Using D-DNP monitoring, the scientists probed fast interaction kinetics such as those underlying the formation of pre-nucleation species that develop within milliseconds when calcium and phosphate ions meet in solution and that precede non-classical solid-liquid phase separation.
Using D-DNP monitoring, the scientists probed fast interaction kinetics such as those underlying the formation of pre-nucleation species that develop within milliseconds when calcium and phosphate ions meet in solution and that precede non-classical solid-liquid phase separation. Dennis Kurzbach) - Cutting-edge technology allows for real-time monitoring of biomineralisation as an important process of bone formation 21st century societal challenges such as demographic developments and an ageing population demand for new functional materials, such as for bone prostheses. Nature often serves as inspiration when designing these materials. In a recent study published in Analytical Chemistry, a team led by ERC awardee Dennis Kurzbach of the Faculty of Chemistry at the University of Vienna reports an innovative approach for high-resolution real-time monitoring of calcium phosphate mineralisation, which is an important natural process for the formation of, e.g., bone, carapace and teeth. They showed how next generation NMR technology allows to create new knowledge about the efficiency of natural materials. "Nature unveiling herself before science" is a sculpture by Louis-Ernest Barrias on display at the Musée d'Orsay in Paris. A research collaboration of the University of Vienna and the Sorbonne in Paris now took this credo to heart.
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