Microfluidic Application Notes

Fluigent’s broad range of solutions for nanofluidic and microfluidic application note, both in scientific research and the industrial/OEM sector, offer greater control, automation, precision, and ease of use. Whether your application features droplets, cell biology, particle studies, or other research areas, we have the expertise and knowledge to provide the most cost effective and technically advanced solutions for your fluid control needs. Our first class flow control technology integrates in many biomedical research fields as it provides stable flow with high control and precision, which is already documented in various research articles, application notes, or congresses. This page features numerous microfluidic application notes that can help you with your setup and experiments. You will find tutorials, accompanied by an extensive and varied literature search, explaining the step by step process of how to perform the experiment optimally and efficiently, as well as the results obtained and the conclusion drawn from the experiment. Other applications may be developed with the product's brand provided by Fluigent. Have you published a paper using Fluigent products? Contact us at contact@fluigent.com and we will reference it on our site!

Microfluidic Application Notes

Ensuring Quality Control in Micro-Scale Devices by Innovative Leak Detection Method

Omi, automated organ-on-chip platform, the Gut-on-chip model development

Endothelial Cell Culture Under Shear Stress Using Omi

Creating Microcapsules With PEGDA Hydrogel

Automating calcium imaging in neural cells with Fluigent’s Aria

1-10 microns PLGA microsphere production using the RayDrop

Automating Neuronal Cell Immunofluorescence in Microfluidic Chips

Pressure predictions for lab-on-chip operations using a microfluidic network solver and Fluigent PX

A quick and efficient double encapsulation method for FACS-based droplet sorting

Long-term fluid recirculation system for Organ-on-a-Chip applications

Automated Immunofluorescence using Aria

What is the best method for Microencapsulation of Bacteria and Yeast in Small Double Emulsions?

Encapsulation of Cells In Small Double Emulsions

Alginate Microcapsule Synthesis

Agarose Microcapsules Synthesis

PLGA nanoparticle synthesis using 3D microfluidic hydrodynamic focusing

Encapsulation of multiple emulsions in a single droplet

Microbubble formation using the RayDrop

Development of a human gut-on-chip to assess the effect of shear stress on intestinal functions

PLGA microcapsules synthesis

Pressure predictions for lab-on-a-chip operations using a microfluidic network solver and Fluigent PX

Droplet and particle manipulation using electrophoretic flow control

Liposome Nanoparticle Synthesis

High-throughput cell DNA screening using digital PCR

Cartilage-on-a-chip, an example of complex mechanical stimulation using Fluigent’s technology

PLGA Microparticles Synthesis

E. Coli Culture in Droplets Using dSURF Fluorosurfactant

Droplet Sequencing: Drop-Seq method

Single cell sorter microfluidic platform

Microbiome culture in droplet using dsurf surfactant

Microfluidic Chitosan Microcapsules Production

Generating a water emulsion in an oil solution using a droplet generator chip

Alginate Microbeads Production

Double Emulsion Generation

Assess Cell Proliferation Using Pressure as a Tool

Capillary electrophoresis using microfluidic, electrophoretic, and optic modules

Microfluidics for Transmission Electron Microscopy: Characterization of Copper Electrodeposition

Analysis of a commercial surfactant for digital PCR assay

UV-Crosslinking of Microparticles

UV-Crosslinking of Microcapsules

Water in Fluorocarbon Oil Emulsions

Water in Oil Emulsions

Oil in Water Emulsions

Impedance Measurement of Microbeads

Peristaltic Pump vs Pressure-Based Microfluidic Flow Control for Organ on Chip applications

Cancer Cell Analysis Made Easy with Aria: cell Capture and Labeling