Experimental Study of Quenching Progression on a Heated Flat Dimpled Surface with Water Jet Impingement

Document Type : Full Lenght Research Article

Authors

Department of Mechanical Engineering, National Institute of Technology, Hamirpur (H.P.), 177005, India.

Abstract

Quenching progression on a flat surface and heat transfer enhancement with an impinging jet over smooth and dimpled surface modification is presented in this manuscript. With rapid advancements in today’s electronic, electrical, and mechanical systems, the need for the removal of the associated heat generation rates is also increasing. Achieving that by jet impingement provides an economical and fast solution. A smooth flat plate is quenched repeatedly from three different initial temperatures of 300,350 and 400° C. The results in terms of re-wetting parameters viz., Re-wetting temperature, and wetting delay are reported. Parallelly, the effect of the hemispherical dimpled (array) surface with a pitch of 3 mm, and diameter of 2 mm with varying depths of 0.5 mm(d/t=10) and 1mm(d/t=5) are studied. The results are then compared to that of a smooth surface. Water is used as a coolant at a temperature of 17 ±2°C. A large deviation in results is reported when the plate surface was subjected to repeated trials due to a change in the metallurgical properties of the surface. The results of a dimple depth of 0.5mm show a higher heat transfer rate as compared to that of both the smooth surface and the dimple depth of 1 mm. A maximum of 40% and a minimum of 26% enhancement in heat transfer rate is reported for dimple depth 0.5mm compared to 1mm. Further, a 59.76% of heat transfer efficiency was recorded for the experimental setup and this efficiency was found to be increasing with an increase in the water pump pressure.

