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UCF Researchers were awarded a prize in the HHS KidneyX Challenge for development of an implantable artificial kidney device that allows patients to perform dialysis at home. The project previously received support from NIBIB.

Former NIBIB Director calls for collaboration among engineers and health professionals to address complicated challenges, including COVID19.

In a paper in the New England Journal of Medicine, scientific leaders from the National Institutes of Health set forth a framework to increase significantly the number, quality and type of daily tests for detecting SARS-CoV-2, the virus that causes COVID-19, and help reduce inequities for underserved populations that have been disproportionally affected by the disease.

In a groundbreaking new study, researchers have 3D printed a functioning centimeter-scale human heart pump in the lab. The discovery could have major implications for studying heart disease, the leading cause of death in the United States killing more than 600,000 people a year.

To help the world respond to COVID-19, 3M and researchers at MIT are testing a new rapid test that detects the virus. Accelerated research is underway to learn if a simple-to-use, diagnostic device can produce highly accurate results within minutes and is feasible to mass manufacture.

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Using DNA origami as a virus-like scaffold, researchers designed an HIV-like particle that provokes a strong response from human immune cells grown in the lab. They are now testing this approach as a potential vaccine candidate in live animals, and adapting it to SARS-CoV-2, as well as other pathogens.

Scientists were able to show that bioengineered uteri in an animal model developed the native tissue-like structures needed to support normal reproductive function.

Scientists at NIBIB have developed new image processing techniques for microscopes that can reduce post-processing time up to several thousand-fold.

A new technique funded by NIBIB and developed by University of Minnesota researchers allows 3D printing of hydrogel-based sensors directly on the surface of organs, such as lungs—even as they expand and contract. The technology was developed to support robot-assisted medical treatments.