Computer-designed customized regenerative heart valve, an artificial heart valve which can grow, regenerate and predict computer simulations can be used in the treatment of valvular heart disease was successfully developed.
Computer-designed customized regenerative heart valves are artificial heart valves that can grow, regenerate and predict computer simulations can be helpful in treating children with congenital heart disease, reveals a new study.// Producing living tissue or organs based on human cells is one of the main research fields in regenerative medicine. Tissue engineering, which involves growing replacement parts in the laboratory, forms a key part of this research. The parts can be used to replace defective cells and tissues in the body and restore their normal functioning. The bioengineered replacements have significant advantages over the artificial implants currently in use: They do not cause immune reactions in the patient's body, and they can grow and regenerate themselves.
‘An artificial heart valve which can grow, regenerate and predict computer simulations was successfully designed can be used efficiently in the treatment of valvular heart disease.’
Designing heart valves on the computerAn international consortium led by UZH Professor Simon P. Hoerstrup has now reached a milestone on the road towards being able to treat heart patients using new heart valves cultured from human cells: As part of the EU-funded project LifeValve, for the first time the team, using computer simulations, succeeded in individually predicting how well cultured heart valves would grow, regenerate, and function in large animal models (sheep). "Thanks to the simulations, we can optimize the design and composition of the regenerative heart valves and develop customized implants for use in therapy," says Hoerstrup of the Institute of Regenerative Medicine at UZH.
Predicting regeneration - an important step towards clinical application
In particular, changes to the structure of the heart valve that occur in the body during the dynamic regeneration process can be predicted by computer simulations and anticipated accordingly in the design. The results that have been published in the journal Science Translational Medicine are a significant step towards the routine application of the Zurich-developed tissue engineering technology in the future. Moreover, the findings provide a basic conceptual contribution that will aid the successful transfer to clinical use of new bioengineering technologies in regenerative medicine.
Current prostheses have to be regularly replaced in children
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The University Children's Hospital Zurich is currently preparing a study treating children who have congenital heart defects with tissue-engineered blood vessels, developed as part of the LifeMatrix project by Wyss Zurich. Wyss Zurich is a new center run jointly by the University of Zurich and ETH to support the clinical translation of innovative findings into novel medical therapies in the areas of regenerative medicine and robotics.
Source-Eurekalert