Speed of sound in the IEC tissue-mimicking material and its maintenance solution as a function of temperature

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作者
Monteiro Souza, Raquel [1 ]
de Assis, Mylena Kathleen M. [1 ]
Pereira Barretto da Costa-Félix, Rodrigo [1 ]
Victor Alvarenga, Andre [1 ]
机构
[1] Laboratory of Ultrasound, National Institute of Metrology, Quality and Technology (Inmetro), Brazil
关键词
Benzalkonium chloride - Group velocities - IEC standards - International standards - Statistical differences - Temperature range - Tissue-mimicking materials - Ultrasonic diagnostics;
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摘要
Tissue-Mimicking Material (TMM) is defined on IEC International Standards and applied in assessing ultrasonic diagnostic and therapeutic equipment's basic safety and essential performance. One of the TMM that fits IEC standards specification has its recipe described at IEC 60601-2-37, and it is fabricated using glycerol (11.21 %), deionized water (82.95%), benzalkonium chloride (0.47 %), silicon carbide (0.53 %), aluminum oxide 0.3 μm (0.88%), aluminum oxide 3.0 μm (0.94 %), and agar (3.08 %). Glycerol is the component responsible for adjusting the TMM's speed of sound. Moreover, it is recommended to store TMM in a closed container immersed in a mixture of water (88.1 %)/glycerol (11.9 %) to prevent it from drying out and avoiding air contact. The literature points out TMM measurements underwater can alter the speed of sound property as TMM tends to lose glycerol. Herein, the authors proposed to assess the viability of measuring the TMM speed of sound in the water/glycerol maintenance solution. First, the authors characterized the maintenance solution's speed of sound for a temperature range of 20 °C to 45 °C. Then, the group velocity of a set of TMM was measured underwater and in the maintenance solution for the same temperature range. The respective group velocity expanded uncertainty was calculated. The results indicate it is feasible to measure TMM in the maintenance solution, achieving group velocity values with no statistical difference from the ones measured underwater in the temperature range of 20 °C to 40 °C. © 2021 Elsevier B.V.
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