The Study of Sound Speed as a Function of Pressure at Different Temperatures in Biofuel Component Liquids

Year 2022, , 1 - 7, 01.12.2022

Piyush Kuchhal

https://doi.org/10.5541/ijot.1075348

Abstract

In the present study, an approximation is applied to study the sound speed in liquids as a function of pressure at different temperatures. The relation obtained is applied in the case of biofuel component liquids. The calculated results for each liquid were found to be in good agreement with the experimental results throughout the range of pressure and temperature. The maximum percentage error and average percentage error are not more than 5.2 and 1.9, respectively, in the entire range of pressure and temperature for all liquids. Furthermore, the internal pressure and nonlinear Bayer's parameters are also computed as a function of temperature at one atmosphere from sound speed for the first time in biofuel component liquids.

Keywords

Sound speed, Pressure, Temperature, Biofuel component liquids, Internal pressure, Nonlinear Bayer parameter

Supporting Institution

University of Petroleum and Energy Studies, Dehradun-248007 (INDIA)

Project Number

N/A

Thanks

I am thankful to the University of Petroleumand Energy Studies, Dehradun, for providing the infrastructure for this work.

References

• K Hanaki, J. Portugal-Pereira. The Effect of Biofuel Production on Greenhouse Gas Emission Reductions. In: Takeuchi K., Shiroyama H., Saito O., Matsuura M, editors. Biofuels and Sustainability. Tokyo: Science for Sustainable Societies. Springer, 53-71, 2018.
• H. K. Jeswani, A. Chilvers, and A. Azapagic, “Environmental sustainability of biofuels: a review,” Proc. R. Soc. A., 476(2243), 20200351, 2020.
• A. E. Atabani, A. S. Silitonga, I. A., Badruddin, et al., “A comprehensive review on biodiesel as an alternative energy resource and its characteristics,” Renewable and Sustainable Energy Reviews., 6(4), 2070-2093, 2012.
• El Hadji I. Ndiaye, M. Habrioux, João A. P. Coutinho, et al., “Sound speed, Density, and Derivative Properties of Ethyl Myristate, Methyl Myristate, and Methyl Palmitate under High Pressure,” Journal of Chemical & Engineering Data, 58 (5), 1371-1377, 2013.
• K. Yamane, A. Ueta, Y. Shimamoto, “Influence of Physical and Chemical Properties of Biodiesel Fuels on Injection, Combustion and Exhaust Emission Characteristics in A Direct Injection Compression Ignition Engine,” International Journal of Engine Research, 2(4), 249-261, 2001.
• M. Habrioux, Samuel V. D. Freitas, João A. P. Coutinho, et al., “High Pressure Density and Sound speed in Two Fuels,” Journal of Chemical & Engineering Data, 58 (12), 3392-3398, 2013.
• El Hadji I. Ndiaye, D. Nasri, Jean Luc Daridon, “Sound speed, Density, and Derivative Properties of Fatty Acid Methyl and Ethyl Esters under High Pressure: Methyl Caprate and Ethyl Caprate,” Journal of Chemical & Engineering Data, 57(10), 2667-2676, 2012.
• U. Yang, X. Wang, H.Tan, et al., “Experimental investigations on the thermophysical properties of methyl myristate in alcoholic solutions,” Fuel, 215, 187-195, 2017.
• André F.G. Lopes, Maria del Carmen Talavera-Prieto, Abel G.M. Ferreira, et al., “Sound speed in pure fatty acid methyl esters and biodiesel fuels,” Fuel, 116, 242-254,2014.
• J. Safarov, U. Ashurova, B. Ahmadov, et al., “Thermophysical properties of Diesel fuel over a wide range of temperatures and pressures,” Fuel, 216, 870-889, 2018.
• E. Zorębski, “Internal pressure in liquids and binary liquid mixtures,” Journal of Molecular Liquids, 149(1-2), 52-54, 2009.
• M. Dzida, S. Jężak, J. Sumara, et al., “High-Pressure Physicochemical Properties of Ethyl Caprylate and Ethyl Caprate,” J. Chem. Eng. Data. 58(7), 1955–1962, 2013.
• C. M. Sehgal, “Nonlinear ultrasonics to determine molecular properties of pure liquids,” Ultrasonics, 33(2), 155-161, 1995.
• E. V. Ivanov, V. K. Abrosimov, “Relationship between the internal pressure and cohesive energy density of a liquid nonelectrolyte. Consequences of application of Dack’s concept,” J Struct. Chem. 46, 856–861, 2005.
• J. M. Khadar, “Acoustic nonlinearity parameter B/A and related molecular properties of binary organic liquid mixtures,” Journal of Molecular Liquids. 100(3), 217-227, 2002.
• El Hadji I. Ndiaye, M. Habrioux, João A. P. Coutinho, et al., “Sound speed, Density, and Derivative Properties of Methyl Oleate and Methyl Linoleate under High Pressure,” Journal of Chemical & Engineering Data, 58(8), 2345-2354, 2013.
• P. Kumar, P. Kuchhal and N. Dass, “The pressure and temperature dependence of the velocity of sound in liquid metals,” J. Phys.: Condensed Matter, 8, 10891, 1996.
• A. Kumar, P. Kuchhal, N. Dass, et al., “Anomalous behavior in sound velocity of water,” Physics and Chemistry of Liquids, 49(4), 453-458, 2011.
• A. Schedemann, T. Wallek, M. Zeymer, et al., “Measurement and correlation of biodiesel densities at pressures up to 130MPa,” Fuel, 107, 483-492, 2013.
• P. Kielczyński, M. Szalewski, A. Balcerzak, et al., “Thermodynamic method for measuring the B/A nonlinear parameter under high pressure,” IEEE International Ultrasonics Symposium (IUS), Prague, Czech Republic, 1665-1667, 2013.