Posts Tagged: Cell & Tissue Engineering
In a recent study, researchers from the University of Toronto employed a unique state-of-the-art imaging technique for deep tissue imaging, that has enabled the monitoring of peri-implant bony healing biology in action. This technology can lead to a better understanding of the healing process, allowing researchers to leverage this knowledge to develop faster therapeutic approaches with the use of biomaterials for the future.
An innovative biomaterial discovery by researchers at the University of Toronto in collaboration with Ripple Therapeutics Inc., has established a method that yields better control over drug release profiles in implants and has the potential to disrupt the classical drug delivery market.
Supported by U of T's Medicine by Design initiative, a multidisciplinary team led by University Professor Molly Shoichet (ChemE, BME, Donnely) plans to use retinal stem cells to restore vision.
Paul Santerre, a professor in the Faculty of Dentistry and the Institute of Biomedical Engineering, says the extent of progress on diabetes and insulin will partly depend on how well research breakthroughs from scholars like Brubaker can be married with efforts at commercialization and innovation.
A team of researchers from U of T Engineering and the University of Michigan have redesigned and enhanced a natural enzyme that shows promise in promoting the regrowth of nerve tissue following injury.
U of T Engineering researchers have developed a new method of injecting healthy cells into damaged eyes. The technique could point the way toward new treatments with the potential to reverse forms of vision loss that are currently incurable.
U of T researchers develop ‘piggyback’ vehicle to escape the endosomal trap and deliver RNA therapeutics
Milica Radisic (ChemE, IBBME) is working with Axel Guenther and Edmond Young (both MIE) to create tiny models of the nose, mouth, eyes and lungs to better understand how COVID-19 infects organs
A new handheld 3D printer can deposit sheets of skin to cover large burn wounds – and its “bio ink” can accelerate the healing process.
Researchers from IBBME developed a method to improve the transplantation success rate of artificial islets.
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