Semiautomated four-dimensional computed tomography segmentation using deformable models

The purpose of this work is to demonstrate a proof of feasibility of the application of a commercial prototype deformable model algorithm to the problem of delineation of anatomic structures on four-dimensional (4D) computed tomography (CT) image data sets. We acquired a 4D CT image data set of a pa...

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Veröffentlicht in:Medical physics (Lancaster) 2005-07, Vol.32 (7), p.2254-2261
Hauptverfasser: Ragan, Dustin, Starkschall, George, McNutt, Todd, Kaus, Michael, Guerrero, Thomas, Stevens, Craig W.
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container_end_page 2261
container_issue 7
container_start_page 2254
container_title Medical physics (Lancaster)
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creator Ragan, Dustin
Starkschall, George
McNutt, Todd
Kaus, Michael
Guerrero, Thomas
Stevens, Craig W.
description The purpose of this work is to demonstrate a proof of feasibility of the application of a commercial prototype deformable model algorithm to the problem of delineation of anatomic structures on four-dimensional (4D) computed tomography (CT) image data sets. We acquired a 4D CT image data set of a patient’s thorax that consisted of three-dimensional (3D) image data sets from eight phases in the respiratory cycle. The contours of the right and left lungs, cord, heart, and esophagus were manually delineated on the end inspiration data set. An interactive deformable model algorithm, originally intended for deforming an atlas-based model surface to a 3D CT image data set, was applied in an automated fashion. Triangulations based on the contours generated on each phase were deformed to the CT data set on the succeeding phase to generate the contours on that phase. Deformation was propagated through the eight phases, and the contours obtained on the end inspiration data set were compared with the original manually delineated contours. Structures defined by high-density gradients, such as lungs, cord, and heart, were accurately reproduced, except in regions where other gradient boundaries may have confused the algorithm, such as near bronchi. The algorithm failed to accurately contour the esophagus, a soft-tissue structure completely surrounded by tissue of similar density, without manual interaction. This technique has the potential to facilitate contour delineation in 4D CT image data sets; and future evolution of the software is expected to improve the process.
doi_str_mv 10.1118/1.1929207
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We acquired a 4D CT image data set of a patient’s thorax that consisted of three-dimensional (3D) image data sets from eight phases in the respiratory cycle. The contours of the right and left lungs, cord, heart, and esophagus were manually delineated on the end inspiration data set. An interactive deformable model algorithm, originally intended for deforming an atlas-based model surface to a 3D CT image data set, was applied in an automated fashion. Triangulations based on the contours generated on each phase were deformed to the CT data set on the succeeding phase to generate the contours on that phase. Deformation was propagated through the eight phases, and the contours obtained on the end inspiration data set were compared with the original manually delineated contours. Structures defined by high-density gradients, such as lungs, cord, and heart, were accurately reproduced, except in regions where other gradient boundaries may have confused the algorithm, such as near bronchi. The algorithm failed to accurately contour the esophagus, a soft-tissue structure completely surrounded by tissue of similar density, without manual interaction. This technique has the potential to facilitate contour delineation in 4D CT image data sets; and future evolution of the software is expected to improve the process.</abstract><cop>United States</cop><pub>American Association of Physicists in Medicine</pub><pmid>16121580</pmid><doi>10.1118/1.1929207</doi><tpages>8</tpages></addata></record>
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source MEDLINE; Wiley Journals
subjects 4D imaging
ALGORITHMS
Anatomy
Artificial Intelligence
biological organs
biological tissues
BRONCHI
Cardiac dynamics
cardiology
CHEST
Computed radiography
Computed tomography
COMPUTER CODES
Computer Simulation
Computer software
computerised tomography
COMPUTERIZED TOMOGRAPHY
CT segmentation
deformable models
Elasticity
ESOPHAGUS
HEART
Hemodynamics
Humans
IMAGE PROCESSING
image segmentation
Imaging, Three-Dimensional - methods
Information Storage and Retrieval - methods
lung
LUNGS
medical image processing
Medical imaging
Medical treatment planning
Models, Biological
Movement
PATIENTS
Pneumodyamics, respiration
pneumodynamics
Radiation treatment
Radiographic Image Enhancement - methods
Radiographic Image Interpretation, Computer-Assisted - methods
Radiography, Thoracic - methods
RADIOLOGY AND NUCLEAR MEDICINE
Reproducibility of Results
Respiration
Sensitivity and Specificity
Subtraction Technique
Tissues
Tomography, X-Ray Computed - methods
title Semiautomated four-dimensional computed tomography segmentation using deformable models
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