Relationship of acoustic attenuation and deep-penetrating ultrasound propagation in paraffin-based materials

This work demonstrates an alternative, low-cost method for identifying the relationship between attenuation coefficients and the deep-penetrating propagation of ultrasound in samples with high acoustic attenuation. A decrease in attenuation coefficients of paraffin-based materials is observed with increasing gel wax concentrations. This sample set provides attenuation coefficients in the range of 1.67–7.70 dB cm −1 . The pure paraffin sample exhibits the highest attenuation coefficient whereas the sample with highest gel concentration shows the lowest. Deep-penetrating ultrasound propagation increases with higher gel wax concentrations. Image processing can assess depths of 31 pixels in the pure paraffin sample and 79 pixels in the sample with the highest gel concentration. By exploiting this method, it is found that attenuation coefficient plays a significant role in explaining deep-penetrating propagation of ultrasound in the sample. Therefore, this assessment technique could possibly contribute to disease diagnosis, in cases of osteoporosis, pending further investigation.

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Publication Details

Journal
Noise & Vibration Worldwide
Published
2025-09-18
DOI
https://doi.org/10.1177/09574565251382122
Primary Topic
Photoacoustic and Ultrasonic Imaging
Type
article
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article

Relationship of acoustic attenuation and deep-penetrating ultrasound propagation in paraffin-based materials

Theera Leeudomwong, Sarawudh Nathabumroong, Pratchyanon Sangong, Anijsorn Samart et al.
Noise & Vibration Worldwide
Photoacoustic and Ultrasonic Imaging
article

Relationship of acoustic attenuation and deep-penetrating ultrasound propagation in paraffin-based materials

Theera Leeudomwong, Sarawudh Nathabumroong, Pratchyanon Sangong, Anijsorn Samart, Pinpinut Nitirojtanakul, Nattanit Pongjeerakumchorn
article en

Abstract

This work demonstrates an alternative, low-cost method for identifying the relationship between attenuation coefficients and the deep-penetrating propagation of ultrasound in samples with high acoustic attenuation. A decrease in attenuation coefficients of paraffin-based materials is observed with increasing gel wax concentrations. This sample set provides attenuation coefficients in the range of 1.67–7.70 dB cm −1 . The pure paraffin sample exhibits the highest attenuation coefficient whereas the sample with highest gel concentration shows the lowest. Deep-penetrating ultrasound propagation increases with higher gel wax concentrations. Image processing can assess depths of 31 pixels in the pure paraffin sample and 79 pixels in the sample with the highest gel concentration. By exploiting this method, it is found that attenuation coefficient plays a significant role in explaining deep-penetrating propagation of ultrasound in the sample. Therefore, this assessment technique could possibly contribute to disease diagnosis, in cases of osteoporosis, pending further investigation.

Noise & Vibration WorldwideVol. 57(1-2)
Thailand National Metal and Materials Technology Center (TH), National Institute of Metrology (CN), National Institute of Metrology (Thailand), King Mongkut's University of Technology North Bangkok (TH)
Openalex Percentile: Top 76%
Photoacoustic and Ultrasonic Imaging
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Relationship of acoustic attenuation and deep-penetrating ultrasound propagation in paraffin-based materials — Theera Leeudomwong, Sarawudh Nathabumroong, et al. · Noise & Vibration Worldwide (2025) | TGRS Research Map | TGRS