1 Stevens J, Webb B W. Measurements of the free surface flow structure under an impinging, freeliquid jet. J Heat Transfer, 1992, 114(2): 79-82
[2]
2 Garrd A D, Patrick M A. The velocity held produced by a submerged jet directed upwards at a freesurface. Int J Heat and Transfer, 1983, 26(4): 1029-1032
[3]
3 Wolf D H, Viskanta R, Incropera F P. Turbulence dissipation in a free-surface jet of water and itseffect on local impingement heat transfer from a heated surface: Part 1-flow structure. J Heat Transfer,1995, 117(8). 85-90
[4]
4 Stevens J, Pan Y, Webb B W. Effect of nozzle configuration on transport in the stagnation zone ofaxisymmetric, impinging free-surface liquid jets : Part 1-Turbulent flow structure. Heat Transfer, 1992,114(6):874~ 877
[5]
5 Pan Y, Stevens J, Webb B W. Efect of nozzle configuration on transport in the stagnation zone ofaxisymmetric,impinging free-surface liquid jets:Part 2-Local heat transfer. J Heat Transfer, 1992,114(7): 880~ 887
[6]
6 Lee X C, Ma C F Zheng Q, et al. Numerical study of recovery effect and impingement heattransfer with submerged circular jets of large Prandtl number liquid. Int J Heat and Mass Transfer,1997, 40(9). 2647-2653
[7]
7 Li P W, Tao W Q. Numerical and experimental investigations on heat/mass transfer of slot-jetimpingement in a rectangular cavity. Int J Heat and Fluid Flow, 1993, 14(8): 246-250
[8]
8 Li D Y, Guo Z Y, Ma C F. Relationship between the recovery factor and the viscous dissipation ina confined,impinging,circular jet of high-Prandtl number liquid. Int J Heat and Fluid Flow, 1997,18(2): 585~ 590
[9]
9 Fitzgerald Janice A, Garimella Sures h V. A study of the field of a confined and submergedimpinging jet. Int J Heat Mass Transfer, 1998, 41(3):1025-1030
[10]
10 Behnia M, Parneix S. Prediction of heat transfer in an axisymmetric turbulent jet impinging on a flatplate. Int J Heat Mass Transfer, 1998, 41(8). 1845-1855
[11]
11 Liu Xin, Gabour L A, Lienhard V J H. Stagnation-point heat transfer during impingement of laminarliquid jets:Analysis including surface tension. J Heat Transfer, 1993, 115(8):99-103
[12]
12 Webb B W, Ma C F. Single-phase liquid jet impingement heat transfer. Advances in heat transfer,1995, 26(9): 105~ 130
[13]
13 Colucci D W, Viskanta R. Effect of nozzle geometry on local convective heat transfer to a confinedimpinging air jet. Experimental Thermal and Fluid Science, 1986, 13(5): 71-80
[14]
14 Garimella S V, Rice R A. Confined and submerged liquid jet impingement heat transfer. J heatTransfer, 1995, 117(9):871-876
16 Gardon Robert, Akfirat J Cahit. Heat transfer characteristics of impinging two-dimensional air jets. JHeat Transfer, 1966, 106(6):101 - 106
[17]
17 Gardon Robert, Akfirat J Cahit. The role of turbulence in determining the heat transfer characteristicsof impinging Jets. Int J Heat Mass Transfer, 1965, 8(3): 1261 ~ 1268
[18]
18 Lee D, Greif R, Lee S J, Lee J H. Heat transfer from a flat plate to a fully developed axisymmetricimpinging jet. J Heat Transfer, 1995, 117(2): 772-773
[19]
19 Huang Lianmin, Mohamed S. Heat transfer of an impinging Jet on a flat surface. Int J Heat MassTransfer, 1994, 37(13); 1915-1919
21 Steven J, Webb B W. Measurements of now structure in the radial layer of impinging free-surfaceliquid jets. Int J Heat Mass Transfer, 1993, 36(15): 3751- 3759
[22]
22 Lytle D, Webb B W. Air jet impingement heat transfer at low nozzle-plate spacings. Int J Heat MassTransfer, 1994, 37(9): 1687-1693
