Synthesis and Ultrasonic Characterization of Boehmite Nanosuspension in Methanol Base Fluid
Keywords:
Boehmite nanosuspension were synthesized by two step method. In this method Boehmite nano-powder was initially prepared and the powder was dispersed in methanol base fluid. The Nanosuspension exhibits much greater properties as compared to base fluid. Boehmite nanoparticles were synthesized by sol-gel technique. The prepared sample was characterized by X- ray diffraction (XRD), its average particle size has been estimated by using Debye-Scherrer formula. It was found to be 50 nm. Nanosuspension of Boehmite in methanol base fluid were prepared and their thermoacoustic studies were made such that different types of interactions could be assessed. Thermo-acoustical parameters of this nanofluids system were computed from ultrasonic velocities, densities and viscosities. The obtained results of present investigation have been discussed in the light of interactions between the Boehmite nanoparticles and the molecules of methanol-based fluids.Abstract
Boehmite nanosuspension were synthesized by two step method. In this method Boehmite nano-powder was initially prepared and the powder was dispersed in methanol base fluid. The Nanosuspension exhibits much greater properties as compared to base fluid. Boehmite nanoparticles were synthesized by sol-gel technique. The prepared sample was characterized by X- ray diffraction (XRD), its average particle size has been estimated by using Debye-Scherrer formula. It was found to be 50 nm. Nanosuspension of Boehmite in methanol base fluid were prepared and their thermoacoustic studies were made such that different types of interactions could be assessed. Thermo-acoustical parameters of this nanofluids system were computed from ultrasonic velocities, densities and viscosities. The obtained results of present investigation have been discussed in the light of interactions between the Boehmite nanoparticles and the molecules of methanol-based fluids.
References
- Kumar D.H., Patel H.E., Kumar V.R.R., Sundararajan T., Pradeep T. and Das S.K., Model for heat conduction of nanofluids, Physical Review Letters, 94(14) (2004) 1-3.
- Rajagopalan S., Sharma S.J. and Nanotkar V.Y., Ultrasonic Characterization of Silver Nanoparticles, Journal of Metastable and Nanocrystalline Materials, 23 (2005) 271-274.
- Peng C., Zhang J., Xiong Z., Zhao B. and Liu P., "Fabrication of porous hollow α-Al2O3 nanofibers by facile electro spinning and its application for water remediation", Microporous and Mesoporous Materials, 215 (2015) 133-142, (2002) 1896-1899. doi:10.1557/ JMR.2002.0281.
- Iglesias M.; Orge B.; Pineiro M.M.; de Cominges B.E.; Marino G.; Tojo J.: Thermodynamic Properties of the Ternary Mixture Acetone + Methanol + Ethanol at 298.15 K. J.Chem.Eng.Data 43 (1998) 776-780
- Tourino A.; Casas L.M.; Marino G.; Iglesias M.; Orge B.; Tojo J.: Liquid phase behaviour and thermodynamics of acetone + methanol + n-alkane (C9-C12) mixtures. Fluid Phase Equilib. 206 (2003) 61-85
- R. Kiruba, M. Gopalkrishnan, T. Mahalingam, and A. K Zh. Obshch. Khim. 20 (1950) 2124-2126
- A. G. Murugkar and A. P. Maharolkar, I nvestigation on some thermo physical properties of methanol and nitrobenzene binary mixtures, RJCABP, Vol.1, pp-39- 43, (2014)
- Atoyan V.A.; Mamedov I.A.: Acoustic and Viscosity Properties of Liquid Ketones at Constant Volumes as a Function of Molecular Weight. Zh. Fiz. Khim. 54 (1980) 856-860
- Babak S.F.; Udovenko V.V.: The Viscosity of Systems Containing Nicotine Vingson Solomon Jeevaraj,Ultrasonic Studies on Zink Oxide Nanofluids, Journal of Nanofluids 1 (2012) 97-100
- R. Kiruba, M. Gopalkrishnan, T. Mahalingam, and A. Kingson Solomon Jeevaraj, Ultrasonic Studies on Zink Oxide Nanofluids, Journal of Nanofluids 1 (2012) 97- 100
- A. G. Murugkar and A. P. Maharolkar, I nvestigation on some thermo physical properties of methanol and nitrobenzene binary mixtures, RJCABP, Vol.1, pp- 39-43, (2014)
- Rao N P & Ronald E Verrall, Can J Chem, 65, (1987)
- Thirumaran S & Deepesh George, Arpan J of Engineering Appl. Sci, 4, 4, (2009)
- Rao N P & Ronald E Verrall, Can J Chem, 65, (1987)
- Thirumaran S & Deepesh George, Arpan J of Engineering Appl. Sci, 4, 4, (2009)
- Kiyohara O & Benson G C, J Chem. Thermodyn, 11, (1979) 861.
- Bogumil B J Linde&Lezhnev N B, J of Molecular Structure, 754, (2005) 111.
- Dhana Lakshmi &Sekhar S, Ind J Pure Appl. Ultrasons, 21, 3, (1999) 97
- Chimankar O P, Sangeeta Jajodia, ShriwasRanjeeta & V A Tabhane, Arch Appl Sci Res, 3, 3, (2011) 252.
- Tabhane V A & Patki B A, Acustica, 52, (1982).
- J. Madhumitha, N. Santhi, G. Alamelumangai, M. Emayavaramban International Letters of Chemistry, Physics and Astronomy4 (2012) 82-95.
- D.Ubagaramary, P.Neeraja International Refereed Journal of Engineering and Science (IRJES) ISSN Volume 1, Issue 4(2012) 54-77.
- Riyazuddeen & Sadaf Afrin, J Chem Eng, 55, (2010) 2643.
- N. R. Pawar and O. P. Chimankar, J Pure & Appl.Ultrasonic, 37 (2015) 1- 4.
- P.D. Bageshwar, O.P. Chimankar and N.R. Pawar, J Pure & Appl Ultrasonic, 38 (2016) 40- 42.
- G.M. Jamankar, M.S. Deshapandeand N.R. Pawar, J Pure & Appl Ultrasonic, 38 (2016) 10 – 13.
- N.R. Pawar, O.P. Chimankar, S.J. Dhobleand R.D. ChavhanJournal of Acoustical Society of India, 43 (3), (2016), 1-6.
- K.Vaidyanathan, A.Venkateswaran & R.Ramaswamy, Agricultural Chemistry, Priya Publications, Karur 2000.
- S.Chauhan, Kuldeep Kumar, and B.S. Patial., Indian Journal of Pure and Applied Physics,Vol 51 p.p 531-541 August 2013.
- K.Ramanathan, S.Ravichandran, Journal of Pure and Applied Ultrasonics, 26,p.p 12-17, 2004.
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