High electrorheological effect in Bi1.8Fe1.2SbO7 suspensions

We report on the first experimental evidence of the electrorheological effect in suspensions of superfine pyrochlore-type Bi1.8Fe1.2SbO7 powders. Tensile-compressive and shear stress studies of the electrorheological fluids, with various filler contents, revealed an exceptionally high electrorheolog...

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Veröffentlicht in:Powder technology 2020-01, Vol.360, p.96-103
Hauptverfasser: Egorysheva, A.V., Kraev, A.S., Gajtko, O.M., Kusova, T.V., Baranchikov, A.E., Agafonov, A.V., Ivanov, V.K.
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container_end_page 103
container_issue
container_start_page 96
container_title Powder technology
container_volume 360
creator Egorysheva, A.V.
Kraev, A.S.
Gajtko, O.M.
Kusova, T.V.
Baranchikov, A.E.
Agafonov, A.V.
Ivanov, V.K.
description We report on the first experimental evidence of the electrorheological effect in suspensions of superfine pyrochlore-type Bi1.8Fe1.2SbO7 powders. Tensile-compressive and shear stress studies of the electrorheological fluids, with various filler contents, revealed an exceptionally high electrorheological effect in the materials – the tensile yield strength at 5kV/mm reached about 20kPa. The frequency dependencies of dielectric permittivity, dielectric loss tangent, and the conductivity of the suspensions with various filler contents allowed estimation of the dielectric permittivity values for superfine Bi1.8Fe1.2SbO7 particles at zero and infinite frequencies. The study reveals new oxide materials as promising fillers for electrorheological fluids. [Display omitted] •Bi1.8Fe1.2SbO7 powder was synthesized using a low-temperature approach.•Bi1.8Fe1.2SbO7 suspensions in silicone oil demonstrated a high electrorheological effect.•Dielectric permittivity values for Bi1.8Fe1.2SbO7 powders were estimated.
doi_str_mv 10.1016/j.powtec.2019.10.027
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subjects Complex bismuth oxides
Compressive properties
Dielectric loss
Dielectric properties
Dielectrics
Electrorheological effect
Electrorheological fluids
Fillers
Nanoparticles
Permittivity
Pyrochlore
Shear stress
Ultrafines
Yield strength
title High electrorheological effect in Bi1.8Fe1.2SbO7 suspensions
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