Functionality integration in stereolithography 3D printed microfluidics using a "print-pause-print" strategy.
Matthieu SagotTimothée DerkennePerrine GiunchiYohan DavitJean-Philippe NougayrèdeCorentin TregouetVincent RaimbaultLaurent MalaquinBastien VenzacPublished in: Lab on a chip (2024)
Stereolithography 3D printing, although an increasingly used fabrication method for microfluidic chips, has the main disadvantage of producing monolithic chips in a single material. We propose to incorporate during printing various objects using a "print-pause-print" strategy. Here, we demonstrate that this novel approach can be used to incorporate glass slides, hydrosoluble films, paper pads, steel balls, elastic or nanoporous membranes and silicon-based microdevices, in order to add microfluidic functionalities as diverse as valves, fluidic diodes, shallow chambers, imaging windows for bacteria tracking, storage of reagents, blue energy harvesting or filters for cell capture and culture.
Keyphrases
- single cell
- light emitting
- high throughput
- circulating tumor cells
- high resolution
- aortic valve
- heart failure
- room temperature
- ionic liquid
- aortic valve replacement
- liquid chromatography
- coronary artery disease
- mass spectrometry
- transcatheter aortic valve replacement
- label free
- bone marrow
- tissue engineering
- ejection fraction