An Integral R-Banded Karyotype Analysis System of Bone Marrow Metaphases Based on Deep Learning.

Context.--: Conventional karyotype analysis, which provides comprehensive cytogenetic information, plays a significant role in the diagnosis and risk stratification of hematologic neoplasms. The main limitations of this approach include long turnaround time and laboriousness. Therefore, we developed...

Descripción completa

Detalles Bibliográficos
Publicado en:Archives of Pathology & Laboratory Medicine Vol. 148; no. 8; pp. 905 - 914
Autores principales: Jiyue Wang, Chao Xia, Yaling Fan, Lu Jiang, Guang Yang, Zhijun Chen, Jie Yang, Bing Chen
Formato: equations & formulas pictorial research tables/charts Journal Article
Publicado: College of American Pathologists Aug2024
Acceso en línea:Ver este registro en EBSCOhost
fields @attributes:
  recordID: 1
pdfLink:
plink: https://search.ebscohost.com/login.aspx?direct=true&db=ccm&AN=178863288&site=ehost-live
header:
  @attributes:
    shortDbName: ccm
    uiTerm: 178863288
    longDbName: CINAHL Complete
    uiTag: AN
  controlInfo:
    bkinfo:
    dissinfo:
    jinfo:
      jid:
        00039985
        1FS
      jtl: Archives of Pathology & Laboratory Medicine
      issn: 00039985
      maglogo: N
    pubinfo:
      dt: Aug2024
      vid: 148
      iid: 8
      pid: 2550
      pub: College of American Pathologists
      place: Northfield, Illinois
    artinfo:
      ui:
        178863288
        178863288
        178863288
        10.5858/arpa.2022-0533-OA
        178863288
      ppf: 905
      ppct: 9
      formats:
        fmt:
          @attributes:
            type: P
      tig:
        atl: An Integral R-Banded Karyotype Analysis System of Bone Marrow Metaphases Based on Deep Learning.
      aug:
        au:
          Jiyue Wang
          Chao Xia
          Yaling Fan
          Lu Jiang
          Guang Yang
          Zhijun Chen
          Jie Yang
          Bing Chen
        affil: Shanghai Institute of Hematology, State Key Laboratory of Medical Genomics, National Research Center for Translational Medicine at Shanghai, Ruijin Hospital, Shanghai Jiao Tong University School of Medicine, Shanghai, China
      sug:
        subj:
          Bone Marrow Pathology
          Cell Division
          Karyotyping Methods
          Hematologic Neoplasms Diagnosis
          Hematologic Neoplasms Familial and Genetic
          Deep Learning
          Human
          Cell Physiology
          Cytogenetic Analysis
          Chromosomes
          Data Analysis Software
          Neural Networks (Computer)
          Models, Biological
          Image Processing, Computer Assisted
      ab: Context.--: Conventional karyotype analysis, which provides comprehensive cytogenetic information, plays a significant role in the diagnosis and risk stratification of hematologic neoplasms. The main limitations of this approach include long turnaround time and laboriousness. Therefore, we developed an integral R-banded karyotype analysis system for bone marrow metaphases, based on deep learning. Objective.--: To evaluate the performance of the internal models and the entire karyotype analysis system for R-banded bone marrow metaphase. Design.--: A total of 4442 sets of R-banded normal bone marrow metaphases and karyograms were collected. Accordingly, 4 deep learning-based models for different analytic stages of karyotyping, including denoising, segmentation, classification, and polarity recognition, were developed and integrated as an R-banded bone marrow karyotype analysis system. Five-fold cross validation was performed on each model. The whole system was implemented by 2 strategies of automatic and semiautomatic workflows. A test set of 885 metaphases was used to assess the entire system. Results.--: The denoising model achieved an intersection-over-union (IoU) of 99.20% and a Dice similarity coefficient (DSC) of 99.58% for metaphase acquisition. The segmentation model achieved an IoU of 91.95% and a DSC of 95.79% for chromosome segmentation. The accuracies of the segmentation, classification, and polarity recognition models were 96.77%, 98.77%, and 99.93%, respectively. The whole system achieved an accuracy of 93.33% with the automatic strategy and an accuracy of 99.06% with the semiautomatic strategy. Conclusions.--: The performance of both the internal models and the entire system is desirable. This deep learning-based karyotype analysis system has potential in a clinical application.
      pubtype: Academic Journal
      doctype:
        equations & formulas
        pictorial
        research
        tables/charts
        Journal Article
      ougenre: Article
    language: English
    refInfo:
    holdings:
      @attributes:
        islocal: N