Free Surface Impinging Jet

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Heat transfer under free surfaceimpinging jet – Radial & Axial Velocitywithin Stagnant and Radial Wall <strong>Jet</strong>From z/d = 0.0092 upwards, the radial velocity increases linearlywith the radial distance from the stagnation point until r/d ≈ 0.6,and the highest velocity gradient is observed at z/d = 0.018
Heat transfer under free surfaceimpinging jet – Radial & Axial Velocitywithin Stagnant and Radial Wall <strong>Jet</strong>In 1964, Watson made the assumption that maximum velocity was at thefree surface velocity, which travels at the jet exit velocity until viscousboundary layer reaches the free surface. However, Fig. 5.8 reveals thatmaximum velocity occurs internal to the liquid layer, rather than at the freesurface location
Page 1 and 2: Free Surface Impinging JetWork done
Page 3 and 4: Introduction - Application• Verti
Page 5 and 6: Literature Review - FreeSurface Imp
Page 7: Mathematical Modelling - FreeSurfac
Page 10 and 11: Validation of laminar flow field in
Page 12 and 13: Heat transfer under free surfaceimp
Page 14 and 15: Heat transfer under free surfaceimp
Page 16 and 17: F'''Heat transfer under free surfac
Page 20 and 21: Heat transfer under partial submerg
Page 22 and 23: Heat transfer under partial submerg
Page 24 and 25: Conclusions•It was found that the
Page 26 and 27: References1. Womac, D.J., Ramadhyan
Page 28 and 29: References9. Stevens, J., Pan, Y.,

Free Surface Impinging Jet

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