Ultrasonic characterization of the transmural structure of human scalp tissue

Interest in transcranial ultrasound has motivated numerous ultrasonic studies of the skull and brain; however, the ultrasonic properties of the scalp are relatively unknown. The goal of this study was to ultrasonically characterize the transmural structure of scalp tissue. Sixty-four formalin fixed specimens were prepared from four human donors and scanned in a water tank with a 25 MHz transducer to create parametric images of the speed of sound (SOS), frequency slope of attenuation (FSA), and integrated attenuation coefficient (IAC). Images revealed three distinct layers: a dermis/epidermislayer, a subcutaneous layer, and a connective tissue layer. A statistically significant difference was observed between all layers for all parameters in most cases. Exceptions were between the dermis/epidermis layer and the subcutaneous layer for FSA and between the subcutaneous layer and the connective tissue layer for SOS.

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Publication Details

Journal
The Journal of the Acoustical Society of America
Published
2025-04-01
DOI
https://doi.org/10.1121/10.0038284
Primary Topic
Ultrasound Imaging and Elastography
Type
article
Field-Weighted Citation Impact
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article

Ultrasonic characterization of the transmural structure of human scalp tissue

Brent K. Hoffmeister, Blake C. Lawler, Cecille Labuda, Thomas B. Conroy et al.
The Journal of the Acoustical Society of America
Ultrasound Imaging and Elastography
article

Ultrasonic characterization of the transmural structure of human scalp tissue

Brent K. Hoffmeister, Blake C. Lawler, Cecille Labuda, Thomas B. Conroy, Catherine N. Prabish
article en

Abstract

Interest in transcranial ultrasound has motivated numerous ultrasonic studies of the skull and brain; however, the ultrasonic properties of the scalp are relatively unknown. The goal of this study was to ultrasonically characterize the transmural structure of scalp tissue. Sixty-four formalin fixed specimens were prepared from four human donors and scanned in a water tank with a 25 MHz transducer to create parametric images of the speed of sound (SOS), frequency slope of attenuation (FSA), and integrated attenuation coefficient (IAC). Images revealed three distinct layers: a dermis/epidermislayer, a subcutaneous layer, and a connective tissue layer. A statistically significant difference was observed between all layers for all parameters in most cases. Exceptions were between the dermis/epidermis layer and the subcutaneous layer for FSA and between the subcutaneous layer and the connective tissue layer for SOS.

The Journal of the Acoustical Society of AmericaVol. 157(4_Supplement)
Rhodes College (US), University of Mississippi (US)
Openalex Percentile: Top 72%
Ultrasound Imaging and Elastography
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