Organ on Chip Perfusion Pack
The perfect set for high throughput cell perfusion/Organ on chip perfusion.
The perfect setup for liquid handling in Organ on Chip experiments.
Fluigent has joined with BEOnchip to offer complete solutions for organ-on-chip applications combining innovative, robust, and easy-to-use chips with high-performance instruments.
This Organ on Chip Perfusion Pack allows users to obtain stable medium perfusion through the controlled and stable flow of multiple solutions into the microfluidic chip, combining a bidirectional microfluidic flow sensor and a microfluidic pressure-based flow controller. Users can perform and monitor their organ-on-a-chip experiment using our OxyGEN software interface. The software automates the experiment and fine-tunes the flow parameters.
- Designed for cell biology
- Easy to use
Features of the Organ on Chip Perfusion Pack
Cell seeding in 3D hydrogel presents challenges.. Hydrogels are fragile and can easily fracture or detach from the chip if the flow is unstable.
Manual cell seeding is not recommended as the discontinuous flow results in heterogeneous cell seeding and can crack the hydrogel.
The manual mode of the Flow EZ is perfect to circumvent these limitations as it allows the implementation of small flow rate increments while keeping an eye on the microscope.
Generate complex flow patterns
Control flow rate or pressure for applications with constant shear stress such as vascular perfusion.
Reproduce complex flow patterns such as aortic pressure variations while maintaining a unidirectional flow in the chip.
Once the parameters are set and optimized, protocol automation saves time, limits contamination, and decreases variability.
Valves, pressure, and flow controllers from Fluigent can be assembled to automate any protocol using user-friendly software (OxyGEN).
Fluigent’s Organ on Chip package is customizable to fit the needs of specific flow rates and pressures.
Main products of the cell perfusion pack
Organ on Chip Perfusion Pack: Applications
Organ-on-chip studies are gauging interest from the scientific community due to their ability to mimic an in-vivo environment in a precise and controlled manner. In particular, introducing shear stress through flow control and reproducing biochemical environments in cell cultures was made possible due to advances in the organ on chip technologies.
The Organ on Chip Perfusion Pack will allow users to control both pressure and flow rate, switch between media and drugs, obtain a stable and pulseless flow rate, have a large range of flow rates, and customize and create complex patterns.
By combining microfluidic technology, micromachining, and cell biology, environmental parameters can be precisely controlled on organs-on-chips. This may generate fluid shear stress, mechanical stress, biochemical concentration gradients and other physical and chemical stimuli. The cells on the chip can respond to these stimuli, develop self-organization, and express more realistic physiological functions like exhibiting special advantages in the establishment of an in vitro physiological model.
Cell culture under flow
Cultivating cells under flow perfusion has two main advantages: constant medium renewal and reproduction of mechanical strain in vitro. To grow cells under perfusion using a cell perfusion pack, we recommend using the BE-Flow chip.
Cells are constantly exposed to biochemical stimulation from the early embryonic stage to adult life. The spatiotemporal regulation of these signals is essential as it determines cell fate, phenotype, metabolic activity as well as pathological behaviors. Biochemical stimulation is also central in oncology as it drives the migration and expansion of malign tumors.
To study chemotaxis in 3D hydrogel we recommend using BE-GRADIENT.
Co-culture under perfusion
With the Organ on Chip Pack it is possible to perform co-culture under perfusion. Co-culture under perfusion is essential for various applications for the following reasons:
- To fully differentiate given cell types, coculture with another cell type is required
- In cosmetics or drug testing to reproduce interfaces link skin, lung or gut and monitor the uptake of active molecules
- To reproduce liquid-liquid or air-liquid interfaces.
The BE-Doubleflow chip best fit applications in organ-on-chip cell perfusion as a porous membrane separates the central chamber into two channels.
Transwell under flow
Transwells are classic devices widely used in standard cell culture to co-culture cell types, reproduce 2D-2D interfaces, 3D-2D interfaces, study cell invasion, assess monolayer permeability or active molecule uptake.
However, Transwell devices use large volumes of liquid, and communication is therefore slow and low concentration, signalling factors are diluted, which altogether hampers studying cellular communication. Furthermore, the culture is entirely static, which precludes emulation of dynamic processes and the application of controlled cell biochemical and/or physical stimuli.
Using a microfluidic format can solve some of these issues by offering sub-milliliter volumes, dynamic culture, and exquisite spatiotemporal control over physical and chemical parameters in the cell/tissue vicinity.
For this application, we recommend the BE-Transflow
Cell culture with regulated Shear Stress
Mechanical forces are potent regulators of cellular structures and functions in both health and disease. As a result of their unique location, endothelial cells experience several mechanical forces.
Of these forces, shear stress is particularly important as it stimulates the release
of vasoactive substances and changes gene expression, cell metabolism, and cell morphology.
To grow cells under regulated shear stress, we recommend the BE-FLOW
|LineUp Flow EZ pressure controller|
|LineUp LINK Module (software control)|
|BEOnChip microfluidic chip|
|Fluigent connectors and tubing kit|
|Control in real-time, protocol automation, data record and export|
|ver. 22.214.171.124 or more recent|
Software Development Kit
|Custom software application|
|ver. 126.96.36.199 or more recent|
Connect the chip to the microfluidic system
Switching from static culture to fluid perfusion