Keywords

Main Subjects

References

  1. Ma, C.F. and Tian, Y.Q., 1990. Experimental investigation on two-phase two-component jet impingement heat transfer from simulated microelectronic heat sources. International communications in heat and mass transfer, 17(4), pp.399-408.
  2. Yu, P., Zhu, K., Sun, T., Yuan, N. and Ding, J., 2017. The heat transfer rate and uniformity of mist flow jet impingement for glass tempering. International Journal of Heat and Mass Transfer, 115, pp.368-378.
  3. Sarkar, A. and Singh, R.P., 2004. Air impingement technology for food processing: visualization studies. LWT-Food Science and Technology, 37(8), pp.873-879.
  4. Takrouri, K., Luxat, J. and Hamed, M., 2017. Measurement and analysis of the re-wetting front velocity during quench cooling of hot horizontal tubes. Nuclear Engineering and Design, 311, pp.184-198.
  5. Jondhale, K.V., Wells, M.A., Militzer, M. and Prodanovic, V., 2008. Heat transfer during multiple jet impingement on the top surface of hot rolled steel strip. steel research international, 79(12), pp.938-946.
  6. Greaves Jr, J.D., 1990. Numerical analysis of the outside vapor deposition process(Doctoral dissertation, Ohio University).
  7. Ferng, Y.M. and Liu, C.H., 2011. Numerically investigating fire suppression mechanisms for the water mist with various droplet sizes through FDS code. Nuclear Engineering and Design, 241(8), pp.3142-3148.
  8. Al Ali, A.R. and Janajreh, I., 2015. Numerical simulation of turbine blade cooling via jet impingement. Energy Procedia, 75, pp.3220-3229.
  9. Han, J.C., Glicksman, L.R. and Rohsenow, W.M., 1978. An investigation of heat transfer and friction for rib-roughened surfaces. International Journal of Heat and Mass Transfer, 21(8), pp.1143-1156.
  10. Seyed-Yagoobi, J., 1996. Enhancement of heat and mass transfer with innovative impinging jets. Drying technology, 14(5), pp.1173-1196.
  11. Paisarn, N. and Somchai, W., 2011. Experimental study of jet nanofluids impingement system for cooling computer processing unit. Journal of Electronics Cooling and Thermal Control, 2011.
  12. Parida, P.R., Ekkad, S.V. and Ngo, K., 2010, January. Novel PCM and Jet Impingement Based Cooling Scheme for High Density Transient Heat Loads. In International Heat Transfer Conference(Vol. 49422, pp. 443-450).
  13. Leocadio, H., Van Der Geld, C.W.M. and Passos, J.C., 2018. Rewetting and boiling in jet impingement on high temperature steel surface. Physics of Fluids, 30(12), p.122102.
  14. Singh, P., Zhang, M., Ahmed, S., Ramakrishnan, K.R. and Ekkad, S., 2019. Effect of micro-roughness shapes on jet impingement heat transfer and fin-effectiveness. International Journal of Heat and Mass Transfer, 132, pp.80-95.
  15. Nagesha, K., Srinivasan, K. and Sundararajan, T., 2020. Enhancement of jet impingement heat transfer using surface roughness elements at different heat inputs. Experimental Thermal and Fluid Science, 112, p.109995.
  16. Tepe, A.Ü., Uysal, Ü., Yetişken, Y. and Arslan, K., 2020. Jet impingement cooling on a rib-roughened surface using extended jet holes. Applied Thermal Engineering, 178, p.115601.
  17. Kim, T.H., Do, K.H. and Kim, S.J., 2017. Closed-form correlations of pressure drop and thermal resistance for a plate fin heat sink with uniform air jet impingement. Energy Conversion and Management, 136, pp.340-349.
  18. Han, J.C., Glicksman, L.R. and Rohsenow, W.M., 1978. An investigation of heat transfer and friction for rib-roughened surfaces. International Journal of Heat and Mass Transfer, 21(8), pp.1143-1156.
  19. Jing, Q., Zhang, D. and Xie, Y., 2018. Numerical investigations of impingement cooling performance on flat and non-flat targets with dimple/protrusion and triangular rib. International Journal of Heat and Mass Transfer, 126, pp.169-190.
  20. Xie, Y., Li, P., Lan, J. and Zhang, D., 2013. Flow and heat transfer characteristics of single jet impinging on dimpled surface. Journal of heat transfer, 135(5).
  21. Kanokjaruvijit, K. and Martinez-Botas, R.F., 2004. An experimental investigation of the heat transfer due to multiple jets impinging normally on a dimpled surface. Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science, 218(11), pp.1337-1347.
  22. Kanokjaruvijit, K. and Martinez-botas, R.F., 2005. Jet impingement on a dimpled surface with different crossflow schemes. International journal of heat and mass transfer, 48(1), pp.161-170.
  23. Kanokjaruvijit, K. and Martinez-Botas, R.F., 2004, January. Parametric effects on heat transfer of impingement on dimpled surface. In Turbo Expo: Power for Land, Sea, and Air(Vol. 41685, pp. 77-88).
  24. Schukin, A.V., Kozlov, A.P. and Agachev, R.S., 1995, June. Study and application of hemispheric cavities for surface heat transfer augmentation. In Turbo Expo: Power for Land, Sea, and Air(Vol. 78811, p. V004T09A034). American Society of Mechanical Engineers.
  25. Singh, P. and Ekkad, S.V., 2018. Detailed heat transfer measurements of jet impingement on dimpled target surface under rotation. Journal of Thermal Science and Engineering Applications, 10(3).
  26. Vinze, R., Khade, A., Kuntikana, P., Ravitej, M., Suresh, B., Kesavan, V. and Prabhu, S.V., 2019. Effect of dimple pitch and depth on jet impingement heat transfer over dimpled surface impinged by multiple jets. International Journal of Thermal Sciences, 145, p.105974.
  27. Wright, D., Craig, K.J., Valluri, P. and Meyer, J.P., 2023. Computational investigation of single and multi-jet array impingement boiling. Applied Thermal Engineering, 218, p.119342.
  28. Kishan, D.L., Swapnil, S. and Debbarma, A., 2023. CFD Investigation of Rewetting Behavior on a Hot Vertical Plate Surface with Coolant Jet Impingement. In Emerging Trends in Mechanical and Industrial Engineering: Select Proceedings of ICETMIE 2022(pp. 85-97). Singapore: Springer Nature Singapore.
  29. Rajabi Zargarabadi, M., Rakhsha, S. and Saedodin, S., 2021. Parametric study of the flow characteristics and heat transfer from circular intermittent jet impinging on a concave surface. Journal of Heat and Mass Transfer Research, 8(2), pp.173-186.
  30. Ataei, M., Tarighi, R., Hajimohammadi, A. and Rajabi Zargarabadi, M., 2017. Heat Transfer under Double Turbulent Pulsating Jets Impinging on a Flat Surface. Journal of Heat and Mass Transfer Research, 4(1), pp.45-52.
  31. Kline, S.J., 1963. Describing uncertainties in single-sample experiments.  Eng., 75, pp.3-8.
  32. Liu, Z.H. and Wang, J., 2001. Study on film boiling heat transfer for water jet impinging on high temperature flat plate. International Journal of Heat and Mass Transfer, 44(13), pp.2475-2481.
  33. Seiler-Marie, N., Seiler, J.M. and Simonin, O., 2004. Transition boiling at jet impingement. International journal of heat and mass transfer, 47(23), pp.5059-5070.
  34. Rohsenow, W.M., 1951. A method of correlating heat transfer data for surface boiling of liquids. Cambridge, Mass.: MIT Division of Industrial Cooporation, [1951].

Files

Cited by

History

  • Receive Date: 17 January 2023
  • Revise Date: 01 July 2023
  • Accept Date: 04 July 2023

Share

How to cite

Statistics