Tourism demand forecasting: a novel multi-channel imaging model

Purpose This study aims to introduce an innovative multi-channel imaging technique aimed at mitigating deep learning overfitting and facilitating the automatic extraction of features from limited 1D data. Design/methodology/approach The proposed framework consists of five key component: dimensionality reduction, sequence image generation, image stitching, feature extraction and model training. It converts 1D multi-temporal data into multiple 2D images utilizing Markov transition field, Gramian angular field and recurrence plot. These single-channel images are stitched into a larger n-channel image, which is processed by a convolutional neural network for feature extraction and forecasted using a long short-term memory network. Findings The results demonstrate that the proposed multi-channel imaging technique outperforms all benchmark models. This conversion captures underlying patterns and enhances information transmission. Additionally, models with multi-time series configurations perform better than single-time series setups, highlighting that data are more crucial than advanced models in forecasting. Originality/value This pioneering study explores the role of non-economic variables in tourism forecasting. The proposed multi-channel time series imaging model not only applies to tourism but also offers potential for interdisciplinary applications.

Authors

Publication Details

Journal
Journal of Tourism Futures
Published
2025-04-09
DOI
https://doi.org/10.1108/jtf-12-2024-0263
Primary Topic
Diverse Aspects of Tourism Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Tourism demand forecasting: a novel multi-channel imaging model

Rob Law, Yihong Chen, Tao Hu
Journal of Tourism Futures
Diverse Aspects of Tourism Research
article

Tourism demand forecasting: a novel multi-channel imaging model

Rob Law, Yihong Chen, Tao Hu
article en

Abstract

Purpose This study aims to introduce an innovative multi-channel imaging technique aimed at mitigating deep learning overfitting and facilitating the automatic extraction of features from limited 1D data. Design/methodology/approach The proposed framework consists of five key component: dimensionality reduction, sequence image generation, image stitching, feature extraction and model training. It converts 1D multi-temporal data into multiple 2D images utilizing Markov transition field, Gramian angular field and recurrence plot. These single-channel images are stitched into a larger n-channel image, which is processed by a convolutional neural network for feature extraction and forecasted using a long short-term memory network. Findings The results demonstrate that the proposed multi-channel imaging technique outperforms all benchmark models. This conversion captures underlying patterns and enhances information transmission. Additionally, models with multi-time series configurations perform better than single-time series setups, highlighting that data are more crucial than advanced models in forecasting. Originality/value This pioneering study explores the role of non-economic variables in tourism forecasting. The proposed multi-channel time series imaging model not only applies to tourism but also offers potential for interdisciplinary applications.

Journal of Tourism Futures
Openalex Percentile: Top 91%
Diverse Aspects of Tourism Research
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Tourism demand forecasting: a novel multi-channel imaging model — Rob Law, Yihong Chen, et al. · Journal of Tourism Futures (2025) | TGRS Research Map | TGRS