Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning

This study intends to evaluate the utilization potential of the combined Raman spectroscopy and machine learning approach to quickly identify the rainbow trout adulteration in Atlantic salmon. The adulterated samples contained various concentrations (0–100% w/w at 10% intervals) of rainbow trout mix...

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Published in:Molecules
Main Authors: Zeling Chen, Ting Wu, Cheng Xiang, Xiaoyan Xu, Xingguo Tian
Format: Text
Language:English
Published: Multidisciplinary Digital Publishing Institute 2019
Subjects:
Online Access:https://doi.org/10.3390/molecules24152851
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spelling ftmdpi:oai:mdpi.com:/1420-3049/24/15/2851/ 2023-08-20T04:05:13+02:00 Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning Zeling Chen Ting Wu Cheng Xiang Xiaoyan Xu Xingguo Tian agris 2019-08-06 application/pdf https://doi.org/10.3390/molecules24152851 EN eng Multidisciplinary Digital Publishing Institute https://dx.doi.org/10.3390/molecules24152851 https://creativecommons.org/licenses/by/4.0/ Molecules; Volume 24; Issue 15; Pages: 2851 Atlantic salmon adulteration Raman spectroscopy machine learning Text 2019 ftmdpi https://doi.org/10.3390/molecules24152851 2023-07-31T22:29:52Z This study intends to evaluate the utilization potential of the combined Raman spectroscopy and machine learning approach to quickly identify the rainbow trout adulteration in Atlantic salmon. The adulterated samples contained various concentrations (0–100% w/w at 10% intervals) of rainbow trout mixed into Atlantic salmon. Spectral preprocessing methods, such as first derivative, second derivative, multiple scattering correction (MSC), and standard normal variate, were employed. Unsupervised algorithms, such as recursive feature elimination, genetic algorithm (GA), and simulated annealing, and supervised K-means clustering (KM) algorithm were used for selecting important spectral bands to reduce the spectral complexity and improve the model stability. Finally, the performances of various machine learning models, including linear regression, nonlinear regression, regression tree, and rule-based models, were verified and compared. The results denoted that the developed GA–KM–Cubist machine learning model achieved satisfactory results based on MSC preprocessing. The determination coefficient (R2) and root mean square error of prediction sets (RMSEP) in the test sets were 0.87 and 10.93, respectively. These results indicate that Raman spectroscopy can be used as an effective Atlantic salmon adulteration identification method; further, the developed model can be used for quantitatively analyzing the rainbow trout adulteration in Atlantic salmon. Text Atlantic salmon MDPI Open Access Publishing Molecules 24 15 2851
institution Open Polar
collection MDPI Open Access Publishing
op_collection_id ftmdpi
language English
topic Atlantic salmon
adulteration
Raman spectroscopy
machine learning
spellingShingle Atlantic salmon
adulteration
Raman spectroscopy
machine learning
Zeling Chen
Ting Wu
Cheng Xiang
Xiaoyan Xu
Xingguo Tian
Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning
topic_facet Atlantic salmon
adulteration
Raman spectroscopy
machine learning
description This study intends to evaluate the utilization potential of the combined Raman spectroscopy and machine learning approach to quickly identify the rainbow trout adulteration in Atlantic salmon. The adulterated samples contained various concentrations (0–100% w/w at 10% intervals) of rainbow trout mixed into Atlantic salmon. Spectral preprocessing methods, such as first derivative, second derivative, multiple scattering correction (MSC), and standard normal variate, were employed. Unsupervised algorithms, such as recursive feature elimination, genetic algorithm (GA), and simulated annealing, and supervised K-means clustering (KM) algorithm were used for selecting important spectral bands to reduce the spectral complexity and improve the model stability. Finally, the performances of various machine learning models, including linear regression, nonlinear regression, regression tree, and rule-based models, were verified and compared. The results denoted that the developed GA–KM–Cubist machine learning model achieved satisfactory results based on MSC preprocessing. The determination coefficient (R2) and root mean square error of prediction sets (RMSEP) in the test sets were 0.87 and 10.93, respectively. These results indicate that Raman spectroscopy can be used as an effective Atlantic salmon adulteration identification method; further, the developed model can be used for quantitatively analyzing the rainbow trout adulteration in Atlantic salmon.
format Text
author Zeling Chen
Ting Wu
Cheng Xiang
Xiaoyan Xu
Xingguo Tian
author_facet Zeling Chen
Ting Wu
Cheng Xiang
Xiaoyan Xu
Xingguo Tian
author_sort Zeling Chen
title Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning
title_short Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning
title_full Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning
title_fullStr Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning
title_full_unstemmed Rapid Identification of Rainbow Trout Adulteration in Atlantic Salmon by Raman Spectroscopy Combined with Machine Learning
title_sort rapid identification of rainbow trout adulteration in atlantic salmon by raman spectroscopy combined with machine learning
publisher Multidisciplinary Digital Publishing Institute
publishDate 2019
url https://doi.org/10.3390/molecules24152851
op_coverage agris
genre Atlantic salmon
genre_facet Atlantic salmon
op_source Molecules; Volume 24; Issue 15; Pages: 2851
op_relation https://dx.doi.org/10.3390/molecules24152851
op_rights https://creativecommons.org/licenses/by/4.0/
op_doi https://doi.org/10.3390/molecules24152851
container_title Molecules
container_volume 24
container_issue 15
container_start_page 2851
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