited to this task because of their ability to handle long-term dependencies, mitigate gradient loss issues, and effectively process time-series data of varying lengths. The proposed approach demonstrated enhanced accuracy in estimat-ing missing strain data, offering a robust solution for analyzing hull-ice interactions in extreme environments.

Abstract

This study investigates a method for estimating the missing strain data from hull-mounted strain gauges during ice collisions, focusing on the icebreaking research vessel (IBRV) Araon. Strain gauges installed on the internal partition walls of the vessel are used to measure the hull response to ice loads encountered during operations in polar regions. Annual research efforts aim to estimate the local ice load on the hull; however sensor data are often missing values, making accurate estimations challenging. These missing values disrupt the strain calculation, which relies on an influence coefficient matrix derived from multidirectional forces and ice impact dy-namics. Simple interpolation methods such as mean substitution or regression analysis are insufficient because of the complex and multidirectional nature of sea ice collisions. To address this issue, we propose a Long Short-Term Memory (LSTM)-based interpolation method. LSTM models are well-suited to this task because of their ability to handle long-term dependencies, mitigate gradient loss issues, and effectively process time-series data of varying lengths. The proposed approach demonstrated enhanced accuracy in estimat-ing missing strain data, offering a robust solution for analyzing hull-ice interactions in extreme environments.

참고문헌 (30)

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