GlauertM. B.‘The wall jet’, J. Fluid Mech.19561, 625.
5.
TetervinN.‘Laminar flow of a slightly viscous incompressible fluid that issues from a slit and passes over a flat plate’, N.A.C.A. Tech. Note 1644, 1948.
6.
BradshawP.GeeM. T.‘Turbulent wall jets with and without an external stream’, A.R.C. R & M No. 3252, 1962.
7.
EskinaziS.KrukaV.‘The wall jet in a moving stream’, Syracuse Univ. Research Institute, Mech. Engng Dept Rept No. ME 937–630F, 1963.
8.
SigallaA.‘Measurements of skin friction in a plane turbulent wall jet’, J. roy. aero. Soc.195862, 873.
9.
MyersG. E.SchauerJ. J.EustisR. H.‘Plane turbulent wall jet—flow development and friction factor’, A.S.M.E. Paper No. 62-Hyd.-4.
10.
SebanR. A.BackL. H.‘Velocity and temperature profiles in a wall jet’, Int. J. Heat Mass Transfer19613, 255.
11.
SchwarzW. H.CosartP.‘The two-dimensional turbulent wall jet’, J. Fluid Mech.196110, 481.
12.
LeclercA.‘Déviation d'un jet liquide par une plaque normale à son axe’, Houille blanche1950, 816.
BradshawP.LoveE. M.‘The normal impingement of a circular air jet on a flat surface’, A.R.C. 21, 268, F.M. 2856, 1959.
15.
GardonR.AkfiratJ. C.‘The role of turbulence in determining the heat transfer characteristics of impinging jets’, Int. J. Heat Mass Transfer19658, 1261.
16.
SchauerJ. J.‘The flow development and heat transfer characteristics of plane, turbulent, impinging jets’, Ph.D. thesis, Stanford University, 1964.
17.
NevinsR. G.BallH. D.‘Heat transfer between a flat plate and a pulsating impinging jet’, Proc. Int. Heat Transfer Conf., Chicago19612, 510.
18.
GardonR.CobonpueJ.‘Heat transfer between a flat plate and jets of air impinging on it’, Proc. Int. Heat Transfer Conf., Chicago19612, 454.
19.
PerryK. P.‘Heat transfer by convection from a hot gas jet to a plane surface’, Proc. Instn mech. Engrs1954168, 755 (Instn Mech. Engrs, London).
20.
ThurlowG. G. Communication on Perry's paper [see reference (19)].
21.
HuangG. C.‘Investigations of heat transfer coefficient for air flow through round jets impinging normal to heat transfer surface’, J. Heat Transfer, Trans. Am. Soc. mech. Engrs196385 (No. 3, Series C, August), 237.
22.
DaaneR. A.HanS. T.‘An analysis of air impingement drying’, Inst. Paper Chem., Tappi196144 (No. 1), 73.
23.
SmirnovV. A.VerevochkinG. E.BrdlickP. M.‘Heat transfer between a jet and a plate normal to the flow’, Int. J. Heat Mass Transfer19612 (March), 1.
24.
WalzD. M.‘Spot cooling and heating of surfaces with high-velocity impinging air jets, Part 2’, Stanford Univ. Tech. Rept, Dept Mech. Engng, 1963.
25.
GardonR.AkfiratJ. C.‘Heat transfer characteristics of impinging two-dimensional air jets’, A.S.M.E. Paper No. 65-HT-20.
26.
Van der Hegge ZijnenB. G.‘Measurements of the velocity distribution in a plane turbulent jet of air’, Appl. Sci. Res.19587A, 256.
27.
Van DriestE. R.‘The turbulent boundary layer with variable Prandtl number’, Aerophys. Lab., North Amer. Aviation Rept AL-1914, 1954.
28.
LinC. C. (editor). Turbulent flows and heat transfer, highspeed aerodynamics and jet propulsion, Vol. 5 (Princeton Univ. Press).
29.
SquireH. B.‘Heat transfer calculations for aerofoils’, A.R.C. R & M No. 1986, 1942.
30.
GoldsteinS.Modern developments in fluid dynamics1938, Vol. 2 (Oxford Univ. Press).
31.
KorgerM.KrizekF.‘Mass transfer coefficient in impingement flow from slotted nozzles’, Int. J. Heat Mass Transfer19669 (April), 337.
32.
Von DoenhoffA. E.TetervinN.‘Determination of general relations for the behaviour of turbulent boundary layers’, N.A.C.A. Rept 772, 1943.
33.
MetzgerD. E.‘Spot cooling and heating of surfaces with high-velocity impinging air jets’, Stanford Univ. Tech. Rept No. 52, Dept. of Mech. Engng, 1962 (April).
34.
SuteraS. P.‘Vorticity amplification in stagnation point flow and its effect on heat transfer’, J. Fluid Mech.196521 (No. 3, March), 513.
35.
KestinJ.MaederP. F.WangH. E.‘Influence of turbulence on the transfer of heat from plates with and without a pressure gradient’, Int. J. Heat Mass Transfer19613, 133.
36.
KestinJ.MaederP. F.SoginH. H.‘Influence of turbulence on the transfer of heat to cylinders near the stagnation point’, Z. angew. Math. Phys.196112, 115.