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📄 Journal Article

Forecasting container throughput with long short-term memory networks

December 04, 2019 83 citations 🔒 Closed Industrial Management & Data Systems
83
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Abstract

Purpose Better forecasting always leads to better management and planning of the operations. The container throughput data are complex and often have multiple seasonality. This makes it difficult to forecast accurately. The purpose of this paper is to forecast container throughput using deep learning methods and benchmark its performance over other traditional time-series methods. Design/methodology/approach In this study, long short-term memory (LSTM) networks are implemented to forecast container throughput. The container throughput data of the Port of Singapore are used for empirical analysis. The forecasting performance of the LSTM model is compared with seven different time-series forecasting methods, namely, autoregressive integrated moving average (ARIMA), simple exponential smoothing, Holt–Winter’s, error-trend-seasonality, trigonometric regressors (TBATS), neural network (NN) and ARIMA + NN. The relative error matrix is used to analyze the performance of the different models with respect to bias, accuracy and uncertainty. Findings The results showed that LSTM outperformed all other benchmark methods. From a statistical perspective, the Diebold–Mariano test is also conducted to further substantiate better forecasting performance of LSTM over other counterpart methods. Originality/value The proposed study is a contribution to the literature on the container throughput forecasting and adds value to the supply chain theory of forecasting. Second, this study explained the architecture of the deep-learning-based LSTM method and discussed in detail the steps to implement it.

Publication Details
TypeJournal Article
PublishedDecember 04, 2019
Source Industrial Management & Data Systems
PublisherEmerald Publishing Limited
Volume/Issue Vol. 120 , Issue 3 , pp. 425-441
DOI 10.1108/imds-07-2019-0370
OpenAlex ID W2998806725
Open AccessClosed Access
Sustainable Development Goals
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