New liver-on-a-chip model successfully mimics NAFLD
A liver-on-a-chip model has been developed to more fully represent the natural progression of NAFLD than previous models.
List view / Grid view
A liver-on-a-chip model has been developed to more fully represent the natural progression of NAFLD than previous models.
A team has used their new organs-on-a-chip system to replicate the interactions between the brain, liver and colon.
The newly developed chip includes heart and breast cancer tissues and could be used to predict the cardiac toxicity of chemotherapeutic drugs.
The heterogeneous pathogenesis of metabolic fatty liver diseases presents researchers with numerous challenges when trying to develop a treatment. This article explores the spectrum of these diseases and presents a novel in vitro platform for screening drug candidates.
Researchers have developed a device which mimics how blinking and tear movement effect the cornea for use in testing ophthalmic drugs and ocular research.
Researchers have demonstrated that stem cells attract neurons with different strengths and that connections between the two may be vital for cancer stem cell function.
Drug Target Review explores the findings of a recent review of molecular, cellular, multi-cellular and tissue engineering and modelling technologies for drug design.
The model was tested on a panel of drugs that are both still on the market or have been recalled due to adverse effects and was able to show their toxicity.
Researchers have engineered a chip which allows 3D modelling of the blood-brain-barrier and has provided insight into how astrocytes facilitate transport of molecules.
Researchers have developed a new body-on-chip technology that can demonstrate the pharmacokinetics and pharmacodynamics of drugs in a pre-clinical setting without the need for animal testing.
Researchers have made a ‘Liver-Chip’ which is able to demonstrate the toxic effects of drug candidates and compounds in human patients.
Scientists combine organ-on-a-chip and stem-cell technologies to make a powerful tool for diabetes research.
Combining organoid and organ-on-a-chip technologies, researchers have created a model which will allow them to study eye diseases and treatments for the retina.
A ‘bronchi-on-a-chip’ has been created by researchers to identify the processes of bronchospasms which could aid in respiratory disease therapies.
Researchers have created a new organoid model that can be used to study systems such as the heart and the effects of drugs on these cells.