CMU and Mayo Clinic to collaborate on transplant innovation Opens in new window
Mayo Clinic and Carnegie Mellon University announced today a research agreement to transform organ transplantation. The institutions will bioengineer innovative approaches to address current barriers in organ transplantation.
- Bioengineered hearts
Carnegie Mellon researchers are using tissue engineering and bioprinting technology to develop future alternatives for heart transplants. The team’s work uniquely integrates developmental biology, stem cell science, materials science and engineering, and manufacturing.
- Bioengineered lungs
Working towards permanent respiratory support, Carnegie Mellon researchers are creating devices that are designed to be a long-term solution instead of a short-term option for patients. The team is focused on changing the way patients are one day able receive respiratory support: allowing patients to go home instead of staying in the hospital.
- Three-dimensional tissue constructs
With combined expertise in tissue engineering, materials science, cell biology, and micro-manufacturing, Carnegie Mellon is researching and developing 3-D replacement tissue to treat human disease. From repairing damaged hearts to fixing impaired vision with bioprinted materials, researchers are working towards a future where regenerative strategies are both a viable and life-saving treatment method.
- Advanced 3-D bioprinting
Carnegie Mellon researchers are developing advanced “bioprinters”—3-D printers that are able to print soft biomaterials that may someday lead to the printing of organ parts, or even whole organs, that are compatible with the human body.
- Enabling technologies
Carnegie Mellon researchers are focused on developing a host of support technologies for the next generation of long-term replacement organs. This holistic approach is necessary to create fully-functioning long-term replacement organs and to ensure their safety and reliability. The support technologies include mathematical modeling, biomaterials, cellular biomechanics, organ cryopreservation, drug delivery and advanced manufacturing.