Flexible, pore-based magnetic filters integrate into microfluidic channels to capture and release magnetically tagged targets using an external magnetic field.
A three-layer microfluidic device parallelizes many droplet makers while maintaining controlled fluid delivery through deep supply channels and through-hole interconnections.
Magnetic pore filters in microfluidic devices enable capture, release, and analysis of magnetically tagged particles, including cells and exosomes.
The technology provides microfluidic devices and methods that analyze droplet signals using mask-patterned passages and a detector.
A parallelized microfluidic system forms and cures microgels on-chip to increase production throughput while enabling control over particle size, shape, and mechanical properties.
A silicon microfluidic chip and fabrication method enable densely integrated vias for parallel droplet generation on a single wafer.
Leveraging open-source AI platforms, this technology enables automated image-based detection, prediction, and control of microfluidic single bubble/droplet formation.
Microfluidic device for generation of large, precisely-defined, diverse lipid nanoparticle libraries for screening LNP formulations.
A method to generate homogenous and stable inorganic nanoparticles (NPs) using a microfluidic device with two jet inlets.
An optofluidic platform to detect extracellular vesicles (EVs) at the single-particle level by parallelizing droplet generation and analysis of EVs.