TY - JOUR
T1 - A Seasonal-Trend Decomposition and Single Dendrite Neuron-Based Predicting Model for Greenhouse Time Series
AU - Li, Qianqian
AU - He, Houtian
AU - Xue, Chenxi
AU - Liu, Tongyan
AU - Gao, Shangce
N1 - Publisher Copyright:
© The Author(s), under exclusive licence to Springer Nature Switzerland AG 2023.
PY - 2024/6
Y1 - 2024/6
N2 - The greenhouse farming always uses sensors to monitor the dynamic climate parameters and generate time-related data. The prediction of these time series contributes a lot to greenhouse cultivation. Plenty of works concentrate on the chaotic characteristics of the time series and propose many machine learning-based models. However, the intrinsic features of them are ignored, i.e., seasonality and tendency. In this study, we propose a novel predicting model SDN that utilizes the Seasonal-trend Decomposition as preprocessing method and the Single Dendrite Neuron as nonlinear fitter to tackle greenhouse time series predictions. The decomposition gives SDN a flexibility that can process each component separately, while the well-designed neuron structure provides SDN with time efficiency. Accordingly, the experimental results show that the proposed SDN not only beats the widely used machine learning-based models, but also shows the robustness considering customized parameters and outliers in datasets, which enhance the possibility for SDN to be employed in the practical usage scenarios.
AB - The greenhouse farming always uses sensors to monitor the dynamic climate parameters and generate time-related data. The prediction of these time series contributes a lot to greenhouse cultivation. Plenty of works concentrate on the chaotic characteristics of the time series and propose many machine learning-based models. However, the intrinsic features of them are ignored, i.e., seasonality and tendency. In this study, we propose a novel predicting model SDN that utilizes the Seasonal-trend Decomposition as preprocessing method and the Single Dendrite Neuron as nonlinear fitter to tackle greenhouse time series predictions. The decomposition gives SDN a flexibility that can process each component separately, while the well-designed neuron structure provides SDN with time efficiency. Accordingly, the experimental results show that the proposed SDN not only beats the widely used machine learning-based models, but also shows the robustness considering customized parameters and outliers in datasets, which enhance the possibility for SDN to be employed in the practical usage scenarios.
KW - Computational cost
KW - Seasonal-trend decomposition
KW - Single dendrite neuron
KW - Time series prediction
UR - http://www.scopus.com/inward/record.url?scp=85171432469&partnerID=8YFLogxK
U2 - 10.1007/s10666-023-09931-z
DO - 10.1007/s10666-023-09931-z
M3 - 学術論文
AN - SCOPUS:85171432469
SN - 1420-2026
VL - 29
SP - 427
EP - 440
JO - Environmental Modeling and Assessment
JF - Environmental Modeling and Assessment
IS - 3
ER -