Ultrahigh-Frequency Piezoelectric Thin Film for Determination of Silicon Attenuation Coefficient

Ultrasonic attenuation affects the quality of ultrasonic imaging and material characterization significantly, especially at ultrahigh frequencies (>100 MHz), where higher attenuation brings about additional challenges. However, the reliable ultrasonic attenuation coefficients are scarce in this frequency range. In this study, we propose a method of measuring ultrasound attenuation coefficient at ultrahigh frequencies. By the spectral analysis of multiple ultrasonic echoes, the aggregate attenuation coefficient was extracted. Ultrasonic diffraction attenuation and transmission loss at the material interface are calibrated by using circular flat transducer acoustic fields and acoustic transmission line theory, respectively. The attenuation coefficient of silicon at approximately 150 MHz was measured to be 10.52 dB/cm. This article presents a novel approach for evaluating ultrasonic attenuation in the ultrahigh-frequency range, reducing experimental errors and equipment costs. The proposed methodology also contributes to the development and characterization of ultrahigh-frequency ultrasonic transducers.

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Publication Details

Journal
IEEE Transactions on Instrumentation and Measurement
Published
2025-01-01
DOI
https://doi.org/10.1109/tim.2025.3556914
Primary Topic
Acoustic Wave Resonator Technologies
Type
article
Field-Weighted Citation Impact
0.00

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article

Ultrahigh-Frequency Piezoelectric Thin Film for Determination of Silicon Attenuation Coefficient

Zhaoxi Li, Yi Quan, Jun Chen, Chunlong Fei et al.
IEEE Transactions on Instrumentation and Measurement
Acoustic Wave Resonator Technologies
article

Ultrahigh-Frequency Piezoelectric Thin Film for Determination of Silicon Attenuation Coefficient

Zhaoxi Li, Yi Quan, Jun Chen, Chunlong Fei, Yecheng Wang, Xin Wang, Yintang Yang, Xinhao Sun, Jianxin Zhao
article en

Abstract

Ultrasonic attenuation affects the quality of ultrasonic imaging and material characterization significantly, especially at ultrahigh frequencies (>100 MHz), where higher attenuation brings about additional challenges. However, the reliable ultrasonic attenuation coefficients are scarce in this frequency range. In this study, we propose a method of measuring ultrasound attenuation coefficient at ultrahigh frequencies. By the spectral analysis of multiple ultrasonic echoes, the aggregate attenuation coefficient was extracted. Ultrasonic diffraction attenuation and transmission loss at the material interface are calibrated by using circular flat transducer acoustic fields and acoustic transmission line theory, respectively. The attenuation coefficient of silicon at approximately 150 MHz was measured to be 10.52 dB/cm. This article presents a novel approach for evaluating ultrasonic attenuation in the ultrahigh-frequency range, reducing experimental errors and equipment costs. The proposed methodology also contributes to the development and characterization of ultrahigh-frequency ultrasonic transducers.

IEEE Transactions on Instrumentation and MeasurementVol. 74
Xidian University (CN)
National Natural Science Foundation of China, China Postdoctoral Science Foundation, Natural Science Foundation of Liaoning Province, Fundamental Research Funds for the Central Universities
Affordable and clean energy
Openalex Percentile: Top 94%
Acoustic Wave Resonator Technologies
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