Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983
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  • Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983
  • Use case scenario for Fluidic 983
  • Use case scenario for Fluidic 983
  • Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983
  • Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983
  • Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983
  • Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983
  • Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983
  • Channel Interaction Chip - Cell-cell interaction and more - Fluidic 983

Description

The channel interaction chip has been developed to study cells co-cultured in three adjacent channels, to each of which a microfluidic flow can be applied. The three channels are divided from each other by transmissive pillar barriers. On each channel interaction chip five independent co-culture units can be found, which differ in the width of the pillar barrier. One potential co-culture setting is the use of the two outer channels in perfusion mode, while the inner channel can be easily filled with a cell- containing gelatinous extracellular matrix, for static 3D culture conditions.

Channel Interaction Chip Cell-cell interaction and more Fluidic 983

The channel interaction chip is the perfect tool to study cells co-cultured in three adjacent channels.

Material
Surface Treatment
€36.20 / unit
€24.30 / unit from 10 units
€16.10 / unit from 100 units
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Reference
10001345
Design element
Channel, Chamber, Pillar, Barrier
Application
Cell culture, Sorting
Usage Statement
For R&D use only, Single use
Fluidic
983
Material
Topas
Material chip body
Mcs-COC 13
Material chip lid
Mcs-foil 011 (Topas, 140 µm, Tg 78°C)
Color
Transparent
Interface type
Mini Luer interface
Surface treatment
Not treated
Membrane
No membrane
Pieces per unit
1

Description

The channel interaction chip has been developed to study cells co-cultured in three adjacent channels, to each of which a microfluidic flow can be applied. The three channels are divided from each other by transmissive pillar barriers. On each channel interaction chip five independent co-culture units can be found, which differ in the width of the pillar barrier. One potential co-culture setting is the use of the two outer channels in perfusion mode, while the inner channel can be easily filled with a cell- containing gelatinous extracellular matrix, for static 3D culture conditions.

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