Measurement of Water Droplet Diameter Using Experiment, Theory and High-Speed Visualization Technique
Measurement of Water Droplet Diameter Using Experiment, Theory and High-Speed Visualization Technique |
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© 2025 by IJETT Journal | ||
Volume-73 Issue-9 |
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Year of Publication : 2025 | ||
Author : D. Sarravanan, S. Illias, S. Hussain, M. S. Mohamad, M. H. Ani | ||
DOI : 10.14445/22315381/IJETT-V73I9P105 |
How to Cite?
D. Sarravanan, S. Illias, S. Hussain, M. S. Mohamad, M. H. Ani,"Measurement of Water Droplet Diameter Using Experiment, Theory and High-Speed Visualization Technique", International Journal of Engineering Trends and Technology, vol. 73, no. 9, pp.48-53, 2025. Crossref, https://doi.org/10.14445/22315381/IJETT-V73I9P105
Abstract
Before starting any experimental work regarding droplet impact experiments, it is very important to verify and confirm the droplet size and diameter. The main reason behind this would be to ensure that every single droplet is almost of the same size before any scientific analysis is carried out. Therefore, the aim of this study is to perform a single water droplet diameter measurement through experimental work, theoretical calculation and high-speed digital imaging technique. In the experimental work, distilled water was used as a test liquid. A digital microscope was used to measure the inner and outer sizes of the droplet dispenser nozzle. The water drop test was performed up to 1000 times (200x5). The average reading of a single droplet weight was measured. The droplet diameter was also calculated using a theoretical calculation. On top of that, the droplet diameter was also measured using a high-speed video camera. From the overall result, it was found that the droplet diameter calculated using theoretical calculation and the one measured using high-speed video camera imaging closely agreed with each other.
Keywords
Droplet diameter, Nozzle size, Experimental measurement, Theoretical calculation, High-speed video camera.
References
[1] Abdoulaye Coulibaly et al., “Bubble Coalescence at Constant Wall Temperatures During Subcooled Nucleate Pool Boiling,” Experimental Thermal and Fluid Science, vol. 44, pp. 209-218, 2013.
[CrossRef] [Google Scholar] [Publisher Link]
[2] Haowei Hu et al., “Effects of System Pressure on Nucleate Boiling: Insights from Molecular Dynamics,” Journal of Molecular Liquids, vol. 402, 2024.
[CrossRef] [Google Scholar] [Publisher Link]
[3] Peng Feng et al., “Experimental Investigation on Transition Boiling During Reflooding in a Narrow Rectangular Channel with High Wall Temperature,” Progress in Nuclear Energy, vol. 170, pp. 1-29, 2024.
[CrossRef] [Google Scholar] [Publisher Link]
[4] J.B. Schmidt et al., “Modelling of Drop and Spray Impact in the Transitional Boiling Regime,” International Journal of Heat and Mass Transfer, vol. 217, pp. 1-27, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[5] Xiaojing Ma et al., “Low Thermal Conductivity Substrate Accelerates Droplet Evaporation in Transition Boiling Regime: An Abnormal Leidenfrost Phenomenon,” Applied Thermal Engineering, vol. 221, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[6] Ji Li et al., “High Heat Flux Dissipation of Membrane-Venting Heat Sink with Thin Film Boiling,” International Journal of Heat and Mass Transfer, vol. 221, 2024.
[CrossRef] [Google Scholar] [Publisher Link]
[7] Pengkun Li et al., “Heat Transfer Incipience of Capillary-Driven Liquid Film Boiling,” Materials Today Physics, vol. 38, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[8] Wang Qi et al., “Numerical Analysis on Transition Sequence and Heat Transfer Capacity of Film Boiling with a Uniform Electric Field,” Physics of Fluids, vol. 35, no. 5, pp. 1-24, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[9] Jiayu Du et al., “Analytical Consideration for the Maximum Spreading Factor of Liquid Droplet Impact on a Smooth Solid Surface,” Langmuir, vol. 37, no. 24, pp. 7582-7590, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[10] Yi-Bo Wang et al., “Universal Model for the Maximum Spreading Factor of Impacting Nanodroplets: from Hydrophilic to Hydrophobic Surfaces,” Langmuir, vol. 36, no. 31, pp. 9306-9316, 2020.
