DocumentCode
617525
Title
Quantitation of cancer regions in microscopic low resolution histopathological colon tissue images to predict patient survival
Author
Teverovskiy, Mikhail ; Manilich, Elena ; Xiuli Liu ; Portnoy, Elia ; Remzi, Feza H.
fYear
2013
fDate
7-11 April 2013
Firstpage
1130
Lastpage
1133
Abstract
Despite the generally excellent outcomes associated with early stage colon cancer treatment, a significant number of patients still develop recurrence and ultimately die from their disease. The standard tumor-node-metastasis (TNM) staging system cannot predict which patient will recur and will need additional therapy. This study aims to provide clinicians with a new computational tool based on quantitative analyses of histopathological images and a systems approach to accurately predict disease recurrence. We developed a set of advanced imaging algorithms including unsupervised dissection to automatically segment images into major histopathological components and to extract a broad spectrum of quantitative measurements from these components. Considering the complex interplay among various factors, a novel non-parametric random survival forest methodology was used to identify factors that most accurately predict the survival of colon cancer patients. Relative area and Haralick´s contrast features of the tumor necrosis region have been identified as the most statistically significant predictors of survival for early stage colon cancer patients.
Keywords
biological organs; biomedical optical imaging; cancer; feature extraction; image resolution; image segmentation; medical image processing; tumours; Haralick contrast features; advanced imaging algorithms; automatic image segmentation; cancer region quantitation; disease recurrence; early stage colon cancer treatment; microscopic low resolution histopathological colon tissue images; novel nonparametric random survival forest methodology; patient survival; standard tumor-node-metastasis staging system; tumor necrosis region; unsupervised dissection; Cancer; Colon; Image analysis; Image segmentation; Imaging; Tumors; White spaces; cancer; cancer clustering; cancer localization; image analysis; patient survival prediction; segmentation; tissue quantitation;
fLanguage
English
Publisher
ieee
Conference_Titel
Biomedical Imaging (ISBI), 2013 IEEE 10th International Symposium on
Conference_Location
San Francisco, CA
ISSN
1945-7928
Print_ISBN
978-1-4673-6456-0
Type
conf
DOI
10.1109/ISBI.2013.6556678
Filename
6556678
Link To Document