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  3. Pulse-echo speed-of-sound imaging using convex probes.
 

Pulse-echo speed-of-sound imaging using convex probes.

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BORIS DOI
10.48350/173413
Date of Publication
October 31, 2022
Publication Type
Article
Division/Institute

Institut für angewand...

Contributor
Jaeger, Michael
Institut für angewandte Physik (IAP)
Stähli, Patrick
Institut für angewandte Physik (IAP)
Korta Martiartu, Naiara
Institut für angewandte Physik (IAP)
Salemi Yolgunlu, Parisa
Institut für angewandte Physik (IAP)
Frappart, Thomas
Fraschini, Christophe
Frenz, Martinorcid-logo
Institut für angewandte Physik (IAP)
Subject(s)

600 - Technology::620...

Series
Physics in medicine and biology
ISSN or ISBN (if monograph)
0031-9155
Publisher
Institute of Physics Publishing IOP
Language
English
Publisher DOI
10.1088/1361-6560/ac96c6
PubMed ID
36179699
Uncontrolled Keywords

diagnostic ultrasound...

Description
Computed ultrasound tomography in echo mode (CUTE) is a new ultrasound (US)-based medical imaging modality with promise for diagnosing various types of disease based on the tissue's speed of sound (SoS). It is developed for conventional pulse-echo US using handheld probes and can thus be implemented in state-of-the-art medical US systems. One promising application is the quantification of the liver fat fraction in fatty liver disease. So far, CUTE was using linear array probes where the imaging depth is comparable to the aperture size. For liver imaging, however, convex probes are preferred since they provide a larger penetration depth and a wider view angle allowing to capture a large area of the liver. With the goal of liver imaging in mind, we adapt CUTE to convex probes, with a special focus on discussing strategies that make use of the convex geometry in order to make our implementation computationally efficient. We then demonstrate in an abdominal imaging phantom that accurate quantitative SoS using convex probes is feasible, in spite of the smaller aperture size in relation to the image area compared to linear arrays. A preliminary in vivo result of liver imaging confirms this outcome, but also indicates that deep quantitative imaging in the real liver can be more challenging, probably due to the increased complexity of the tissue compared to phantoms.
Handle
https://boris-portal.unibe.ch/handle/20.500.12422/87813
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Jaeger_et_al_2022_Phys._Med._Biol._10.1088_1361-6560_ac96c6.pdftextAdobe PDF1.38 MBAttribution (CC BY 4.0)acceptedOpen
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