Cargando…

A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images

Trigger finger has become a prevalent disease that greatly affects occupational activity and daily life. Ultrasound imaging is commonly used for the clinical diagnosis of trigger finger severity. Due to image property variations, traditional methods cannot effectively segment the finger joint’s tend...

Descripción completa

Detalles Bibliográficos
Autores principales: Chuang, Bo-I, Kuo, Li-Chieh, Yang, Tai-Hua, Su, Fong-Chin, Jou, I-Ming, Lin, Wei-Jr, Sun, Yung-Nien
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Public Library of Science 2017
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5659776/
https://www.ncbi.nlm.nih.gov/pubmed/29077737
http://dx.doi.org/10.1371/journal.pone.0187042
_version_ 1783274205895196672
author Chuang, Bo-I
Kuo, Li-Chieh
Yang, Tai-Hua
Su, Fong-Chin
Jou, I-Ming
Lin, Wei-Jr
Sun, Yung-Nien
author_facet Chuang, Bo-I
Kuo, Li-Chieh
Yang, Tai-Hua
Su, Fong-Chin
Jou, I-Ming
Lin, Wei-Jr
Sun, Yung-Nien
author_sort Chuang, Bo-I
collection PubMed
description Trigger finger has become a prevalent disease that greatly affects occupational activity and daily life. Ultrasound imaging is commonly used for the clinical diagnosis of trigger finger severity. Due to image property variations, traditional methods cannot effectively segment the finger joint’s tendon structure. In this study, an adaptive texture-based active shape model method is used for segmenting the tendon and synovial sheath. Adapted weights are applied in the segmentation process to adjust the contribution of energy terms depending on image characteristics at different positions. The pathology is then determined according to the wavelet and co-occurrence texture features of the segmented tendon area. In the experiments, the segmentation results have fewer errors, with respect to the ground truth, than contours drawn by regular users. The mean values of the absolute segmentation difference of the tendon and synovial sheath are 3.14 and 4.54 pixels, respectively. The average accuracy of pathological determination is 87.14%. The segmentation results are all acceptable in data of both clear and fuzzy boundary cases in 74 images. And the symptom classifications of 42 cases are also a good reference for diagnosis according to the expert clinicians’ opinions.
format Online
Article
Text
id pubmed-5659776
institution National Center for Biotechnology Information
language English
publishDate 2017
publisher Public Library of Science
record_format MEDLINE/PubMed
spelling pubmed-56597762017-11-09 A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images Chuang, Bo-I Kuo, Li-Chieh Yang, Tai-Hua Su, Fong-Chin Jou, I-Ming Lin, Wei-Jr Sun, Yung-Nien PLoS One Research Article Trigger finger has become a prevalent disease that greatly affects occupational activity and daily life. Ultrasound imaging is commonly used for the clinical diagnosis of trigger finger severity. Due to image property variations, traditional methods cannot effectively segment the finger joint’s tendon structure. In this study, an adaptive texture-based active shape model method is used for segmenting the tendon and synovial sheath. Adapted weights are applied in the segmentation process to adjust the contribution of energy terms depending on image characteristics at different positions. The pathology is then determined according to the wavelet and co-occurrence texture features of the segmented tendon area. In the experiments, the segmentation results have fewer errors, with respect to the ground truth, than contours drawn by regular users. The mean values of the absolute segmentation difference of the tendon and synovial sheath are 3.14 and 4.54 pixels, respectively. The average accuracy of pathological determination is 87.14%. The segmentation results are all acceptable in data of both clear and fuzzy boundary cases in 74 images. And the symptom classifications of 42 cases are also a good reference for diagnosis according to the expert clinicians’ opinions. Public Library of Science 2017-10-27 /pmc/articles/PMC5659776/ /pubmed/29077737 http://dx.doi.org/10.1371/journal.pone.0187042 Text en © 2017 Chuang et al http://creativecommons.org/licenses/by/4.0/ This is an open access article distributed under the terms of the Creative Commons Attribution License (http://creativecommons.org/licenses/by/4.0/) , which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
spellingShingle Research Article
Chuang, Bo-I
Kuo, Li-Chieh
Yang, Tai-Hua
Su, Fong-Chin
Jou, I-Ming
Lin, Wei-Jr
Sun, Yung-Nien
A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images
title A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images
title_full A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images
title_fullStr A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images
title_full_unstemmed A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images
title_short A medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (ATASM) in ultrasound images
title_sort medical imaging analysis system for trigger finger using an adaptive texture-based active shape model (atasm) in ultrasound images
topic Research Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5659776/
https://www.ncbi.nlm.nih.gov/pubmed/29077737
http://dx.doi.org/10.1371/journal.pone.0187042
work_keys_str_mv AT chuangboi amedicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT kuolichieh amedicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT yangtaihua amedicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT sufongchin amedicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT jouiming amedicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT linweijr amedicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT sunyungnien amedicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT chuangboi medicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT kuolichieh medicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT yangtaihua medicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT sufongchin medicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT jouiming medicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT linweijr medicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages
AT sunyungnien medicalimaginganalysissystemfortriggerfingerusinganadaptivetexturebasedactiveshapemodelatasminultrasoundimages