Proceedings of the ... International Conference on Offshore Mechanics and Arctic Engineering, Volume 2American Society of Mechanical Engineers, 2006 - Arctic regions |
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Page 35
Guohai Dong ' ABSTRACT A detailed study of oscillatory flow around two circular
cylinders of different diameters is ... The numerical model is validated against
oscillatory flows past a single circular cylinder where the experimental data are ...
Guohai Dong ' ABSTRACT A detailed study of oscillatory flow around two circular
cylinders of different diameters is ... The numerical model is validated against
oscillatory flows past a single circular cylinder where the experimental data are ...
Page 40
The RMS symmetric about the line passing through the centres of the cylinders (
as shown in Figure 7 ( a ) ) . When KC ... The vortices shed from the small
cylinder lead to non - symmetrical fluid field around large cylinder ( see Figure 7 (
b ) ) .
The RMS symmetric about the line passing through the centres of the cylinders (
as shown in Figure 7 ( a ) ) . When KC ... The vortices shed from the small
cylinder lead to non - symmetrical fluid field around large cylinder ( see Figure 7 (
b ) ) .
Page 41
4 and p196 °F ( a ) in - line force Large cylinder - - Single cylinder Figure 12
Instantaneous vorticity contours for a = 0 , d / D = 0 . 8 and A = 196 Figure 13
shows the lift and in - line forces on the large cylinder , the small cylinder and the
single ...
4 and p196 °F ( a ) in - line force Large cylinder - - Single cylinder Figure 12
Instantaneous vorticity contours for a = 0 , d / D = 0 . 8 and A = 196 Figure 13
shows the lift and in - line forces on the large cylinder , the small cylinder and the
single ...
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Contents
Characterisation of the Wave Profile in the Edinburgh Curved Tank | 1 |
OMAE200692006 | 11 |
OMAE200692020 | 19 |
Copyright | |
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amplitude analysis angle applied Arctic ASME assumed bottom boundary calculated coefficient compared comparison components computed considered Copyright cylinder damping defined depth described determined developed direction distribution dynamic effect element energy Engineering equation estimated experimental experiments field Figure flow fluid force frequency function given higher horizontal hull hydrodynamic increase interaction International length lift force linear loads mass maximum mean measured Mechanics method motion nonlinear numerical observed obtained Ocean Offshore operation parameters performance period phase pile position potential prediction present pressure problem propeller range ratio reference relative Research respectively response roll scale ship shown shows significant simulation solution speed station strength stress structure surface Table tank temperature towed University values vehicle velocity vertical vessel wave height wind