Measurement Science and Technology · 2012 · 21 citations · 8 references
Unsteady FlowElectrohydrodynamicsEngineeringFluid PropertiesPhysicsMeasurementNovel ApplicationFluid MechanicsElectrolyte FlowFlow PhysicMicrorheologyElectrolyte Pipe FlowFlow Rate MeasurementLorentz Force VelocimetryFlow MeasurementHydrodynamic Stability
We present a novel application of a contactless flow measurement system and validate its feasibility on an electrolyte pipe flow. The device relies on the technique of Lorentz force velocimetry (LFV). LFV operates without any contact to either the fluid or the surrounding pipe walls. This is advantageous if the fluid under consideration is hot and aggressive, like a glass melt for example. Glass melts, however, have a very low electrical conductivity, resulting in Lorentz forces in the micronewton range. In order to resolve these tiny forces, we developed a measurement system based on the principle of deflection. Experiments on an electrolyte flow with an electrical conductivity of less than 20 S m−1 prove to be successful and to agree well with numerical simulations, and therefore show for the first time the applicability of LFV for fluids of such low conductivities.
8
GUIDE TO THE EXPRESSION OF UNCERTAINTY IN MEASUREMENT
Saudi Standard · 2006 · 6.5K citations
<i>An Introduction to Magnetohydrodynamics</i>
P. A. Davidson, E. V. Belova · American Journal of Physics · 2002 · 988 citations
Magnetism, Engineering, Physics +4
Tomographic PIV: principles and practice
Fulvio Scarano · Measurement Science and Technology · 2012 · 729 citations
André Thess, E. V. Votyakov, Yurii Kolesnikov · Physical Review Letters · 2006 · 186 citations · Full text
Magnetism, Engineering, Physics +14
Theory of the Lorentz force flowmeter
André Thess, E. V. Votyakov, Bernard Knaepen et al. · New Journal of Physics · 2007 · 127 citations · Full text