Electrochemical impedance spectroscopy (EIS) is a noninvasive, reliable, and efficient method to analyze the barrier integrity of in vitro tissue models. This well-established tool is used most widely to quantify the transendothelial/epithelial resistance (TEER) of Transwell-based models cultured under static conditions. However, dynamic culture in bioreactors can achieve advanced cell culture conditions that mimic a more tissue-specific environment and stimulation. This requires the development of culture systems that also allow for the assessment of barrier integrity under dynamic conditions. Here, we present a bioreactor system that is capable of the automated, continuous, and non-invasive online monitoring of cellular barrier integrity ...
In multicellular organisms epithelial and endothelial cells form selective permeable interfaces betw...
A multichannel microfluidic platform for real-time monitoring of epithelial barrier integrity by ele...
We have developed a bilayer microfluidic system with integrated transepithelial electrical resistanc...
Transepithelial/transendothelial electrical resistance (TEER) measurements can be applied in organ-o...
The generation of physiologically relevant in-vitro models of biological barriers can play a key rol...
Physiological barriers are located at the interface between the organism and the outside world or li...
Electrochemical impedance spectroscopy (EIS) is widely accepted as an effective and non-destructive ...
Physiological barrier have a fundamental role in human homeostasis, as they are the main gate for th...
Biological barriers are essential for the maintenance of organ homeostasis and their dysfunction is ...
Here, we present a novel, cleanroom-free way of integrating electrodes in a typical poly(dimethylsil...
Here, we describe methods for combining impedance spectroscopy measurements with electrical simulati...
Organs-on-chips, in vitro models involving the culture of (human) tissues inside microfluidic device...
The aim of this work of thesis was to contribute to the engineering of physiologically relevant in-v...
A bio-impedance chip has been developed for real-time monitoring of the kinetics of epithelial cell ...
The lack of reliable human physiology models in vitro combined with an ever-increasing set of health...
In multicellular organisms epithelial and endothelial cells form selective permeable interfaces betw...
A multichannel microfluidic platform for real-time monitoring of epithelial barrier integrity by ele...
We have developed a bilayer microfluidic system with integrated transepithelial electrical resistanc...
Transepithelial/transendothelial electrical resistance (TEER) measurements can be applied in organ-o...
The generation of physiologically relevant in-vitro models of biological barriers can play a key rol...
Physiological barriers are located at the interface between the organism and the outside world or li...
Electrochemical impedance spectroscopy (EIS) is widely accepted as an effective and non-destructive ...
Physiological barrier have a fundamental role in human homeostasis, as they are the main gate for th...
Biological barriers are essential for the maintenance of organ homeostasis and their dysfunction is ...
Here, we present a novel, cleanroom-free way of integrating electrodes in a typical poly(dimethylsil...
Here, we describe methods for combining impedance spectroscopy measurements with electrical simulati...
Organs-on-chips, in vitro models involving the culture of (human) tissues inside microfluidic device...
The aim of this work of thesis was to contribute to the engineering of physiologically relevant in-v...
A bio-impedance chip has been developed for real-time monitoring of the kinetics of epithelial cell ...
The lack of reliable human physiology models in vitro combined with an ever-increasing set of health...
In multicellular organisms epithelial and endothelial cells form selective permeable interfaces betw...
A multichannel microfluidic platform for real-time monitoring of epithelial barrier integrity by ele...
We have developed a bilayer microfluidic system with integrated transepithelial electrical resistanc...