Cargando…

Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging

The soluble solid content (SSC) is one of the important parameters depicting the quality, maturity and taste of fruits. This study explored hyperspectral imaging (HSI) and fluorescence spectral imaging (FSI) techniques, as well as suitable chemometric techniques to predict the SSC in kiwifruit. 90 k...

Descripción completa

Detalles Bibliográficos
Autores principales: Xu, Lijia, Chen, Yanjun, Wang, Xiaohui, Chen, Heng, Tang, Zuoliang, Shi, Xiaoshi, Chen, Xinyuan, Wang, Yuchao, Kang, Zhilang, Zou, Zhiyong, Huang, Peng, He, Yong, Yang, Ning, Zhao, Yongpeng
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Frontiers Media S.A. 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9889828/
https://www.ncbi.nlm.nih.gov/pubmed/36743568
http://dx.doi.org/10.3389/fpls.2022.1075929
_version_ 1784880815621013504
author Xu, Lijia
Chen, Yanjun
Wang, Xiaohui
Chen, Heng
Tang, Zuoliang
Shi, Xiaoshi
Chen, Xinyuan
Wang, Yuchao
Kang, Zhilang
Zou, Zhiyong
Huang, Peng
He, Yong
Yang, Ning
Zhao, Yongpeng
author_facet Xu, Lijia
Chen, Yanjun
Wang, Xiaohui
Chen, Heng
Tang, Zuoliang
Shi, Xiaoshi
Chen, Xinyuan
Wang, Yuchao
Kang, Zhilang
Zou, Zhiyong
Huang, Peng
He, Yong
Yang, Ning
Zhao, Yongpeng
author_sort Xu, Lijia
collection PubMed
description The soluble solid content (SSC) is one of the important parameters depicting the quality, maturity and taste of fruits. This study explored hyperspectral imaging (HSI) and fluorescence spectral imaging (FSI) techniques, as well as suitable chemometric techniques to predict the SSC in kiwifruit. 90 kiwifruit samples were divided into 70 calibration sets and 20 prediction sets. The hyperspectral images of samples in the spectral range of 387 nm~1034 nm and the fluorescence spectral images in the spectral range of 400 nm~1000 nm were collected, and their regions of interest were extracted. Six spectral pre-processing techniques were used to pre-process the two spectral data, and the best pre-processing method was selected after comparing it with the predicted results. Then, five primary and three secondary feature extraction algorithms were used to extract feature variables from the pre-processed spectral data. Subsequently, three regression prediction models, i.e., the extreme learning machines (ELM), the partial least squares regression (PLSR) and the particle swarm optimization - least square support vector machine (PSO-LSSVM), were established. The prediction results were analyzed and compared further. MASS-Boss-ELM, based on fluorescence spectral imaging technique, exhibited the best prediction performance for the kiwifruit SSC, with the [Formula: see text] , [Formula: see text] and RPD of 0.8894, 0.9429 and 2.88, respectively. MASS-Boss-PLSR based on the hyperspectral imaging technique showed a slightly lower prediction performance, with the [Formula: see text] , [Formula: see text] , and RPD of 0.8717, 0.8747, and 2.89, respectively. The outcome presents that the two spectral imaging techniques are suitable for the non-destructive prediction of fruit quality. Among them, the FSI technology illustrates better prediction, providing technical support for the non-destructive detection of intrinsic fruit quality.
format Online
Article
Text
id pubmed-9889828
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher Frontiers Media S.A.
record_format MEDLINE/PubMed
spelling pubmed-98898282023-02-02 Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging Xu, Lijia Chen, Yanjun Wang, Xiaohui Chen, Heng Tang, Zuoliang Shi, Xiaoshi Chen, Xinyuan Wang, Yuchao Kang, Zhilang Zou, Zhiyong Huang, Peng He, Yong Yang, Ning Zhao, Yongpeng Front Plant Sci Plant Science The soluble solid content (SSC) is one of the important parameters depicting the quality, maturity and taste of fruits. This study explored hyperspectral imaging (HSI) and fluorescence spectral imaging (FSI) techniques, as well as suitable chemometric techniques to predict the SSC in kiwifruit. 90 kiwifruit samples were divided into 70 calibration sets and 20 prediction sets. The hyperspectral images of samples in the spectral range of 387 nm~1034 nm and the fluorescence spectral images in the spectral range of 400 nm~1000 nm were collected, and their regions of interest were extracted. Six spectral pre-processing techniques were used to pre-process the two spectral data, and the best pre-processing method was selected after comparing it with the predicted results. Then, five primary and three secondary feature extraction algorithms were used to extract feature variables from the pre-processed spectral data. Subsequently, three regression prediction models, i.e., the extreme learning machines (ELM), the partial least squares regression (PLSR) and the particle swarm optimization - least square support vector machine (PSO-LSSVM), were established. The prediction results were analyzed and compared further. MASS-Boss-ELM, based on fluorescence spectral imaging technique, exhibited the best prediction performance for the kiwifruit SSC, with the [Formula: see text] , [Formula: see text] and RPD of 0.8894, 0.9429 and 2.88, respectively. MASS-Boss-PLSR based on the hyperspectral imaging technique showed a slightly lower prediction performance, with the [Formula: see text] , [Formula: see text] , and RPD of 0.8717, 0.8747, and 2.89, respectively. The outcome presents that the two spectral imaging techniques are suitable for the non-destructive prediction of fruit quality. Among them, the FSI technology illustrates better prediction, providing technical support for the non-destructive detection of intrinsic fruit quality. Frontiers Media S.A. 2023-01-18 /pmc/articles/PMC9889828/ /pubmed/36743568 http://dx.doi.org/10.3389/fpls.2022.1075929 Text en Copyright © 2023 Xu, Chen, Wang, Chen, Tang, Shi, Chen, Wang, Kang, Zou, Huang, He, Yang and Zhao https://creativecommons.org/licenses/by/4.0/This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
spellingShingle Plant Science
Xu, Lijia
Chen, Yanjun
Wang, Xiaohui
Chen, Heng
Tang, Zuoliang
Shi, Xiaoshi
Chen, Xinyuan
Wang, Yuchao
Kang, Zhilang
Zou, Zhiyong
Huang, Peng
He, Yong
Yang, Ning
Zhao, Yongpeng
Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging
title Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging
title_full Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging
title_fullStr Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging
title_full_unstemmed Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging
title_short Non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging
title_sort non-destructive detection of kiwifruit soluble solid content based on hyperspectral and fluorescence spectral imaging
topic Plant Science
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9889828/
https://www.ncbi.nlm.nih.gov/pubmed/36743568
http://dx.doi.org/10.3389/fpls.2022.1075929
work_keys_str_mv AT xulijia nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT chenyanjun nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT wangxiaohui nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT chenheng nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT tangzuoliang nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT shixiaoshi nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT chenxinyuan nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT wangyuchao nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT kangzhilang nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT zouzhiyong nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT huangpeng nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT heyong nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT yangning nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging
AT zhaoyongpeng nondestructivedetectionofkiwifruitsolublesolidcontentbasedonhyperspectralandfluorescencespectralimaging