Fabrication of optofluidic and microfluidic devices
Scope of the method
- Animal health
- Human health
- Basic Research
- Translational - Applied Research
- In silico
- Animal derived cells / tissues / organs
- hot embossing
- micro-injection moulding
- 3D nanoprinting
- free-form optics
Prototyping and replication (small series production) of microfluidic or optofluidic devices, in thermoplastic polymers or in glass. 3D nanoprinting is also available to produce microscaffolds, possibly within microfluidic channels.
- Ultraprecision diamond tooling,
- High-precision milling and grinding,
- High-precision polishing,
- Hot embossing,
- (micro-)injection moulding,
- Glass press moulding,
- Two-photon polymerization-based 3D nanoprinting,
- Femtosecond laser glass machining.
- Internally validated
- Published in peer reviewed journal
Pros, cons & Future potential
Custom-designed labs-on-chips can be fabricated (prototyped, or produced in small series), potentially including photonics structures (e.g. waveguides, lenses, ...) to allow for optical read-out integration. In addition, the produced optofluidic devices can be enhanced with 3D nanoprinting to produce custom scaffolds (e.g. for cell growth). In terms of materials, thermoplastic polymers (PMMA, PC, COC) or glass can be used.
Sealing of microfluidic channels is sometimes challenging. Depending on the material used, several approaches are possible (laser welding, thermal bonding, chemical bonding,...).
Our fabrication technologies are very flexible and allow a large design freedom.
The fabrication technologies are also used in other areas, such as high-end free-form optics for imaging or non-imaging applications.
References, associated documents and other information
Contact personJürgen Van Erps
OrganisationsVrije Universiteit Brussel
Applied Physics and Photonics