4.7 Article

Artificial intelligence approaches to predict thermal behavior of light earth cell incorporating PCMs: Experimental CNN and LSTM validation

Journal

JOURNAL OF ENERGY STORAGE
Volume 68, Issue -, Pages -

Publisher

ELSEVIER
DOI: 10.1016/j.est.2023.107780

Keywords

Heat transfer; PCM; Thermal behavior; CNN; LSTM; Prediction; Experimental validation

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This paper presents the thermal behavior prediction of bio-based walls with Phase Change Materials (PCMs) using artificial neural networks. Long-Short-Term Memory (LSTM) and Convolutional Neural Network (CNN) models are assessed based on in-situ study. The results show that these models can accurately predict heat transfers in bio-based walls with or without phase change materials, with the CNN model being more accurate in predicting processes involving phase shift.
The dynamic modeling of heat transfer in bio-based materials is a challenging endeavor due to the wide variety of factors that influence the thermal behavior of bio-based materials with Phase Change Materials (PCMs). There are a lot of factors related to heat transfer with phase change that are sometimes beyond our control. Since the phase change response of bio-based walls with PCM is significantly non-linear, in this paper, we present the thermal behavior prediction using artificial neural networks. Based on in-situ study of light earth incorporating PCMs, the effectiveness and training of Long-Short-Term Memory (LSTM) and Convolutional Neural Network (CNN) are assessed. According to the findings, the results showed that these models can predict precisely the heat transfers in light earth with or without phase change materials. Compared to the LSTM, it was found that the CNN model is more accurate in predicting processes involving phase shift, such as the one presented by the light earth incorporating PCMs.

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