• Laser & Optoelectronics Progress
  • Vol. 57, Issue 6, 060003 (2020)
Feng Yang, Guohui Wei, Hui Cao*, Mengmeng Xing, Jing Liu, and Junzhong Zhang
Author Affiliations
  • School of Science and Technology, Shandong University of Traditional Chinese Medicine, Jinan, Shandong 250355, China
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    DOI: 10.3788/LOP57.060003 Cite this Article Set citation alerts
    Feng Yang, Guohui Wei, Hui Cao, Mengmeng Xing, Jing Liu, Junzhong Zhang. Research Progress on Content-Based Medical Image Retrieval[J]. Laser & Optoelectronics Progress, 2020, 57(6): 060003 Copy Citation Text show less
    Flow chart of image retrieval using deep global features
    Fig. 1. Flow chart of image retrieval using deep global features
    Flow chart of image retrieval based on deep local feature aggregation
    Fig. 2. Flow chart of image retrieval based on deep local feature aggregation
    Diagram of IRMA system structure
    Fig. 3. Diagram of IRMA system structure
    TimeRepresentative methodCategory
    1996Methods featured by color[4],edge[5], and texture[6]Hand-craft global features
    2001Method featured by GIST (generalized search trees)[7]
    2003BoW (bag of word)[8]
    2004Method featured by SIFT (scale-invariant feature transform)[9]
    2005Method featured by HOG (histogram of oriented gradients)[10]
    2006SURF (speeded up robust features)[11],LBP (local binary pattern)[12]Hand-craft local features
    2007FV (fisher vector)[13]
    2012VLAD (vector of locally aggregated descriptor)[14]
    2014Triangulation embedding[15]
    2014Neural code[16]Deep global features
    2014MOP-CNN (multiscale orderlesspooling-convolutional neural network)[17]
    2015SPoC (sum-pooled convolutional features)[18]
    2016R-MAC (regional maximum activation of convolutions)[19],CroW (cross weight aggregation code)[20]Deep local features
    2017Class weighted[21]
    2018PWA (progressive web app)[22]
    Table 1. Representative methods of image feature extraction and their development stages
    TypeCommon model
    Convolutionalneural network,
    Superviseddeep networkdeep stackingnetwork,
    deep-structuredconditional random fields
    Unsuperviseddeep networkAuto encoders, restrictedBoltzmann machines,sparse coding, K-means
    Semi-superviseddeep networkPre-trained deepneural networks
    Table 2. Classification of depth feature extraction methods
    System nameApplication objectFeature extractionSimilarity measureRelated feedback
    ASSERT[75]CT image of lungLabeled area featureBased on classification×
    NHANES III[76]Spinal X-ray imageContour shapeContour matching×
    MRIAGE[77]MRI imageof brain3D TextureHistogram×
    FICBDS[78]FunctionalPETPhysiologicalinformationVectordistance×
    IRMA[79]Integrated medicalimagingMultiple featuredescriptionMultipleranging metric
    VisMed [80]Integratedmedical imagingVisual wordWordmatching×
    medGIFT[81]Integratedmedical imagingText andvisual featuresMultimodal informationsorting fusion×
    NovaMedSearech[82]Integrated medicalimagingText andvisual featuresMultimodal informationsorting fusion
    iMedline[83]Clinical caseText and visualfeaturesLinear weighting ofmultiple features
    Table 3. Common CBMIR systems
    Feng Yang, Guohui Wei, Hui Cao, Mengmeng Xing, Jing Liu, Junzhong Zhang. Research Progress on Content-Based Medical Image Retrieval[J]. Laser & Optoelectronics Progress, 2020, 57(6): 060003
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