Industrial scale mesofluidic particle separation

•Mesofluidic separators remove particles from turbulent pipe flows.•Flowrates up to 100 gpm demonstrated but faster flowrates remain possible.•98% of large particles removed for conditions explored.•Separation demonstrated in horizontal and vertical orientations. Here we explore the potential of a m...

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Veröffentlicht in:Chemical engineering and processing 2022-03, Vol.173, p.108795, Article 108795
Hauptverfasser: Pease, Leonard F., Philips, Nathan R., Serkowski, Jason, Veldman, Timothy G., Minette, Michael J., Burns, Carolyn A.
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container_end_page
container_issue
container_start_page 108795
container_title Chemical engineering and processing
container_volume 173
creator Pease, Leonard F.
Philips, Nathan R.
Serkowski, Jason
Veldman, Timothy G.
Minette, Michael J.
Burns, Carolyn A.
description •Mesofluidic separators remove particles from turbulent pipe flows.•Flowrates up to 100 gpm demonstrated but faster flowrates remain possible.•98% of large particles removed for conditions explored.•Separation demonstrated in horizontal and vertical orientations. Here we explore the potential of a mesofluidic separator that fits within industrial piping to remove large aspherical particles out of an abrasive slurry at fast flowrates. Mesofluidic separators have demonstrated separation of spherical particles at flowrates of ∼1 gpm (6.10−5 m3/s). Yet, the performance of these separators at flowrates achievable within industrial piping has not been explored. Here we evaluate the exiting flowrate split, large particle mass fraction, and pressure drop observed in a mesofluidic separator operating in a three-inch (0.076 m) tube carrying an abrasive and modestly non-spherical slurry at flows ranging from 35 to 100 gpm (0.0022–0.0063 m3/s). We find the flow through the separator and pressure drop both increase with flowrate, though the pressure drop remains modest. Only two feet (0.6 m) of inserts removed 97.6 ± 2.1% of large particles for conditions tested. Separation was demonstrated in both vertical and horizontal orientations with the horizontal orientation benefiting marginally from gravitational settling. [Display omitted]
doi_str_mv 10.1016/j.cep.2022.108795
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source ScienceDirect Journals (5 years ago - present)
subjects Additive manufacturing
Bump arrays
Filters
INORGANIC, ORGANIC, PHYSICAL, AND ANALYTICAL CHEMISTRY
Mesofluidic filter systems
Multiphase flow
Slurries
title Industrial scale mesofluidic particle separation
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