Versatile 3D Stretchable Micro-Environment for Organ-on-Chip Devices Fabricated with Standard Silicon Technology
AssigneeBiond Solutions B.V.
InventorsNikolas Gaio, William Quiros Solano
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Abstract
The present invention is in the field of microfluidic devices produced with silicon technology wherein at least one 3D microenvironment is present, a method of producing said device using silicon based technology, and a use of said device in various applications, typically a biological cell experiment, such as a cell or organ on a chip experiment, and use o the device as a microreactor.
Claims20
1-25. (canceled)
Micro-fluidic Device comprising
- (a) microfluidics embedded in an optically transparent polymer supported film, the film comprising
- a 0.05-30 μm thin polymer top layer, and
- a 50-2000 μm polymer bottom layer in contact with the polymer top layer, and comprising at least one of a second micro-channel and one second micro-chamber at least partly embedded in the polymer bottom layer,
- (b) microfluidics embedded in a rigid substrate in microfluidic contact with the top layer of the polymer based microfluidics and the substrate supporting the polymer based microfluidics,
- wherein the substrate based microfluidics are accessible and/or can be made accessible for use of the device, and wherein the substrate is silicon or dielectric on silicon, comprising
- at least one of a first micro-channel and a first micro-chamber at least partly embedded in the substrate, wherein at least one of the first micro-channel and the first micro-chamber embedded in the substrate is accessible from the outside, wherein the polymer top layer is for separating at least one of the first micro-channel and at least one of the first micro-chamber embedded in the substrate from at least one of the second micro-channel and at least one of the second micro-chamber embedded in the polymer bottom layer, and at least one input,
- the input being in microfluidic contact with the at least one of the second micro-channel and the second micro-chamber embedded in the polymer bottom layer, and
- the polymer top layer separating at least one of the first micro-channel and the first micro-chamber embedded in the substrate from at least one of the second micro-channel and the second micro-chamber embedded in the polymer bottom layer at least partly by a matrix of holes therein.
Method according to claim 11, wherein the polymer layers are each independently made from a material selected from a biopolymer, polyimides, and parylene, and biodegradable polymers, and combinations thereof.
Dependencies are inferred from the claim text.