NJIT eTD::njit-etd1967-002::Chamberlain, John Edward::"Heat transfer between a turbulent round jet and a segmented flat plate perpendicular to it"

Heat transfer between a room temperature, turbulent round jet and a segmented flat plate perpendicular to it has been investigated.

The heat transfer surface consisted of invar rings insulated from each other with silicone rubber. The source of heat was steam at atmospheric pressure condensing on the back of the heat transfer surface.

Since data were taken over a wide range of vertical distances between the nozzle and the flat surface both the potential cone and the fully developed regions of the jet were observed interacting with the heated plate.

It was determined that two modes of heat transfer occur; one in the potential cone region and the other in the fully developed region of the jet striking the plate. Results were successfully correlated at the stagnation point for all vertical distances between the jet and the plate. The decrease in heat transfer coefficient with increasing radial distance from the stagnation point has been successfully correlated in both the potential cone and the fully developed regions of the jet as well.

Title:	Heat transfer between a turbulent round jet and a segmented flat plate perpendicular to it
Author:	Chamberlain, John Edward
Document Type:	Thesis
Department:	Department of Mechanical Engineering
Degree:	Master of Science
Major:	Mechanical Engineering
Advisory Committee:	Hryack, Peter Stamper, Eugene Levy, Martin J.
Thesis Date:	1967, January
Keywords:	Jets--Fluid Dynamics Heat--Transmission
Availability:	Unrestricted
Abstract:	Heat transfer between a room temperature, turbulent round jet and a segmented flat plate perpendicular to it has been investigated. The heat transfer surface consisted of invar rings insulated from each other with silicone rubber. The source of heat was steam at atmospheric pressure condensing on the back of the heat transfer surface. Since data were taken over a wide range of vertical distances between the nozzle and the flat surface both the potential cone and the fully developed regions of the jet were observed interacting with the heated plate. It was determined that two modes of heat transfer occur; one in the potential cone region and the other in the fully developed region of the jet striking the plate. Results were successfully correlated at the stagnation point for all vertical distances between the jet and the plate. The decrease in heat transfer coefficient with increasing radial distance from the stagnation point has been successfully correlated in both the potential cone and the fully developed regions of the jet as well.
Complete Thesis:	njit-etd1967-002 (89 pages ~ 9,285 KB pdf)
Download by Chapters:	Front Matter (Title Page, Abstract, Table of Contents, etc. ~ 10 pages ~ 1,181 KB pdf) Introduction (4 pages ~ 562 KB pdf) Review of Previous Work (8 pages ~ 909 KB pdf) The Apparatus (3 pages ~ 240 KB pdf) The Test Procedure (4 pages ~ 312 KB pdf) Analysis of Results - General (4 pages ~ 373 KB pdf) Analysis of Results - Stagnation Point Heat Transfer (11 pages ~ 1,247 KB pdf) Analysis of Results - Radial Variation of Local Heat Transfer Coefficients (3 pages ~ 481 KB pdf) Summary of Results (3 pages ~ 229 KB pdf) Appendix (47 pages ~ 3,933 KB pdf) References (2 pages ~ 160 KB pdf)
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