Yayın:
Brain tumor classification using the fused features extracted from expanded tumor region

dc.contributor.authorUrhan, Oğuzhan
dc.contributor.authorGüllü, Mehmet Kemal
dc.contributor.authorÖksüz, Coşku
dc.date.accessioned2026-01-04T16:28:49Z
dc.date.issued2022-02-01
dc.description.abstractAbstract In this study, a brain tumor classification method using the fusion of deep and shallow features is proposed to distinguish between meningioma, glioma, pituitary tumor types and to predict the 1p/19q co-deletion status of LGG tumors. Brain tumors can be located in a different region of the brain, and the texture of the surrounding tissues may also vary. Therefore, the inclusion of surrounding tissues into the tumor region (ROI expansion) can make the features more distinctive. In this work, pre-trained AlexNet, ResNet-18, GoogLeNet, and ShuffleNet networks are used to extract deep features from the tumor regions including its surrounding tissues. Even though the deep features are extremely important in classification, some low-level information regarding tumors may be lost as the network deepens. Accordingly, a shallow network is designed to learn low-level information. Next, in order to compensate the information loss, deep features and shallow features are fused. SVM and k-NN classifiers are trained using the fused feature sets. Experimental results achieved on two publicly available data sets demonstrate that using the feature fusion and the ROI expansion at the same time improves the average sensitivity by about 11.72% (ROI expansion: 8.97%, feature fusion: 2.75%). These results confirm the assumption that the tissues surrounding the tumor region carry distinctive information. Not only that, the missing low-level information can be compensated thanks to the feature fusion. Moreover, competitive results are achieved against state-of-the-art studies when the ResNet-18 is used as the deep feature extractor of our classification framework.
dc.description.urihttps://doi.org/10.1016/j.bspc.2021.103356
dc.description.urihttps://dx.doi.org/10.1016/j.bspc.2021.103356
dc.description.urihttps://avesis.kocaeli.edu.tr/publication/details/5ad85d97-d745-403c-a2cf-430a8199a94c/oai
dc.identifier.doi10.1016/j.bspc.2021.103356
dc.identifier.issn1746-8094
dc.identifier.openairedoi_dedup___::ad21cfced36f7f60d38f3d1c5a5f2473
dc.identifier.orcid0000-0002-0352-1560
dc.identifier.orcid0000-0003-2310-2985
dc.identifier.orcid0000-0001-7116-2734
dc.identifier.scopus2-s2.0-85120963549
dc.identifier.startpage103356
dc.identifier.urihttps://hdl.handle.net/20.500.12597/39482
dc.identifier.volume72
dc.identifier.wos000730100300007
dc.language.isoeng
dc.publisherElsevier BV
dc.relation.ispartofBiomedical Signal Processing and Control
dc.rightsCLOSED
dc.subject.sdg10. No inequality
dc.titleBrain tumor classification using the fused features extracted from expanded tumor region
dc.typeArticle
dspace.entity.typePublication
local.api.response{"authors":[{"fullName":"URHAN, OĞUZHAN","name":"Oğuzhan","surname":"Urhan","rank":1,"pid":{"id":{"scheme":"orcid","value":"0000-0002-0352-1560"},"provenance":null}},{"fullName":"Güllü, Mehmet Kemal","name":"Mehmet Kemal","surname":"Güllü","rank":2,"pid":{"id":{"scheme":"orcid","value":"0000-0003-2310-2985"},"provenance":null}},{"fullName":"Öksüz, Coşku","name":"Coşku","surname":"Öksüz","rank":3,"pid":{"id":{"scheme":"orcid","value":"0000-0001-7116-2734"},"provenance":null}}],"openAccessColor":null,"publiclyFunded":false,"type":"publication","language":{"code":"eng","label":"English"},"countries":null,"subjects":[{"subject":{"scheme":"FOS","value":"03 medical and health sciences"},"provenance":null},{"subject":{"scheme":"FOS","value":"0302 clinical medicine"},"provenance":null},{"subject":{"scheme":"FOS","value":"0202 electrical engineering, electronic engineering, information engineering"},"provenance":null},{"subject":{"scheme":"FOS","value":"02 engineering and technology"},"provenance":null},{"subject":{"scheme":"SDG","value":"10. No