Shear Flow

BioFlux Systems

In Vivo Biology Isn't Static. Why Are Your Assays?

BioFlux enables you with the power to introduce physiological and pathological shear flow to your research and drug discovery experiments, effectively emulating in vivo conditions and revealing the true biology.
Cancer interaction with endothelial cells

How BioFlux Works

Unlock High-Throughput, Physiologically Relevant Shear Flow Assays

The Next Generation of BioFlux Shear Flow Systems

The new BioFlux 200+ and BioFlux 1000HT enhance the production of physiologically accurate and reproducible data by including pulsatile flow and dual gas capabilities, at a better price than before.

The BioFlux Solution for Your Existing Microscope
BioFlux 200+ with updated faceplate

The BioFlux 200+ offers all of the benefits of an easy-to-use and flexible system while being compatible with most inverted microscopes. It provides a high-content screening platform for running physiologically-relevant shear flow assays.

A shear flow system that seamlessly incorporates into your existing lab setup.

The Completely Customizable BioFlux Solution for Ultimate Imaging Flexibility
bioflux 100HT

The BioFlux 1000HT offers nearly unlimited flexibility with respect to microscope options, software analysis, and image capture. It provides a high content screening platform for running physiologically-relevant shear flow assays.

The ultimate turnkey solution for imaging flexibility and capability.

BioFlux Applications

Antimicrobial Screens

Analyze effectiveness of novel antimicrobials on biofilm growth under shear flow

Biofilms

Anti-biofilm drugs discovery and treatment

Cancer Research Applications

Create two adjacent micro-environments to analyze cell migration and invasion.

Cell Adhesion & Rolling

Visualize and quantify the leukocyte adhesion cascade over time using time-lapse microscopy

Host-Pathogen Interactions

Form fungal and bacterial biofilms on epithelial monolayers in vitro

Medical Device Infections

PDMS and custom microfluidic plates mimic medical device infection environment

Platelet Aggregation & Adhesion

Study the mechanisms of thrombus formation and treatment strategies under biological flow

Vascular Biology

Image properly aligned endotheial cells, examine cell permeability, and more

More Samples, Less Spend

Save Time and Money

Slide-based parallel plate flow chambers may seem like a good way to enhance the physiological relevance of your experiments; however, the setup, validation, and consumable costs can be a burden.

BioFlux Shear Flow Systems streamline physiological assays with rapid setup and zero calibration, at a fraction of typical consumable costs.

Calculate Your Savings

Enter Number of Samples

BioFlux System

Plates Used* (48-well plate)
0.00
Cost per sample
0.00
Experimental Cost
0.00

VS

Slide-based System

Slide cost
0.00
Perfusion Assembly Cost
0.00
Cost per sample
0.00
Experimental Cost
0.00
0.00

* Unused wells can be saved for future experiments

Watch a Demonstration

Watch a live virtual demonstration of a BioFlux Shear Flow System in action.

What Customers Say

See the Cellular Impact of Shear Flow
Here are just a few aspects of cells and organisms that are impacted by physiological shear flow

BioFlux FAQs

Whole blood shear flow experiments can be performed using a microfluidic platform that applies controlled shear stress while supporting real-time imaging and biologically relevant surfaces. The BioFlux Shear Flow System enables whole blood perfusion through plate-based microchannels, making it possible to study adhesion, thrombus formation, and other blood-cell interactions under physiologic flow conditions.

Vascular-endothelium microenvironments can be studied by culturing endothelial cells in microfluidic channels and exposing them to defined shear stress that mimics blood flow. The BioFlux Shear Flow System supports endothelial cell coatings, controlled flow profiles, and live-cell imaging, helping researchers model vessel-like environments in vitro with greater physiological relevance.

Downstream genomic analyses after shear flow experiments can be done by exposing cells to controlled flow, then recovering those cells for RNA extraction, sequencing, or other molecular workflows. With the BioFlux Shear Flow System, researchers can perform shear flow studies in a reproducible microfluidic environment and then collect samples for downstream genomic analysis to connect mechanical stimulation with gene-expression changes.

Shear stress affects endothelial cells by regulating morphology, alignment, barrier function, inflammation, and gene expression. Using the BioFlux Shear Flow System, researchers can apply defined shear conditions to endothelial cells in vitro and observe how flow influences endothelial behavior in ways that are more representative of the vascular microenvironment.

Biofilms can be grown under shear stress by using a flow-based culture system that continuously exposes microbial communities to controlled fluid movement. The BioFlux Shear Flow System allows researchers to grow and image biofilms under reproducible shear conditions, helping them study adhesion, maturation, structure, and treatment response in a more realistic environment than static wells.

