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  • Image processing in biomedical applications is an important developing issue. Many methods and approaches for image preprocessing, segmentation and visualization were described. It is necessary to choose a suitable segmentation method to create a correct three-dimensional model. The accuracy of reconstruction depends on precision of regions boundary determining in magnetic resonance slices. A frequent application is detection of soft tissues. To obtain images of the soft tissues mentioned, tomography based on magnetic resonance is usually used. Ideally, several tissue slices in three orthogonal planes (sagittal, coronal, transverse) are acquired. Following reconstruction of shape of examined tissues is the most accurate. In case of acquired slices only in one plane, the high spatial information lost occurs by image acquisition. Then it is necessary to reconstruct the shape of tissue appropriately. At first the images are segmented and with use of particular segments the three dimensional model is composed. This article compares several segmentation approaches of magnetic resonance images and their results. The results of segmentation by active contour, thresholding, edge analysis by Sobel mask, watershed and region-based level set segmentation methods are compared. The results for different values of parameters of segmentation methods are compared. As the test image, slice of human liver tumour was chosen.
  • Image processing in biomedical applications is an important developing issue. Many methods and approaches for image preprocessing, segmentation and visualization were described. It is necessary to choose a suitable segmentation method to create a correct three-dimensional model. The accuracy of reconstruction depends on precision of regions boundary determining in magnetic resonance slices. A frequent application is detection of soft tissues. To obtain images of the soft tissues mentioned, tomography based on magnetic resonance is usually used. Ideally, several tissue slices in three orthogonal planes (sagittal, coronal, transverse) are acquired. Following reconstruction of shape of examined tissues is the most accurate. In case of acquired slices only in one plane, the high spatial information lost occurs by image acquisition. Then it is necessary to reconstruct the shape of tissue appropriately. At first the images are segmented and with use of particular segments the three dimensional model is composed. This article compares several segmentation approaches of magnetic resonance images and their results. The results of segmentation by active contour, thresholding, edge analysis by Sobel mask, watershed and region-based level set segmentation methods are compared. The results for different values of parameters of segmentation methods are compared. As the test image, slice of human liver tumour was chosen. (en)
Title
  • Magnetic Resonance Signal Processing in Medical Applications
  • Magnetic Resonance Signal Processing in Medical Applications (en)
skos:prefLabel
  • Magnetic Resonance Signal Processing in Medical Applications
  • Magnetic Resonance Signal Processing in Medical Applications (en)
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  • RIV/68081731:_____/12:00386210!RIV13-GA0-68081731
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  • I, P(ED0017/01/01), P(GAP102/11/0318), S
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  • 147782
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  • RIV/68081731:_____/12:00386210
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  • magnetic resonance; biomedical image processing; image segmentation; level set; active countour; edge analysis; noise suppression; volumetry (en)
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  • [41E07C3B6C42]
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  • Saint Gilles
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  • Saint Gilles
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  • ICONS 2012: The Seventh Interatnional Conference on Systems
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  • Bartušek, Karel
  • Gescheidtová, E.
  • Mikulka, J.
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  • IARIA
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  • 978-1-61208-184-7
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