Deep learning driven methodology for the prediction of mushroom moisture content using a novel LED-based portable hyperspectral imaging system

• The performance of 1D-CNN, SVMR and PLSR models were compared for mushroom moisture content prediction. • LED-based portable HSI camera was implemented to acquire mushroom hyperspectral images. • An in-depth spectral importance analysis of LED light and tungsten-halogen lamps was conducted. • 1D-CNN model based on the LED-HSI data achieved R p 2 of 0.972, RMSEP of 4.70 % and RPD p of 6.29. This study proposes a deep-learning driven methodology for the analysis of mushroom moisture content (MC) datasets acquired using a novel portable hyperspectral imaging (HSI) system. One-dimensional convolutional neural network (1D-CNN) was developed and validated to process the raw HSI data of white button mushrooms (Agaricus bisporus) for MC prediction. For comparison purposes, state-of-the-art machine learning algorithms, i.e., support vector machine regression (SVMR) and partial least squares regression (PLSR) were also investigated for the model development based on five spectra pre-processed methods using two different lighting systems i.e., enhanced light-emitting diode (LED) and tungsten halogen (TH). Overall, the predictive models based on the HSI data acquired using the LED lights (R p 2 of 0.977, RMSEP of 4.27 %, and RPD p of 6.89) exhibited better performances on the prediction of mushroom MC than those models developed using the TH-HSI data (R p 2 of 0.868, RMSEP of 10.69 %, and RPD p of 2.75). Specifically, the 1D-CNN model based on the raw LED-HSI data (R p 2 of 0.972, RMSEP of 4.70 % and RPD p of 6.29) and the SVMR model based on multiplicative scatter correction (MSC) pretreated LED-HSI data (R p 2 of 0.977, RMSEP of 4.27 %, and RPD p of 6.89) achieved exceptional predictive accuracy for mushroom MC. This finding highlights the effectiveness of the 1D-CNN model in the analysis of HSI data, which performed similarly to the SVMR model without requiring complex data preprocessing steps. In addition, the feasibility of employing a novel LED illumination system in conjunction with a portable HSI camera for the precise MC monitoring of button mushrooms was demonstrated in the present work.

Authors

Publication Details

Journal
Smart Agricultural Technology
Published
2024-12-30
DOI
https://doi.org/10.1016/j.atech.2024.100747
Citations
8
Primary Topic
Spectroscopy and Chemometric Analyses
Type
article
Field-Weighted Citation Impact
1.89

Funders

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article

Deep learning driven methodology for the prediction of mushroom moisture content using a novel LED-based portable hyperspectral imaging system

Ming Zhao, Dimitrios Argyropoulos, Kai Yang
8 citations
Smart Agricultural Technology
Spectroscopy and Chemometric Analyses
1.89
article

Deep learning driven methodology for the prediction of mushroom moisture content using a novel LED-based portable hyperspectral imaging system

Ming Zhao, Dimitrios Argyropoulos, Kai Yang
article en
8 citations

Abstract

• The performance of 1D-CNN, SVMR and PLSR models were compared for mushroom moisture content prediction. • LED-based portable HSI camera was implemented to acquire mushroom hyperspectral images. • An in-depth spectral importance analysis of LED light and tungsten-halogen lamps was conducted. • 1D-CNN model based on the LED-HSI data achieved R p 2 of 0.972, RMSEP of 4.70 % and RPD p of 6.29. This study proposes a deep-learning driven methodology for the analysis of mushroom moisture content (MC) datasets acquired using a novel portable hyperspectral imaging (HSI) system. One-dimensional convolutional neural network (1D-CNN) was developed and validated to process the raw HSI data of white button mushrooms (Agaricus bisporus) for MC prediction. For comparison purposes, state-of-the-art machine learning algorithms, i.e., support vector machine regression (SVMR) and partial least squares regression (PLSR) were also investigated for the model development based on five spectra pre-processed methods using two different lighting systems i.e., enhanced light-emitting diode (LED) and tungsten halogen (TH). Overall, the predictive models based on the HSI data acquired using the LED lights (R p 2 of 0.977, RMSEP of 4.27 %, and RPD p of 6.89) exhibited better performances on the prediction of mushroom MC than those models developed using the TH-HSI data (R p 2 of 0.868, RMSEP of 10.69 %, and RPD p of 2.75). Specifically, the 1D-CNN model based on the raw LED-HSI data (R p 2 of 0.972, RMSEP of 4.70 % and RPD p of 6.29) and the SVMR model based on multiplicative scatter correction (MSC) pretreated LED-HSI data (R p 2 of 0.977, RMSEP of 4.27 %, and RPD p of 6.89) achieved exceptional predictive accuracy for mushroom MC. This finding highlights the effectiveness of the 1D-CNN model in the analysis of HSI data, which performed similarly to the SVMR model without requiring complex data preprocessing steps. In addition, the feasibility of employing a novel LED illumination system in conjunction with a portable HSI camera for the precise MC monitoring of button mushrooms was demonstrated in the present work.

Smart Agricultural TechnologyVol. 10
HORIZON EUROPE Framework Programme
Openalex Percentile: Top 15%
Spectroscopy and Chemometric Analyses
1.89
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