Liquid mixing process in a multi-orifice-impinging transverse (MOIT) jet mixer was studied by using planar laser induced fluorescence (PLIF) technique quantitatively. The effects of operation conditions (jet-to-pipe velocity ratio
r
and Reynolds number of the mixing fluids
ReM) and configuration parameters (orifice diameter
d
orifice-to-pipe diameter ratio
d/D
and number of the orifices embedded symmetrically on the wall of the pipe
n) on the macro-mixing performance
in particular
in terms of jet trajectories
were investigated. Jet-to-pipe velocity ratio and configuration parameters of the mixer are the main factors affecting the mixing process
whereas ReM had little effect on the jet trajectories. A mathematical model
with x as spanwise coordinate
y as streamwise coordinate
was proposed to predict the jet trajectories of the liquid mixing process in the MOIT jet mixer. The predicted jet trajectories agreed well with those from PLIF experiments.
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Related Author
Lulu SHI
Qingguo ZHAO
Jianru FENG
Yuting WU
Hang GUO
QING Kang
WANG Erqi
YANG Zhen
Related Institution
AVIC The First Aircraft Institute
College of Environmental and Energy Engineering, Beijing University of Technology
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