Researchers here develop a model for ischemia-reperfusion injury and its subsequent effects using engineered heart tissues. .

Researchers evaluated the efficacy and safety of implanting stem cell-derived pancreatic endoderm beta cells to treat type I diabetes

Researchers developed a white adipose tissue-on-a-chip model to study obesity and associated diseases

This lab group developed nanoparticles that allow the use of near infrared light to control blue light activated optogenetic proteins

The researchers used soy protein to create scaffolding and evaluated its ability to help grow cow muscle cells

Researchers preserve use a perfusion machine to preserve a donor liver outside the body for 3 days before implantation into a patient

Researchers genetically engineered stem cells to help visualise what happens to when stem cell-derived cardiomyocytes when implanted into the heart

Researchers have developed a non-invasive method of monitoring biomarkers via a wearable skin adhering device that connects to a smartphone

With duct tape as their inspiration, researchers developed an off-the-shelf bioadhesive patch to repair GI defects.

Researcher use deep fake data augmentation techniques to generate brain MRI images indistinguishable by expert physicians.

This human airway-on-a-chip responds to invading viruses and to drugs like animals and humans do and can allow us to better predict which drugs can fight new diseases.

This implantable and retrievable device for the transplantation of therapeutic cells that can stay viable for up to several months in the body. 

Through reverse-engineering, researchers were able to create a model of the human eye surface that allows us to better understand how blinking affects underlying ocular tissue.

Researchers use microfluidic and stem cell technologies to develop a 3D model of the human bone marrow .

Researchers 3D printed functional heart patches that matched the anatomical, cellular, and biochemical properties of an individual’s heart.