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Impact of treatment trajectory on the thermal ablation rate and biological tissue volumetric lesion during irradiation by shock-wave focusing ultrasonic beam
- Authors: Pestova P.A.1, Yuldashev P.V.1, Khokhlova V.A.1, Karzova M.M.1
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Affiliations:
- Moscow State University
- Issue: Vol 88, No 1 (2024)
- Pages: 125-130
- Section: Wave Phenomena: Physics and Applications
- URL: https://journal-vniispk.ru/0367-6765/article/view/264563
- DOI: https://doi.org/10.31857/S0367676524010225
- EDN: https://elibrary.ru/RZJYQU
- ID: 264563
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Abstract
Thermal ablation rates and the shapes of volumetric biological tissue lesion are compared in a numerical experiment, in which biological tissue is exposed to pulsed periodic shock-wave high intensity focused ultrasound. The comparison is performed across three different irradiation sequences of discrete foci placed uniformly within the target area.
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About the authors
P. A. Pestova
Moscow State University
Author for correspondence.
Email: pestova.pa16@physics.msu.ru
Physics Faculty
Russian Federation, MoscowP. V. Yuldashev
Moscow State University
Email: pestova.pa16@physics.msu.ru
Physics Faculty
Russian Federation, MoscowV. A. Khokhlova
Moscow State University
Email: pestova.pa16@physics.msu.ru
Physics Faculty
Russian Federation, MoscowM. M. Karzova
Moscow State University
Email: pestova.pa16@physics.msu.ru
Physics Faculty
Russian Federation, MoscowReferences
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Supplementary files
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Fig. 1. Geometry of the problem: the ultrasound beam is generated by a HIFU array (256 elements with a diameter of 6.6 mm, frequency of 1.2 MHz) and focused into a sample of beef liver tissue (a). The trajectory of a single shock wave with a uniform arrangement of discrete foci (top) and three sequences of moving the emitter focus (bottom; shown by numbers): “spiral” (left), “clinical” (center), “snake” (right) (b).
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3.
Fig. 2. Pressure profiles at the focus (left column), spatial distributions of the power density of thermal sources in the tissue (middle column) and temperature distributions (right column) at the moment of focus movement (20 ms) in the axial xz planes of the beam for (a) the saturation mode (I0 = 15 W/cm2) and (b) the mode with the formation of a developed rupture (I0 = 8 W/cm2). The black contour indicates the region of thermal destruction.
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4.
Fig. 3. Spatial temperature distributions at the end of tissue irradiation along a trajectory with different focus switching sequences: “clinical” (a, d), “spiral” (b, d), “snake” (c, e) for the modes I0 = 8 W/cm2 (left column, a–c) and I0 = 15 W/cm2 (right column, d–e). The black contour indicates the region within which the thermal dose exceeded its threshold value after the sample cooled. The end time of heating, the achieved size of thermal destruction, and the thermal ablation rate are shown on each spatial temperature distribution.
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