Two Layer Microfluidic
Two Layer Microfluidic - Related Videos
09:56
Layer-by-layer Collagen Deposition in Microfluidic Devices for Microtissue Stabilization
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Cited by 7 •
2015
The creation of functional microtissues within microfluidic devices requires the stabilization of cell phenotypes by adapting traditional cell culture techniques to the limited spatial dimensions in microdevices. Modification of collagen allows the layer-by-layer deposition of ultrathin collagen assemblies that can stabilize primary cells, such as hepatocytes, as microfluidic tissue models.
11:08
Revealing Electromechanical Control of Tissue Homeostasis Using a Two-Layer Microfluidic Device
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2025
Here, we present a protocol to fabricate a unique two-layer microfluidic device to study the electromechanical regulation of epithelial tissue homeostasis. The device applies static physiological electric currents perpendicular to the tissue plane, impacting cell-cell adhesion, proliferation, and extrusion. Live-cell imaging and mechanical stress measurements reveal mechanisms of these processes.
09:23
Imaging the Root Hair Morphology of Arabidopsis Seedlings in a Two-layer Microfluidic Platform
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Cited by 11 •
2017
This article demonstrates how to culture Arabidopsis thaliana seedlings in a two-layer microfluidic platform that confines the main root and root hairs to a single optical plane. This platform can be used for real-time optical imaging of fine root morphology as well as for high-resolution imaging by other means.
22:38
Chemotactic Response of Marine Micro-Organisms to Micro-Scale Nutrient Layers
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Cited by 3 •
2007
The fabrication of microfluidic channels and their implementation in experiments for studying the chemotactic foraging behaviour of marine microbes within a patchy nutrient seascape and the swimming behaviour of bacteria within shear flow are described.
10:35
Studies of Bacterial Chemotaxis Using Microfluidics - Interview
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Cited by 1 •
2007
FAQs
Separate fabrication allows each channel network to be formed before the layers are vertically aligned into one device. Alignment then places the fluid pathways in a controlled spatial relationship, while pressure-driven flow can be established in each network. This arrangement supports coordinated handling of fluids and biological environments without requiring both networks to be created as one undivided structure.
At the interface, diffusion and fluid exchange can connect the environments without eliminating their separation. A porous membrane can therefore support communication between adjacent compartments, allowing studies of how different cell populations or tissue-like regions respond across a boundary. This feature is especially relevant to co-culture and tissue-barrier models, where transport and signaling between compartments are central outcomes.
Pressure-driven flow and the arrangement of microscale channels provide control over how fluids move and mix, while diffusion across a membrane or shared interface can redistribute substances between layers. Together, these processes can generate defined chemical gradients rather than a uniformly mixed environment. Researchers can use those gradients to examine biological responses under changing local conditions.
They reproduce selected features of cellular and tissue microenvironments with more precise control over fluid conditions, compartment communication, and exposure to gradients. Conventional culture remains a useful reference, but a two-layer platform can add information about transport, signaling, and disease-related processes that depend on interactions between adjacent environments. The result is a complementary experimental model, not a replacement.
Researchers first prepare the two channel networks separately and align them. They then establish pressure-driven flow and, where relevant, use a porous membrane or shared interface to permit diffusion and fluid exchange. Biological compartments can subsequently be arranged for co-culture, barrier modeling, gradient generation, or organ-on-chip experimentation.
Co-culture in this format is suited to questions about communication between different cell types or tissue-like regions. Separate layers preserve distinct biological environments, while a membrane or shared interface permits diffusion and fluid exchange. This arrangement supports investigation of tissue barriers, transport, signaling, and disease-related interactions under controlled microscale conditions.
By placing biological environments in communicating layers, the platform can help examine transport, signaling, and responses associated with disease processes. Researchers can use controlled fluid conditions or chemical gradients while maintaining distinct compartments. This makes it possible to study how localized environments and cross-compartment communication contribute to biological behavior in a controlled microscale setting.