1997
DOI: 10.1002/(sici)1099-114x(199712)21:15<1399::aid-er342>3.0.co;2-5
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Effect of coriolis force on vorticity covariance in MHD turbulent flow of dusty fluid

Abstract: SUMMARYIn this paper vorticity covariance in MHD turbulent flow of dusty fluid in the presence of coriolis force have been obtained. The obtained result shows that the defining scalars (s, t), (s, t) and (s, t) of the vorticity covariance depend on the defining scalars of the tensors ¼ GH , P GIH , F

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Cited by 3 publications
(3 citation statements)
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“…Mitteilungen (1972) analyzed the unsteady induced hydromagnetic convective free flow in a semi-infinite body of an incompressible fluid bounded by an infinite rigid body undergoing rotation with an angular velocity and investigated the simultaneous effects of Coriolis force and rotation on the hydromagnetic flow. Sarker (1997) theoretically studied the effect of Coriolis force on the vorticity covariance of magnetohydrodynamic turbulent flow of dusty incompressible flow and obtained a general set of equations to determine the vorticity covariance of magnetohydrodynamic dusty fluid turbulent flow in the presence of Coriolis force which agrees with literature where the Coriolis term is ignored. In a study by Hasan and Sanghi (2007), the role of Coriolis forces in twodimensional thermally driven flows in rotating enclosures of an arbitrary cross section was examined theoretically.…”
Section: Background Informationsupporting
confidence: 71%
“…Mitteilungen (1972) analyzed the unsteady induced hydromagnetic convective free flow in a semi-infinite body of an incompressible fluid bounded by an infinite rigid body undergoing rotation with an angular velocity and investigated the simultaneous effects of Coriolis force and rotation on the hydromagnetic flow. Sarker (1997) theoretically studied the effect of Coriolis force on the vorticity covariance of magnetohydrodynamic turbulent flow of dusty incompressible flow and obtained a general set of equations to determine the vorticity covariance of magnetohydrodynamic dusty fluid turbulent flow in the presence of Coriolis force which agrees with literature where the Coriolis term is ignored. In a study by Hasan and Sanghi (2007), the role of Coriolis forces in twodimensional thermally driven flows in rotating enclosures of an arbitrary cross section was examined theoretically.…”
Section: Background Informationsupporting
confidence: 71%
“…over uniform surfaces (horizontal plates, vertical plates, inclined plates etc.). 3,[5][6][7][8][9] The flowing back of the tide past London's Waterloo Bridge, as the salty water returns to the sea, interacts with the Earth's magnetic field to produce a potential difference between the two riverbanks 10 and this gave birth to the study of magnetohydrodynamic MHD flow after Michael Faraday attempted to observe "the electricity obtained by magneto-electric induction" from the motion of salt water through the Earth's magnetic field. The study of MHD became, and is still, one of the most rapidly studied area due its application in laser beam scanning, plasma confinement, nanoparticle manipulations, nuclear reactors cooling using liquid-metal, electromagnetic casting and many others.…”
Section: Introductionmentioning
confidence: 99%
“…These flows generally feature a homogenous liquid (velocity phase) carrying small dust particles (solid phase) and are also an example of a two-phase system. They arise in aerodynamics, 1 chemical engineering fluidized beds, 2 spinning bioreactors, 3 liquid metal processing, 4 nozzle systems in propulsion, 5 cosmical hydrodynamics, 6 and solid oxide fuel cells (SOFCs). 7 Early work on modeling dusty fluids for the Newtonian case was reported by Saffman 8 who proposed a dusty fluid framework taking into consideration the impact of suspended particles on laminar flow stability.…”
Section: Introductionmentioning
confidence: 99%