A Review of Ultrasonic Wave Propagation through Liquid Solutions

IF 0.9 Q4 CHEMISTRY, MULTIDISCIPLINARY Current Microwave Chemistry Pub Date : 2024-03-15 DOI:10.2174/0122133356288437240131061541
Rajalaxmi Panda, Subhraraj Panda, S. K. Biswal
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Abstract

Understanding the molecular interactions in liquids or liquid mixtures of binary or ternary liquids is crucial for various applications. Numerous methods and tools exist to elucidate how atoms interact in such mixtures. This review examines multiple research papers investigating molecular interactions, focusing on the acoustic/ultrasonic technique. This technique employs ultrasonic waves to probe molecular interactions. Researchers utilized an ultrasonic interferometer to measure ultrasonic wave velocity, liquid den-sity can be determined by using a specific gravity bottle, and employed the Ostwald viscometer for viscosity measurements. Researchers derived several acoustic and thermodynamic parameters by evaluating ultrasonic wave velocity, liquid density, and viscosity. This comprehensive study dramatically contributes to understanding the molecular interactions within specific samples, with detailed explanations provided for the observed parameters. Ultra-sonic wave propagation influences the medium's physical characteristics; it includes knowledge of the physics of liquid and solution. How frequency and temperature affect thermo acoustical characteristics has been investigated. The nature of forces between molecules, including hydrogen bonds, charge transfer complexes, hydrogen bond breaking, and complexes, has been deduced from the investigations above.
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超声波在液体溶液中的传播回顾
了解液体或二元或三元液体混合物中的分子相互作用对于各种应用至关重要。目前有许多方法和工具可用于阐明原子在此类混合物中的相互作用。本综述探讨了多篇研究分子相互作用的论文,重点是声学/超声波技术。研究人员利用超声波干涉仪测量超声波速度,使用比重瓶测定液体密度,并使用奥斯特瓦尔德粘度计测量粘度。通过评估超声波速度、液体密度和粘度,研究人员得出了几个声学和热力学参数。这项全面的研究极大地促进了对特定样品内分子相互作用的理解,并对观察到的参数提供了详细的解释。超声波的传播会影响介质的物理特性,其中包括液体和溶液的物理知识。从上述研究中推导出分子间作用力的性质,包括氢键、电荷转移复合物、氢键断裂和复合物。
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来源期刊
Current Microwave Chemistry
Current Microwave Chemistry CHEMISTRY, MULTIDISCIPLINARY-
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