Deep Learning Prediction of Cancer Prevalence from Satellite Imagery
The worldwide growth of cancer incidence can be explained in part by changes in the prevalence and distribution of risk factors. There are geographical gaps in the estimates of cancer prevalence, which could be filled with innovative methods. We used deep learning (DL) features extracted from satell...
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doaj-a134076bd7004395a1e2a3d77d22658e2020-12-20T00:03:01ZengMDPI AGCancers2072-66942020-12-01123844384410.3390/cancers12123844Deep Learning Prediction of Cancer Prevalence from Satellite ImageryJean-Emmanuel Bibault0Maxime Bassenne1Hongyi Ren2Lei Xing3Laboratory of Artificial Intelligence in Medicine and Biomedical Physics, Stanford University School of Medicine, Stanford, CA 94304, USALaboratory of Artificial Intelligence in Medicine and Biomedical Physics, Stanford University School of Medicine, Stanford, CA 94304, USALaboratory of Artificial Intelligence in Medicine and Biomedical Physics, Stanford University School of Medicine, Stanford, CA 94304, USALaboratory of Artificial Intelligence in Medicine and Biomedical Physics, Stanford University School of Medicine, Stanford, CA 94304, USAThe worldwide growth of cancer incidence can be explained in part by changes in the prevalence and distribution of risk factors. There are geographical gaps in the estimates of cancer prevalence, which could be filled with innovative methods. We used deep learning (DL) features extracted from satellite images to predict cancer prevalence at the census tract level in seven cities in the United States. We trained the model using detailed cancer prevalence estimates from 2018 available in the CDC (Center for Disease Control) 500 Cities project. Data from 3500 census tracts covering 14,483,366 inhabitants were included. Features were extracted from 170,210 satellite images with deep learning. This method explained up to 64.37% (median = 43.53%) of the variation of cancer prevalence. Satellite features are highly correlated with individual socioeconomic and health measures that are linked to cancer prevalence (age, smoking and drinking status, and obesity). A higher similarity between two environments is associated with better generalization of the model (<i>p</i> = 1.10–6). This method can be used to accurately estimate cancer prevalence at a high spatial resolution without using surveys at a fraction of the cost.https://www.mdpi.com/2072-6694/12/12/3844cancerepidemiologydeep learning |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Jean-Emmanuel Bibault Maxime Bassenne Hongyi Ren Lei Xing |
spellingShingle |
Jean-Emmanuel Bibault Maxime Bassenne Hongyi Ren Lei Xing Deep Learning Prediction of Cancer Prevalence from Satellite Imagery Cancers cancer epidemiology deep learning |
author_facet |
Jean-Emmanuel Bibault Maxime Bassenne Hongyi Ren Lei Xing |
author_sort |
Jean-Emmanuel Bibault |
title |
Deep Learning Prediction of Cancer Prevalence from Satellite Imagery |
title_short |
Deep Learning Prediction of Cancer Prevalence from Satellite Imagery |
title_full |
Deep Learning Prediction of Cancer Prevalence from Satellite Imagery |
title_fullStr |
Deep Learning Prediction of Cancer Prevalence from Satellite Imagery |
title_full_unstemmed |
Deep Learning Prediction of Cancer Prevalence from Satellite Imagery |
title_sort |
deep learning prediction of cancer prevalence from satellite imagery |
publisher |
MDPI AG |
series |
Cancers |
issn |
2072-6694 |
publishDate |
2020-12-01 |
description |
The worldwide growth of cancer incidence can be explained in part by changes in the prevalence and distribution of risk factors. There are geographical gaps in the estimates of cancer prevalence, which could be filled with innovative methods. We used deep learning (DL) features extracted from satellite images to predict cancer prevalence at the census tract level in seven cities in the United States. We trained the model using detailed cancer prevalence estimates from 2018 available in the CDC (Center for Disease Control) 500 Cities project. Data from 3500 census tracts covering 14,483,366 inhabitants were included. Features were extracted from 170,210 satellite images with deep learning. This method explained up to 64.37% (median = 43.53%) of the variation of cancer prevalence. Satellite features are highly correlated with individual socioeconomic and health measures that are linked to cancer prevalence (age, smoking and drinking status, and obesity). A higher similarity between two environments is associated with better generalization of the model (<i>p</i> = 1.10–6). This method can be used to accurately estimate cancer prevalence at a high spatial resolution without using surveys at a fraction of the cost. |
topic |
cancer epidemiology deep learning |
url |
https://www.mdpi.com/2072-6694/12/12/3844 |
work_keys_str_mv |
AT jeanemmanuelbibault deeplearningpredictionofcancerprevalencefromsatelliteimagery AT maximebassenne deeplearningpredictionofcancerprevalencefromsatelliteimagery AT hongyiren deeplearningpredictionofcancerprevalencefromsatelliteimagery AT leixing deeplearningpredictionofcancerprevalencefromsatelliteimagery |
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