The physiological relevance of biofilm studies can be increased by incorporating shear stress, continuous nutrient flow, and surface conditions that better reflect real biological environments. The BioFlux Shear Flow System improves biofilm model relevance by enabling controlled shear flow in microfluidic channels, which better mimics the conditions biofilms experience in vivo than traditional static assays.

Platelet activation under shear stress can be studied by perfusing blood or platelet-containing samples through coated microchannels under defined flow conditions. The BioFlux Shear Flow System makes it possible to evaluate platelet adhesion, activation, and thrombus formation under controlled shear stress with image-based analysis in a microfluidic format.

Platelet aggregation studies become more physiologically relevant when they include shear stress, vascular-like surfaces, and dynamic flow rather than static incubation alone. The BioFlux Shear Flow System helps create more biologically meaningful platelet aggregation assays by reproducing flow conditions that influence platelet behavior in circulation.

Yes! BioFlux controllers measure 12.5 in (31.75 cm) width x 9.5 in (24.13 cm) height x 13 in (33.02 cm) length (not including tubing and interface), which easily fits into most laminar flow hoods. In addition, all BioFlux plates are individually sterile packaged. Furthermore, because BioFlux systems use pneumatic pressure to drive shear flow, there is no contact between the interface or tubing with anything on the BioFlux plate. This means that the BioFlux tubing remains clean and does not need to be cleaned or changed between experiments.

Because BioFlux plates are Society for Biomolecular Screening (SBS) standard size, BioFlux systems are compatible with most inverted microscopes.

No, every BioFlux plate comes with a sterile adhesive sheet that can be placed on the plate as soon as it is opened. The user can then simply pierce the sheet for the wells that will be used for the experiment, saving the unused wells for later experiments.

All BioFlux systems include standard BioFlux Control Software. Advanced analysis can be performed using BioFlux Montage Plus software, which can be purchased anytime for BioFlux 200+. BioFlux Montage Plus software is standard with BioFlux 1000HT. Furthermore, BioFlux data can easily be exported to the analysis software of your choice. 

All BioFlux controllers are standardly equipped with heating plate connections. However, a glass bottom heating plate (200+) or a heating adapter for the microscope stage (1000HT) must be purchased separately.   

Heating options for either BioFlux 1000HT or BioFlux 200+ can easily be added at any time. BioFlux Montage Plus software is standard for BioFlux 1000HT systems and can be purchased separately for BioFlux 200+ systems. Additional features, including pulsatile flow and dual gas are now standard features of all BioFlux Shear Flow Systems.

 

BioFlux FAQs

What is the BioFlux Shear Flow System and what is it used for?
The BioFlux Shear Flow System is an automated microfluidic platform developed by Cell Microsystems for physiological shear flow experimentation. It is designed to support reproducible flow-based experiments across a range of applications including platelet aggregation, coagulation research, biofilm studies, vascular biology, and endothelial cell research. The system uses programmable flow conditions delivered through plate-based microfluidic channels, and is compatible with standard inverted microscopes for live-cell imaging.
Why might static culture be insufficient for vascular biology or biofilm research?
Static culture removes a critical variable — fluid shear stress — that governs how cells and microorganisms behave in vivo. In vascular biology, endothelial cells respond differently under flow than in static conditions, and platelet activation, leukocyte adhesion, and coagulation are inherently shear-dependent processes. In biofilm research, static assays produce immature biofilm structures that may not reflect the architecture or drug resistance profiles of biofilms formed under flow. The BioFlux Shear Flow System is designed to introduce physiologically relevant shear conditions to these workflows.
How does shear stress affect endothelial cells?
Shear stress influences endothelial cell morphology, alignment, barrier function, inflammatory response, and gene expression. Using the BioFlux Shear Flow System, researchers can apply defined shear conditions to endothelial cells in vitro and study how flow influences endothelial behavior in ways more representative of the vascular microenvironment.
How can I study platelet activation under shear stress?
Platelet activation under shear stress can be studied by perfusing blood or platelet-containing samples through coated microchannels under defined flow conditions. The BioFlux Shear Flow System makes it possible to evaluate platelet adhesion, activation, and thrombus formation under controlled shear stress with image-based analysis in a microfluidic format.
How can I grow biofilms under shear stress?
Biofilms can be grown under shear stress by using a flow-based culture system that continuously exposes microbial communities to controlled fluid movement. The BioFlux Shear Flow System allows researchers to grow and image biofilms under reproducible shear conditions, helping them study adhesion, maturation, structure, and treatment response in a more realistic environment than static wells.
What shear stress range does the BioFlux system support?
The BioFlux system supports a shear stress range of 0 to 200 dyn/cm², covering both venous and arterial flow conditions. This range is designed to allow researchers to model a broad spectrum of physiological and pathological flow environments relevant to vascular biology, platelet research, biofilm studies, and other flow-dependent workflows.
scroll

Contact Us

If you need support for a product, please submit a support request.