This paper focuses on the effect of physical characteristics of filter media and flow-through rates on the clogging of stormwater filters.
The quadrupole design was tested with polystyrene latex microbeads, and Ishikawa cancer cells suspended in media and flowed through microfluidic channels made from PDMS.
The analysis is useful for efficient design of microfluidic devices and flow through porous media.
Rheological measurements were performed in simple shear flow, oscillatory shear flow, opposed-jets flow and flow through porous media.
Porous media heat transfer problems have several engineering applications, such as geothermal energy recovery, crude oil extraction, ground water pollution, thermal energy storage, and flow through filtering media.
These aspects represent a combination of several problems, which are usually undertaken in a separate way, uncoupling mechanical response and flow through the porous media.
Also, a multi-step elementary heterogeneous reaction mechanism for the thermo-catalytic H2 electrode chemistry, dusty-gas model to account for multi-component diffusion through porous media, and plug flow model for flow through the channels are used.
Computational fluid dynamics analyses predicted that cells on fully porous substrates experience time-dependent shear stresses that differ from those experienced by cells on porous-coated substrates with solid bases where media flow-through is restricted.
Incorporation of nutrient channels into large constructs is a promising technique for alleviating transport limitations, in conjunction with simple yet effective methods for enhancing media flow through channels.
We therefore explored a method for exposing the entire construct surface to the culture media, while promoting flow through the channels.
