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Build human in vitro disease and infection models with the DynamicOrgan® System. An organ-on-a-chip system that will help you get greater and more meaningful insights into human biology swiftly and without capital spending.
The DynamicOrgan® System will include a peristaltic pump and a kit with all required consumables to get started with organ-on-chip technology in your own lab. The kit can be selected depending on the organ model or application that you would like to develop. Take a test to find out which DynamicOrgan® Developers Kit you need.










Organ-on-chip technology replicates the structure and function of human organs on miniaturized biochips. These advanced in vitro models simulate key physiological responses and tissue interactions, enabling human-relevant data generation for preclinical drug development and biomedical research.
Unlike standard 2D cell culture or animal models, organ-on-chip systems capture the complexity of human biology including perfusion, immune response, and microbiome interactions, offering a new level of predictive power for human applications.
Different flow patterns can be achieved through the perfusion of the tissues via microfluidic pumps: pulsatile and laminar – such as in the healthy human body. The perfusion provides a crucial mechanical stimulation on the surface of human cells, especially cells from the human blood vessel system (vasculature). These shear forces influence and stimulate receptor decoration on the cell surfaces and have consequently a profound impact on cellular behavior such as growth, signaling/ interaction and metabolism.
Biochips with cell culture chambers, biological or biocompatible artificial membranes and a variety of channel geometries provide the conceptual basis for organ-on-chip technology. The channels of such biochips are used to introduce human cells of an organ into the cell culture chamber, to arrange, combine and separate these cells in an in vivo-like fashion and to supply these cells continuously with nutrients. They provide a frame to implement in vivo-like flow patterns similar to the human blood stream inside an in vitro model.

The integrated membranes serve as scaffold to arrange human cells, to provide them structural support and a flexible substrate that can mediate mechanical stimulation. Here, complex tissues and tissue-tissue interfaces are created that facilitate intense cell-cell communication, signaling and transport processes.

The immune system is a critical component of the human body, playing a vital role in protecting against infections, eliminating diseased cells, and maintaining tissue homeostasis. Via integration of resident and circulating immune cells, organ-on-a-chip models can replicate the cellular complexity of the human immune system.
Complex organ models allow for the integration of a microbiome or pathogens to enable the establishment of complex disease and infection models.
Tissue Barrier Models/ Transport Studies
Immune Cell Perfusion & Migration
Drug Safety Profiling
Preclinical Drug Development
Antibody Safety and Target Profiling
Host Microbial Interactions
Disease & Infection Modelling

In this short video, our scientist Anne demonstrates the components that are part of the DynamicOrgan® System. She explains how to assemble the system and gives an introduction into the steps conducted in the lab to set up an organ model. Showcasing steps such as biochip sterilization, cell seeding, perfusion set up and visualization under the microscope.


Peristaltic Pump
DynamicOrgan® Developers Kit of your choice
We’d love to help you find the exact product you need to build your organ model of choice. The tool below will guide you through a series of questions to help you find the right product.