inequality"},"provenance":null}],"mainTitle":"Brain tumor classification using the fused features extracted from expanded tumor region","subTitle":null,"descriptions":["Abstract In this study, a brain tumor classification method using the fusion of deep and shallow features is proposed to distinguish between meningioma, glioma, pituitary tumor types and to predict the 1p/19q co-deletion status of LGG tumors. Brain tumors can be located in a different region of the brain, and the texture of the surrounding tissues may also vary. Therefore, the inclusion of surrounding tissues into the tumor region (ROI expansion) can make the features more distinctive. In this work, pre-trained AlexNet, ResNet-18, GoogLeNet, and ShuffleNet networks are used to extract deep features from the tumor regions including its surrounding tissues. Even though the deep features are extremely important in classification, some low-level information regarding tumors may be lost as the network deepens. Accordingly, a shallow network is designed to learn low-level information. Next, in order to compensate the information loss, deep features and shallow features are fused. SVM and k-NN classifiers are trained using the fused feature sets. Experimental results achieved on two publicly available data sets demonstrate that using the feature fusion and the ROI expansion at the same time improves the average sensitivity by about 11.72% (ROI expansion: 8.97%, feature fusion: 2.75%). These results confirm the assumption that the tissues surrounding the tumor region carry distinctive information. Not only that, the missing low-level information can be compensated thanks to the feature fusion. Moreover, competitive results are achieved against state-of-the-art studies when the ResNet-18 is used as the deep feature extractor of our classification framework."],"publicationDate":"2022-02-01","publisher":"Elsevier BV","embargoEndDate":null,"sources":["Crossref"],"formats":null,"contributors":null,"coverages":null,"bestAccessRight":{"code":"c_14cb","label":"CLOSED","scheme":"http://vocabularies.coar-repositories.org/documentation/access_rights/"},"container":{"name":"Biomedical Signal Processing and Control","issnPrinted":"1746-8094","issnOnline":null,"issnLinking":null,"ep":null,"iss":null,"sp":"103356","vol":"72","edition":null,"conferencePlace":null,"conferenceDate":null},"documentationUrls":null,"codeRepositoryUrl":null,"programmingLanguage":null,"contactPeople":null,"contactGroups":null,"tools":null,"size":null,"version":null,"geoLocations":null,"id":"doi_dedup___::ad21cfced36f7f60d38f3d1c5a5f2473","originalIds":["S1746809421009538","10.1016/j.bspc.2021.103356","50|doiboost____|ad21cfced36f7f60d38f3d1c5a5f2473","3217453598","5ad85d97-d745-403c-a2cf-430a8199a94c","50|od_____10011::fe4d95421945c9799f72569f1dfda4c8"],"pids":[{"scheme":"doi","value":"10.1016/j.bspc.2021.103356"}],"dateOfCollection":null,"lastUpdateTimeStamp":null,"indicators":{"citationImpact":{"citationCount":72,"influence":6.47648e-9,"popularity":6.0611264e-8,"impulse":71,"citationClass":"C4","influenceClass":"C4","impulseClass":"C3","popularityClass":"C3"}},"instances":[{"pids":[{"scheme":"doi","value":"10.1016/j.bspc.2021.103356"}],"license":"Elsevier TDM","type":"Article","urls":["https://doi.org/10.1016/j.bspc.2021.103356"],"publicationDate":"2022-02-01","refereed":"peerReviewed"},{"alternateIdentifiers":[{"scheme":"mag_id","value":"3217453598"},{"scheme":"doi","value":"10.1016/j.bspc.2021.103356"}],"type":"Article","urls":["https://dx.doi.org/10.1016/j.bspc.2021.103356"],"refereed":"nonPeerReviewed"},{"alternateIdentifiers":[{"scheme":"doi","value":"10.1016/j.bspc.2021.103356"}],"type":"Article","urls":["https://avesis.kocaeli.edu.tr/publication/details/5ad85d97-d745-403c-a2cf-430a8199a94c/oai"],"publicationDate":"2022-02-01","refereed":"nonPeerReviewed"}],"isGreen":false,"isInDiamondJournal":false}
local.import.sourceOpenAire
local.indexed.atWOS
local.indexed.atScopus

Dosyalar

Koleksiyonlar