[CrossRef] [Google Scholar] [Publisher Link]
[11] Denis Richard, Christophe Clanet, and David Quéré, “Contact Time of a Bouncing Drop,” Nature, vol. 417, no. 6891, 2002.
[CrossRef] [Google Scholar] [Publisher Link]
[12] Fang-Fang Xie et al., “Contact Time of a Bouncing Nanodroplet,” The Journal of Physical Chemistry Letters, vol. 11, no. 8, pp. 2818-2823, 2020.
[CrossRef] [Google Scholar] [Publisher Link]
[13] Jorge Duarte Benther et al., “Heat Transfer During Multiple Droplet Impingement and Spray Cooling: Review and Prospects for Enhanced Surfaces,” International Journal of Heat and Mass Transfer, vol. 178, pp. 1-36, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[14] Tianshi Zhang et al., “Advanced Study of Spray Cooling: from Theories to Applications,” Energies, vol. 15, no. 23, pp. 1-40, 2022.
[CrossRef] [Google Scholar] [Publisher Link]
[15] Dagnija Blumberga et al., “Innovative Scrubber Technology Model for Domestic Boiler Application,” International Journal of Energy and Environmental Engineering, vol. 12, no. 1, pp. 11-21, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[16] T.R. Valiullin et al., “An Experimental Investigation into Ignition and Combustion of Groups of Slurry Fuel Droplets Containing High Concentrations of Water,” Fuel Processing Technology, vol. 210, 2020.
[CrossRef] [Google Scholar] [Publisher Link]
[17] Detlef Lohse, “Fundamental Fluid Dynamics Challenges in Inkjet Printing,” Annual Review of Fluid Mechanics, vol. 54, no. 1, pp. 349-382, 2022.
[CrossRef] [Google Scholar] [Publisher Link]
[18] Jida Huang et al., “Unsupervised Learning for the Droplet Evolution Prediction and Process Dynamics Understanding in Inkjet Printing,” Additive Manufacturing, vol. 35, pp. 1-14, 2020.
[CrossRef] [Google Scholar] [Publisher Link]
[19] Zilong Zheng et al., “Preparation of Protective Coatings for the Leading Edge of Wind Turbine Blades and Investigation of their Water Droplet Erosion Behavior,” Wear, vol. 558-559, 2024.
[CrossRef] [Google Scholar] [Publisher Link]
[20] Zhe Li et al., “Adjusting Droplet Adhesion of Superhydrophobic Coating Via Surface Embedding of Microparticles with Mixed Shapes,” Chemical Engineering Journal, vol. 492, 2024.
[CrossRef] [Google Scholar] [Publisher Link]
[21] Haixiang Zhang et al., “Effect of Wettability on Droplet Impact: Spreading and Splashing,” Experimental Thermal and Fluid Science, vol. 124, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[22] Xiaonuo Huang, Leping Zhou, and Xiaoze Du, “Critical Contact Angle for Triggering Dynamic Leidenfrost Phenomenon at Different Surface Wettability: A Molecular Dynamics Study,” Journal of Molecular Liquids, vol. 382, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[23] Hsiang Yu Tsai et al., “Fast Spreading of Liquid on Leidenfrost Vapor Layer Surface,” Colloids and Surfaces A: Physicochemical and Engineering Aspects, vol. 677, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[24] Chang Cai et al., “Alcohol-Induced Elevation in the Dynamic Leidenfrost Point Temperature for Water Droplet Impact,” International Journal of Heat and Mass Transfer, vol. 215, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[25] Boris Kichatov et al., “Evaporation of Ferrofluid Drop in Magnetic Field in Leidenfrost Mode,” Journal of Magnetism and Magnetic Materials, vol. 588, 2023.
[CrossRef] [Google Scholar] [Publisher Link]
[26] Teguh Wibowo et al., “The Effect of Ethylene Glycol Concentration on the Interfacial Dynamics of the Successive Droplets Impacting onto a Horizontal Hot Solid Surface,” International Journal of Thermal Sciences, vol. 159, 2021.
[CrossRef] [Google Scholar] [Publisher Link]
[27] Ana Sofia Moita, and António Luís N. Moreira, “The Deformation of Single Droplets Impacting onto a Flat Surface,” SAE Transactions, vol. 111, pp. 1477-1489, 2002.
[Google Scholar] [Publisher Link]