2018•Physical Review FluidsRequires access

Experimental and numerical investigation of electrohydrodynamic flow in a point-to-ring corona discharge

Yifei Guan, Ravi Sankar Vaddi, Alberto Aliseda, Igor V. Novosselov

Open publisher page 61 citations

Abstract

An electrohydrodynamic flow in a point-to-ring corona configuration is investigated experimentally and numerically. A parameter $X$, defined as the ratio of the local electric force to the inertial term, characterizes the effect of electrohydrodynamic forcing on bulk flow.

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What this paper is about

An electrohydrodynamic flow in a point-to-ring corona configuration is investigated experimentally and numerically. A parameter $X$, defined as the ratio of the local electric force to the inertial term, characterizes the effect of electrohydrodynamic forcing on bulk flow.

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Available abstract

An electrohydrodynamic flow in a point-to-ring corona configuration is investigated experimentally and numerically. A parameter $X$, defined as the ratio of the local electric force to the inertial term, characterizes the effect of electrohydrodynamic forcing on bulk flow.

Key concepts: Electrohydrodynamics, Corona discharge, Mechanics, Corona (planetary geology), Flow (mathematics), Ion wind, Ring (chemistry), Point (geometry)

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