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Heat and Flow Characteristics of Jet Impingement: Literature Review

NAVEEN C S, V.V Katti

Abstract


                                                    Abstract
A comprehensive review on jet impingement heat transfer and flow characteristics of impinging synthetic jets were compared with continuous jets. Considering all the single phase heat transfer jet impingement has maximum heat transfer rate. A number of experimental arrangements as done to study the jet impingement such as jet impingement on a solid flat surface, rough surface, concave surface, convex surface, etc. A large number of papers dealing with experimental and computational studies on different physical and computational aspects of jet impinging flows are reviewed. Different geometrical parameters were found to influence the characteristics, such as flow confinement, nozzle shape, jet to plate spacing and Reynolds number. An extremely small number of studies dealing with application based jet impingement heat transfer configurations experimentally and numerically have been reported in the literature. Various turbulence models such as elliptic relaxation turbulence model (v2-f model), k-ε turbulence model (RNG), etc. such models have complexities and boundary conditions are reviewed for jet impingement heat transfer. It was observed that majority of authors used k-ε turbulence model (RNG) turbulence model due to its less complexity. However, turbulence modellers encounter numerous difficulties due either to the fact that the details of most of these experimental data sets are not known, or to the fact that the geometry and boundary conditions are not obtained. Some literature show that synthetic jet exhibits stronger local heat transfer than the continuous jet same Reynolds number at stagnation point. Synthetic jet spread more in radial direction and more mass flow rate as compared to air jet at same Reynolds number.


Keywords: Jet impingement, turbulence, Nusselt number, convective heat transfer


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References


Jambunathan K, Lai E, Moss AM, Button LB. A review of heat transfer data for single circular jet impingement, Int J Heat Fluid Flow. 13(2): June 1992. 106-115p.

Anna Pavlova, Michael Amitay, Electronic Cooling Using Synthetic Jet Impingement, J Heat Transfer. September 2006; 128(9).897-907p.

Wang XL, Motala D, Lu TJ, Song SJ, Kim T. Heat transfer of a circular impinging jet on a circular cylinder in Cross flow, ELSEVIER Int J Therm Sci.2014; 78: 1–8p.

Katti Vadiraj, Prabhu SV. Experimental study and theoretical analysis of local heat transfer distribution between smooth flat surface and impinging air jet from a circular straight pipe nozzle, ELSEVIER Int J Heat Mass Transf.2008; 51: 480–4495p.

Synthetic Jet Actuator and Their Applications, US Patent, US 5758823, June 1998.

Smith BL, Glezer A. The formation and evolution of synthetic jets, Phys Fluids.1998; 10: 2281–2297p.

Mahalingam R, Rumigny N, Glezer A. Thermal management with synthetic jet ejectors, IEEE T Compon Packag Technol.2004; 27: 439–444p.

Chaudhari MB, Puranik B, Agrawal A. Heat transfer characteristics of synthetic jet impingement cooling, Int J Heat Mass Transfer.201; 53: 1057–1069p.

Viskanta R. Heat Transfer to impinging isothermal gas and flame jets, Exp Therm Fluid Sci. 1993; 6:111–134p.

Gardon R, Akfirat C. Heat transfer characteristics of impinging two dimensional air jets, J Heat Transfer.1966; 88: 101–108p.

Lee DH, Song J, Myeong CJ. The effect of nozzle diameter on impinging jet heat transfer and fluid flow, J Heat Transfer.2004; 126:554–557p.

Swift B, Swift G. A comparison between synthetic jet and continuous jets, Exp Fluids.2003; 34: 467–472p.

HeX, Lustbader JA, Arik M, Sharma R. Heat transfer characteristics of impinging steady and synthetic jets over vertical flat surface, Int J Heat Mass Transfer.2015; 80: 825–834p.

Koopman RNN, Sparrow EMM. Local and average transfer coefficients due to an impinging row of jets, Int J Heat Mass Transf. 1976; 19(6): 673–683p. DOI: 10.1016/0017-9310(76)90051.

Lee DH, Chung YS, Kim DS. Turbulent flow and heat transfer measurements on a curved surface with a fully developed round impinging jet, ELSEVIER Int J Heat Fluid flow.1997; 18:160–169p.

Katti Vadiraj, Prabhu SV.Experimental study and theoretical analysis of local heat transfer distribution between smooth flat surface and impinging air jet from a circular straight pipe nozzle, ELSEVIER Int J Heat and Mass Transfer. 2008; 51: 4480–4495p.

O’Donovan TS, Murray DB. Jet impingement heat transfer-Part I: Mean and root-mean-square heat transfer and velocity distributions, Int J Heat Mass Transfer. 2007; 50(17): 3291–3301p. DOI: 10.1016/j.ijheatmasstransfer.2007.01.044

Gau C, Lee CC. Impingement cooling flow structure and heat transfer along rib-roughened walls, Int J Heat Mass Transfer. 1992; 35(11): 3009–3020p. DOI: 10.1016/0017-9310(92)90320.

Lytle D, Webb BW. Air jet impingement heat transfer at low nozzle plate spacings, Int J Heat Mass Transfer.1994; 37: 1687–1697p.

Smith BL, Glezer A. The formation and evolution of synthetic jets, Phys Fluids.1998; 10: 2281–2297p.

Mangesh Chaudhari, Bhalchandra Puranik, Amit Agrawal. Heat transfer characteristics of synthetic jet impingement cooling, International Journal of Heat and Mass Transfer. 53. February 2010. 1057-1069p.

Mangesh Chaudhari, Bhalchandra Puranik, Amit Agrawal, Effect of orifice shape in synthetic jet based impingement cooling, Exp Therm Fluid Sci.2010; 34: 246–256p.

Mangesh Chaudhari, Bhalchandra Puranik, Amit Agrawal, Heat transfer characteristics of synthetic jet impingement cooling, Int J Heat Mass Transfer.2010; 53: 1057–1069p.

Laxmikant D. Mangate, Mangesh B. Chaudhari, Heat transfer and acoustic study of impinging synthetic jet using diamond and oval shape orifice, Int J Therm Sci. 2015; 89. 100-109p.

Behnia M, Parneix S,Durbin PA. Prediction of heat transfer in an axisymmetric turbulent jet impinging on a flat plate. Int J Heat Mass Transfer. 1998; 41(12): 1845–1855p.

Zuckerman N, Lior N. Impingement heat transfer: correlations and numerical modeling. J Heat Transfer. 127(5); 2005. 544-552p.

Harpreet Singh, Sunil Chandel, CFD analysis of effect of Reynolds number on local heat transfer distribution for jet impingement on smooth plate by incompressible chevron je, Int J Eng Tech Sci Res.March-2019; 5(3). 807-812p.

Harinaldi, Damora Rhakasywi, Rikko Defriadi, Flow and heat transfer characteristics of an impinging synthetic air jet under sinusoidal and triangular, wave forcing. IJET-IJ. June 2011; 11(03). 27-34p.

Mustafa Kilic, Tamer Calisir, Senol Baskaya, Experimental and numerical study of heat transfer from a heated flat plate in a rectangular channel with an impinging air jet, Braz Soc Mech Sci Eng. 2017; DOI 10.1007/s40430-016-0521. 39(1); 329-344p.

Arik M. An investigation into feasibility of impingement heat transfer and acoustic abatement of meso scale synthetic jets, Appl Therm Eng. 2007; 27: 1483–1494p.




DOI: https://doi.org/10.37591/rtfm.v7i1.3860

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