JOURNAL ARTICLE

On the dielectric and mechanical characterization of tissue‐mimicking breast phantoms

Simona Di MeoAlessia CannatàSimone MorgantiGiulia MatroneMarco Pasian

Year: 2022 Journal:   Physics in Medicine and Biology Vol: 67 (15)Pages: 155018-155018   Publisher: IOP Publishing

Abstract

Abstract Objective . In this paper, we focus on the dielectric and mechanical characterization of tissue-mimicking breast phantoms. Approach . Starting from recipes previously proposed by our research group, based on easy-to-handle, cheap and safe components (i.e. sunflower oil, deionized water, dishwashing liquid and gelatin), we produced and tested, both dielectrically and mechanically, more than 100 samples. The dielectric properties were measured from 500 MHz to 14 GHz, the Cole–Cole parameters were derived to describe the dielectric behaviour in a broader frequency range, and the results were compared with dielectric properties of human breast ex vivo tissues up to 50 GHz. The macroscale mechanical properties were measured by means of unconfined compression tests, and the impact of the experimental conditions (i.e. preload and test speed) on the measured Young’s moduli was analysed. In addition, the mechanical contrast between healthy- and malignant-tissue-like phantoms was evaluated. Main results . The results agree with the literature in the cases in which the experimental conditions are known, demonstrating the possibility to fabricate phantoms able to mimic both dielectric and mechanical properties of breast tissues. Significance . In this work, for the first time, a range of materials reproducing all the categories of breast tissues were experimentally characterized, both from a dielectric and mechanical point of view. A large range of frequency were considered for the dielectric measurements and several combinations of experimental conditions were investigated in the context of the mechanical characterization. The proposed results can be useful in the design and testing of complementary or supplementary techniques for breast cancer detection based on micro/millimetre-waves, possibly in connection with other imaging modalities.

Keywords:
Dielectric Materials science Characterization (materials science) Context (archaeology) Composite material Biomedical engineering Acoustics Optoelectronics Nanotechnology Medicine Physics

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Citation History

Topics

Microwave Imaging and Scattering Analysis
Physical Sciences →  Engineering →  Biomedical Engineering
Ultrasonics and Acoustic Wave Propagation
Physical Sciences →  Engineering →  Mechanics of Materials
Ultrasound Imaging and Elastography
Health Sciences →  Medicine →  Radiology, Nuclear Medicine and Imaging
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