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Display of nuclear medicine imaging studies
Nuclear medicine imaging studies involve evaluation of a large amount of image data. Digital signal processing techniques have introduced processing algorithms that increase the information content of the display. Nuclear medicine imaging studies require interactive selection of suitable form of dis...
Autores principales: | , , |
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Lenguaje: | eng |
Publicado: |
Bhabha At. Res. Cent. Div. Nucl. Phys.
2002
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Materias: | |
Acceso en línea: | http://cds.cern.ch/record/747196 |
_version_ | 1780904150845882368 |
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author | Singh, B Kataria, S K Samuel, A M |
author_facet | Singh, B Kataria, S K Samuel, A M |
author_sort | Singh, B |
collection | CERN |
description | Nuclear medicine imaging studies involve evaluation of a large amount of image data. Digital signal processing techniques have introduced processing algorithms that increase the information content of the display. Nuclear medicine imaging studies require interactive selection of suitable form of display and pre-display processing. Static imaging study requires pre-display processing to detect focal defects. Point operations (histogram modification) along with zoom and capability to display more than one image in one screen is essential. This album mode of display is also applicable to dynamic, MUGA and SPECT data. Isometric display or 3-D graph of the image data is helpful in some cases e.g. point spread function, flood field data. Cine display is used on a sequence of images e.g. dynamic, MUGA and SPECT imaging studies -to assess the spatial movement of tracer with time. Following methods are used at the investigator's discretion for inspection of the 3-D object. 1) Display of orthogonal projections, 2) Display of album of user selected coronal/ sagital/ transverse orthogonal slices, 3) Display of three orthogonal slices through user selected point, 4) Display of a set of orthogonal slices generated in the user-selected volume, 5) Generation and display of 3-D shaded surface. 6) Generation of volume data and display along with the 3-D shaded surface, 7) Side by side display orthogonal slices of two 3-D objects. Displaying a set of two-dimensional slices of a 3-D reconstructed object through shows all the defects but lacks the 3-D perspective. Display of shaded surface lacks the ability to show the embedded defects. Volume display -combining the 3-D surface and gray level volume data is perhaps the best form of display. This report describes these forms of display along with the theory. |
id | cern-747196 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2002 |
publisher | Bhabha At. Res. Cent. Div. Nucl. Phys. |
record_format | invenio |
spelling | cern-7471962019-09-30T06:29:59Zhttp://cds.cern.ch/record/747196engSingh, BKataria, S KSamuel, A MDisplay of nuclear medicine imaging studiesHealth Physics and Radiation EffectsNuclear medicine imaging studies involve evaluation of a large amount of image data. Digital signal processing techniques have introduced processing algorithms that increase the information content of the display. Nuclear medicine imaging studies require interactive selection of suitable form of display and pre-display processing. Static imaging study requires pre-display processing to detect focal defects. Point operations (histogram modification) along with zoom and capability to display more than one image in one screen is essential. This album mode of display is also applicable to dynamic, MUGA and SPECT data. Isometric display or 3-D graph of the image data is helpful in some cases e.g. point spread function, flood field data. Cine display is used on a sequence of images e.g. dynamic, MUGA and SPECT imaging studies -to assess the spatial movement of tracer with time. Following methods are used at the investigator's discretion for inspection of the 3-D object. 1) Display of orthogonal projections, 2) Display of album of user selected coronal/ sagital/ transverse orthogonal slices, 3) Display of three orthogonal slices through user selected point, 4) Display of a set of orthogonal slices generated in the user-selected volume, 5) Generation and display of 3-D shaded surface. 6) Generation of volume data and display along with the 3-D shaded surface, 7) Side by side display orthogonal slices of two 3-D objects. Displaying a set of two-dimensional slices of a 3-D reconstructed object through shows all the defects but lacks the 3-D perspective. Display of shaded surface lacks the ability to show the embedded defects. Volume display -combining the 3-D surface and gray level volume data is perhaps the best form of display. This report describes these forms of display along with the theory.Bhabha At. Res. Cent. Div. Nucl. Phys.BARC-2002-E-021oai:cds.cern.ch:7471962002 |
spellingShingle | Health Physics and Radiation Effects Singh, B Kataria, S K Samuel, A M Display of nuclear medicine imaging studies |
title | Display of nuclear medicine imaging studies |
title_full | Display of nuclear medicine imaging studies |
title_fullStr | Display of nuclear medicine imaging studies |
title_full_unstemmed | Display of nuclear medicine imaging studies |
title_short | Display of nuclear medicine imaging studies |
title_sort | display of nuclear medicine imaging studies |
topic | Health Physics and Radiation Effects |
url | http://cds.cern.ch/record/747196 |
work_keys_str_mv | AT singhb displayofnuclearmedicineimagingstudies AT katariask displayofnuclearmedicineimagingstudies AT samuelam displayofnuclearmedicineimagingstudies |