高压下超声波在甘油中的传播速度的测量

H. Khelladi, F. Plantier, J. Daridon, H. Djelouah
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引用次数: 18

摘要

甘油一直是科学家们非常感兴趣的课题。事实上,甘油是一种多元醇,每个分子中三个羟基的存在使甘油成为一个复杂的系统。本研究的目的是测量高压下甘油中的超声波波速,从中可以推导和确定一些重要的热力学性质作为压力和温度的函数。在本实验中对各种甘油性质的研究中,压力和温度范围分别从0.1 MPa扩展到100 MPa和从10°C扩展到100°C。高压测量单元配备了温度和压力监测和控制仪器。利用飞行时间法测量高压下不同温度下的超声波波速。利用超声波速在甘油中的实验数据,结合常压下的密度、比热和热膨胀系数的测量,推导出高压下的密度。利用牛顿-拉普拉斯方程将等熵压缩率与超声波速和密度联系起来,可以很容易地推导出这一固有的物理性质。这些结果导致了每个性质作为温度和压力的函数的行为。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Measurements under high pressure of ultrasonic wave velocity in glycerol
Glycerol has been the subject of significant scientist interest. Indeed, glycerol is a polyalcohol and the presence of three hydroxyl groups per molecule makes glycerol a complex system to explore. The purpose of this investigation is to measure under high pressure the ultrasonic wave velocity in glycerol, from which a number of important thermodynamic properties could be derived and determined as a function of pressure and temperature. Pressure and temperature ranges exploited in this experimental investigation of various glycerol properties, are extended from 0.1 MPa to 100 MPa and from 10°C to 100°C, respectively. A high pressure measurement cell equipped with temperature and pressure monitoring and control instrumentation is used. A time of flight method is exploited to measure, under high pressure, the ultrasonic wave velocity at different temperatures. The resulting experimental data of ultrasonic wave velocity in glycerol combined with measurements at atmospheric pressure, of density, specific heat and the thermal expansion coefficient are used to derive density at elevated pressures. As isentropic compressibility is linked to ultrasonic wave velocity and density by means of the Newton-Laplace equation, this intrinsic physical property is easily deduced. These results led to the behavior of each property as a function of temperature and pressure.
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