Versatile High-Throughput Platform for Focused Ultrasound In Vitro Application

For the more efficient application of ultrasound in future therapies, fundamental research is needed on the mode of action of ultrasound on biological systems using therapeutic frequencies. To address this need, a new versatile high-throughput platform for focused ultrasound in vitro application was designed, developed, and characterized. The applicator was aligned with the dimensions of a 96-well plate and frequencies commonly used in the therapeutic ultrasound range (0.5–2.0 MHz). Two different platform configurations were developed: (a) a low-intensity version with 96 individual transducers allowing dry coupling of the well plate; and (b) a high-intensity version with water cooling, supporting parallel sonication of 32 out of 96 wells. The platforms were characterized by performing an analysis of the homogeneity of the sound pressure and intensity, the impact of filled volume per well, the cross-coupling effect between the wells, and the influence of the well plate. The low-intensity design delivers pressure levels up to 605 kPa inside the well with maximum ISPPA values between 0.78 and 12.38 W/cm2. In contrast, the high-intensity system achieves pressures up to 1460 kPa and a maximum ISPPA of 72 W/cm2 inside the wells. The successfully developed high-throughput platform supports parallelized sonication in standard, well-plate formats and is suitable for focused ultrasound applications in vitro.

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Publication Details

Journal
Applied Sciences
Published
2025-01-16
DOI
https://doi.org/10.3390/app15020847
Citations
1
Primary Topic
Ultrasound and Hyperthermia Applications
Type
article
Field-Weighted Citation Impact
0.67

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article

Versatile High-Throughput Platform for Focused Ultrasound In Vitro Application

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1 citations
Applied Sciences
Ultrasound and Hyperthermia Applications
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Versatile High-Throughput Platform for Focused Ultrasound In Vitro Application

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article en
1 citations

Abstract

For the more efficient application of ultrasound in future therapies, fundamental research is needed on the mode of action of ultrasound on biological systems using therapeutic frequencies. To address this need, a new versatile high-throughput platform for focused ultrasound in vitro application was designed, developed, and characterized. The applicator was aligned with the dimensions of a 96-well plate and frequencies commonly used in the therapeutic ultrasound range (0.5–2.0 MHz). Two different platform configurations were developed: (a) a low-intensity version with 96 individual transducers allowing dry coupling of the well plate; and (b) a high-intensity version with water cooling, supporting parallel sonication of 32 out of 96 wells. The platforms were characterized by performing an analysis of the homogeneity of the sound pressure and intensity, the impact of filled volume per well, the cross-coupling effect between the wells, and the influence of the well plate. The low-intensity design delivers pressure levels up to 605 kPa inside the well with maximum ISPPA values between 0.78 and 12.38 W/cm2. In contrast, the high-intensity system achieves pressures up to 1460 kPa and a maximum ISPPA of 72 W/cm2 inside the wells. The successfully developed high-throughput platform supports parallelized sonication in standard, well-plate formats and is suitable for focused ultrasound applications in vitro.

Applied SciencesVol. 15(2)
University of Dundee (GB), Fraunhofer Institute for Biomedical Engineering (DE), Saarland University (DE), Leipzig University (DE)
University of Leeds, Bundesministerium für Bildung und Forschung
Openalex Percentile: Top 36%
Ultrasound and Hyperthermia Applications
0.67
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