An in vitro, light responsive, retinal model for accurate predictions of in vivo outcomes you can have confidence in.
The most advanced near-physiological high throughput kidney proximal tubule cells (PTC) model to investigate drug transport modalities in vitro.
A model to investigate airway physiology, viral infection, drug safety and environmental impacts on lung airway epithelia.
A model to investigate airway physiology, viral infection, drug safety and environmental impacts on lung airway epithelia.
We are developing a model of liver sinusoid derived from human induced pluripotent stem cells (iPSC).
We are developing a model of liver sinusoid derived from human induced pluripotent stem cells (iPSC).
An in vitro model of the retina, light responsive, for accurate predictions of in vivo outcomes you can have confidence in.
State-of-the-art 2D and 3D cell-based assays
The most advanced near-physiological high throughput kidney proximal tubule cells (PTC) model to investigate drug transport modalities in vitro.
Newcells offers expert disease modelling services using best in class in vitro platforms and supports drug development by providing robust data for regulatory submissions and the critical decision-making process.
In development, a 3D iPSC-derived model to investigate airway physiology, viral infection, drug safety, and environmental impacts on lung airway epithelia.
The liver sinusoid is one of the main functional units of liver composed of specialised cells organised to form blood vessels that make up the microcirculation of the liver. There are about one billion sinusoids in human liver.
State-of-the-art 2D and 3D cell-based assays
Dr Mike Nicholds describing Newcells plans for the future.
