BioFlux One | BioFlux 200 | BioFlux DCIS | BioFlux 1000z | |
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Standard Features | ||||
Fits In Hood | N/A | |||
Temperature Control | ||||
Well Plate Format | ||||
Microscope Configuration | ||||
Analysis Software | ||||
Montage Software | ||||
Parallel Flow Assays *With BioFlux Quattro add-on |
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Phase Flow | ||||
Autofocus | ||||
Cameras | ||||
Epifluorescence | ||||
Filter Cubes | ||||
Onstage Incubator | ||||
Fluorescence Channels | ||||
Included Objectives | ||||
Endpoint & Live-Cell Imaging | ||||
Automated Plate Scanning | ||||
Cellular Analysis
BioFlux Systems

Your Lab Partner for Physiological Live Cell Assays
Many physiological processes take place under flow conditions: blood flowing through the vasculature; cancer cells circulating throughout the body; CAR-T cells migrating through the endothelium; biofilms forming in lung infections. Despite this, most research is still conducted in vitro without the presence of flow. BioFlux from Fluxion Biosciences gives you the ability to introduce physiological shear flow to your research and drug discovery experiments, effectively emulating in vivo conditions and revealing the true biology.
- Bridge the gap between in vitro and in vivo experiments with controlled,
physiological shear flow up to 200 dyne/cm² - Study adhesion, rolling, and transmigration across cell monolayers
- Achieve high throughput with up to 96 flow cell assays run in parallel
- Benefit from well plate simplicity – BioFlux plates are standard format,
pre-sterilized, no tubing to change; sample only touches the consumable plate - Acquire better images: glass bottom plates for superior imaging quality or
custom options for more complex experimentation - Enhance your experiments: capability for controlled gas (hypoxia, etc.),
dual gas, and temperature-controlled experiments - Expand your capabilities: Two-phase flow experiments create the opportunity to
easily perform sophisticated assays such as chemotaxis and migration
BioFlux Experiment Videos
Your Lab Partner for Physiological Live Cell Assays
Many physiological processes take place under flow conditions: blood flowing through the vasculature; cancer cells circulating throughout the body; CAR-T cells migrating through the endothelium; biofilms forming in lung infections.
It is now well established that flow has a profound impact on cell function, yet much research is still conducted in vitro without the presence of flow. BioFlux from Fluxion Biosciences gives you the ability to introduce physiological shear flow to your research and drug discovery experiments, effectively emulating in vivo conditions and revealing the true biology.
Core Technology
See how BioFlux uses microfluidics to emulate physiological shear flow in an in vitro model and in a convenient well-plate format.
Application Areas
Shear stress plays an important role in creating physiologically-relevant models to answer fundamental questions in cellular biology. In drug discovery and development, BioFlux helps ensure that only the most promising compounds will be passed through to clinical trials, saving tremendous time and expense versus conventional screening methods.
Choose the best BioFlux solution for your needs
BioFlux systems come in different configurations to match laboratory and project needs. Download the product brochure and the selection guide to research your ideal system.
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Resources Library & Support Center
Visit our library of application notes, webinars, live demos, posters and publications featuring BioFlux technology.
For additional support, customers can access our support site for operation technical guides, cell culture optimizations, software updates, pre-recorded training, and troubleshooting guides.
Customer Spotlight
Modeling of Catheter-Associated Infection
BioFlux was used in a recent study modeling catheter-associated infection by using BioFlux microfluidics to mimick the in vivo conditions of urinary catheters. In their lab, the BioFlux 200 system has been used to evaluate the efficacy of poloxamers in reducing E. coli adhesion under controllable shear forces by exploiting BioFlux silicone microfluidic flow channels, thus mimicking the in vivo conditions of urinary catheters in terms of both flow conditions and catheter material.
