Increasing Performance of Spiral-Wound Modules (SWMs) by Improving Stability against Axial Pressure Drop and Utilising Pulsed Flow

Spacer-induced flow shadows and limited mechanical stability due to module construction and geometry are the main obstacles to improving the filtration performance and cleanability of microfiltration spiral-wound membranes (SWMs), applied to milk protein fractionation in this study. The goal of this...

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Published in:Membranes (Basel) 2023-09, Vol.13 (9), p.791
Main Authors: Kürzl, Christian, Hartinger, Martin, Ong, Patrick, Schopf, Roland, Schiffer, Simon, Kulozik, Ulrich
Format: Article
Language:English
Subjects:
axial pressure loss
Efficiency
Filtration
Flow characteristics
Flow stability
Flow velocity
Fractionation
Frequency variation
Friction
Mass flow
membrane performance
Membranes
Microfiltration
Milk
Milk proteins
module stability
Osmosis
Packaging
Pressure drop
Proteins
pulsed flow
Spiral wound modules
Telescoping
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description Spacer-induced flow shadows and limited mechanical stability due to module construction and geometry are the main obstacles to improving the filtration performance and cleanability of microfiltration spiral-wound membranes (SWMs), applied to milk protein fractionation in this study. The goal of this study was first to improve filtration performance and cleanability by utilising pulsed flow in a modified pilot-scale filtration plant. The second goal was to enhance membrane stability against module deformation by flow-induced friction in the axial direction (“membrane telescoping”). This was accomplished by stabilising membrane layers, including spacers, at the membrane inlet by glue connections. Pulsed flow characteristics similar to those reported in previous lab-scale studies could be achieved by establishing an on/off bypass around the membrane module, thus enabling a high-frequency flow variation. Pulsed flow significantly increased filtration performance (target protein mass flow into the permeate increased by 26%) and cleaning success (protein removal increased by 28%). Furthermore, adding feed-side glue connections increased the mechanical membrane stability in terms of allowed volume throughput by ≥100% compared to unmodified modules, thus allowing operation with higher axial pressure drops, flow velocities and pulsation amplitudes.
doi_str_mv 10.3390/membranes13090791
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subjects axial pressure loss
Efficiency
Filtration
Flow characteristics
Flow stability
Flow velocity
Fractionation
Frequency variation
Friction
Mass flow
membrane performance
Membranes
Microfiltration
Milk
Milk proteins
module stability
Osmosis
Packaging
Pressure drop
Proteins
pulsed flow
Spiral wound modules
Telescoping
title Increasing Performance of Spiral-Wound Modules (SWMs) by Improving Stability against Axial Pressure Drop and Utilising Pulsed Flow
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