A Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks

<bold>Objective:</bold> To design and implement an easy-to-use, Point-of-Care (PoC) lateral flow immunoassays (LFA) reader and data analysis system, which provides a more in-depth quantitative analysis for LFA images than conventional approaches thereby supporting efficient decision maki...

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Autores principales: Min Jing, Donal Mclaughlin, Sara E. Mcnamee, Shasidran Raj, Brian Mac Namee, David Steele, Dewar Finlay, James Mclaughlin
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Publicado: IEEE 2021
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Acceso en línea:https://doaj.org/article/f37ed9ec1ed347629c47b14d33b993e2
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spelling oai:doaj.org-article:f37ed9ec1ed347629c47b14d33b993e22021-12-04T00:00:12ZA Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks2168-237210.1109/JTEHM.2021.3130494https://doaj.org/article/f37ed9ec1ed347629c47b14d33b993e22021-01-01T00:00:00Zhttps://ieeexplore.ieee.org/document/9625990/https://doaj.org/toc/2168-2372<bold>Objective:</bold> To design and implement an easy-to-use, Point-of-Care (PoC) lateral flow immunoassays (LFA) reader and data analysis system, which provides a more in-depth quantitative analysis for LFA images than conventional approaches thereby supporting efficient decision making for potential early risk assessment of cardiovascular disease (CVD). <bold>Methods and procedures:</bold> A novel end-to-end system was developed including a portable device with CMOS camera integrated with optimized illumination and optics to capture the LFA images produced using high-sensitivity C-Reactive Protein (hsCRP) (concentration level &#x003C; 5 mg/L). The images were transmitted via WiFi to a back-end server system for image analysis and classification. Unlike common image classification approaches which are based on averaging image intensity from a region-of-interest (ROI), a novel approach was developed which considered the signal along the sample&#x2019;s flow direction as a time series and, consequently, no need for ROI detection. Long Short-Term Memory (LSTM) networks were deployed for multilevel classification. The features based on Dynamic Time Warping (DTW) and histogram bin counts (HBC) were explored for classification. <bold>Results:</bold> For the classification of hsCRP, the LSTM outperformed the traditional machine learning classifiers with or without DTW and HBC features performed the best (with mean accuracy of 94&#x0025;) compared to other features. Application of the proposed method to human plasma also suggests that HBC features from LFA time series performed better than the mean from ROI and raw LFA data. <bold>Conclusion:</bold> As a proof of concept, the results demonstrate the capability of the proposed framework for quantitative analysis of LFA images and suggest the potential for early risk assessment of CVD. <bold>Clinical impact:</bold> The hsCRP levels &#x003C; 5 mg/L were aligned with clinically actionable categories for early risk assessment of CVD. The outcomes demonstrated the real-world applicability of the proposed system for quantitative analysis of LFA images, which is potentially useful for more LFA applications beyond presented in this study.Min JingDonal MclaughlinSara E. McnameeShasidran RajBrian Mac NameeDavid SteeleDewar FinlayJames MclaughlinIEEEarticleLateral flow immunoassays (LFA)CMOS image sensorlong short-term memory (LSTM)dynamic time warpinghigh-sensitivity C-Reactive ProteinComputer applications to medicine. Medical informaticsR858-859.7Medical technologyR855-855.5ENIEEE Journal of Translational Engineering in Health and Medicine, Vol 9, Pp 1-15 (2021)
institution DOAJ
collection DOAJ
language EN
topic Lateral flow immunoassays (LFA)
CMOS image sensor
long short-term memory (LSTM)
dynamic time warping
high-sensitivity C-Reactive Protein
Computer applications to medicine. Medical informatics
R858-859.7
Medical technology
R855-855.5
spellingShingle Lateral flow immunoassays (LFA)
CMOS image sensor
long short-term memory (LSTM)
dynamic time warping
high-sensitivity C-Reactive Protein
Computer applications to medicine. Medical informatics
R858-859.7
Medical technology
R855-855.5
Min Jing
Donal Mclaughlin
Sara E. Mcnamee
Shasidran Raj
Brian Mac Namee
David Steele
Dewar Finlay
James Mclaughlin
A Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks
description <bold>Objective:</bold> To design and implement an easy-to-use, Point-of-Care (PoC) lateral flow immunoassays (LFA) reader and data analysis system, which provides a more in-depth quantitative analysis for LFA images than conventional approaches thereby supporting efficient decision making for potential early risk assessment of cardiovascular disease (CVD). <bold>Methods and procedures:</bold> A novel end-to-end system was developed including a portable device with CMOS camera integrated with optimized illumination and optics to capture the LFA images produced using high-sensitivity C-Reactive Protein (hsCRP) (concentration level &#x003C; 5 mg/L). The images were transmitted via WiFi to a back-end server system for image analysis and classification. Unlike common image classification approaches which are based on averaging image intensity from a region-of-interest (ROI), a novel approach was developed which considered the signal along the sample&#x2019;s flow direction as a time series and, consequently, no need for ROI detection. Long Short-Term Memory (LSTM) networks were deployed for multilevel classification. The features based on Dynamic Time Warping (DTW) and histogram bin counts (HBC) were explored for classification. <bold>Results:</bold> For the classification of hsCRP, the LSTM outperformed the traditional machine learning classifiers with or without DTW and HBC features performed the best (with mean accuracy of 94&#x0025;) compared to other features. Application of the proposed method to human plasma also suggests that HBC features from LFA time series performed better than the mean from ROI and raw LFA data. <bold>Conclusion:</bold> As a proof of concept, the results demonstrate the capability of the proposed framework for quantitative analysis of LFA images and suggest the potential for early risk assessment of CVD. <bold>Clinical impact:</bold> The hsCRP levels &#x003C; 5 mg/L were aligned with clinically actionable categories for early risk assessment of CVD. The outcomes demonstrated the real-world applicability of the proposed system for quantitative analysis of LFA images, which is potentially useful for more LFA applications beyond presented in this study.
format article
author Min Jing
Donal Mclaughlin
Sara E. Mcnamee
Shasidran Raj
Brian Mac Namee
David Steele
Dewar Finlay
James Mclaughlin
author_facet Min Jing
Donal Mclaughlin
Sara E. Mcnamee
Shasidran Raj
Brian Mac Namee
David Steele
Dewar Finlay
James Mclaughlin
author_sort Min Jing
title A Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks
title_short A Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks
title_full A Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks
title_fullStr A Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks
title_full_unstemmed A Novel Method for Quantitative Analysis of C-Reactive Protein Lateral Flow Immunoassays Images via CMOS Sensor and Recurrent Neural Networks
title_sort novel method for quantitative analysis of c-reactive protein lateral flow immunoassays images via cmos sensor and recurrent neural networks
publisher IEEE
publishDate 2021
url https://doaj.org/article/f37ed9ec1ed347629c47b14d33b993e2
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