Paper
4 August 2000 Ultrasound analysis of vascular structure and deformation
Ray C. Chan, John Kaufhold, Robert S. Lees, William Clement Karl
Author Affiliations +
Abstract
Low-power, portable ultrasound imaging devices are well- suited for the diagnostic requirements of healthcare delivery on the modern battlefield. The non-invasiveness and good spatiotemporal resolution of ultrasonography allow for early detection of changes in tissue anatomy and material behavior that signal the presence of injury from exposure to biological hazards or disease processes that can jeopardize the performance of personnel in the field. This potential has not been fully realized however due to the presence of image degrading factors that make ultrasound imagery notoriously difficult to interpret. To detect and quantify tissue pathology from ultrasound, anatomical boundaries and tissue deformation in the images must be estimated accurately; this requires image processing in a way that suppresses noise while retaining salient tissue borders in the imagery. We focus here on detecting abnormalities in cross-sections of the carotid vessel boundary extraction and deformation tracking over time for the purpose of detecting abnormal tissue characteristics. We validate this concept in noisy simulated images derived from finite-element models of normal and abnormal vessel cross-sections, and in real ultrasound images from a human subject.
© (2000) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Ray C. Chan, John Kaufhold, Robert S. Lees, and William Clement Karl "Ultrasound analysis of vascular structure and deformation", Proc. SPIE 4037, Digitization of the Battlespace V and Battlefield Biomedical Technologies II, (4 August 2000); https://doi.org/10.1117/12.395046
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CITATIONS
Cited by 3 scholarly publications.
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KEYWORDS
Tissues

Ultrasonography

Image processing

Arteries

Motion estimation

Finite element methods

Optical flow

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