Home > News > Unlocking nature's protein material concepts enables tomorrow's nanotechnology materials and cures
October 9th, 2007
Unlocking nature's protein material concepts enables tomorrow's nanotechnology materials and cures
Abstract:
Nature is truly a brilliant nano engineer and has been so for billions of years. There is an abundance of ‘smart' biological materials with hierarchical nanostructures - built from proteins - that are capable of adapting to new tasks, are self-healing, and can self-assemble autonomously simply out of a solution of building blocks. The performance and capability of these natural materials is something engineers can only dream of today. But by unlocking nature's secrets tiny step by tiny step, one day we will be able to not only duplicate but surpass the performance of natural materials. Only in recent years have scientists begun to understand the underlying principles and mechanisms of these materials - Why is spider silk stronger than steel? Why can cells be stretched reversibly several times of their original length? What kinds of molecular flaws lead to malfunctions in cells and tissues, as it occurs in Alzheimer's, rapid ageing disease progeria or muscle dystrophies, diseases in which the cell or tissue fails mechanically? Scientists at MIT have, for the first time, revealed the fundamental fracture and deformation mechanisms of biological protein materials, clarifying some long-standing issues about the deformation behavior of cells and Alzheimer's pathogens. The researchers report that the fracture mechanisms of two abundant nanoscopic building blocks of many proteins and protein materials exhibit two distinct fracture modes, depending on the speed of deformation. This is a surprising observation with far-reaching implications for the development of novel self-assembled protein materials and possibly the cure of certain genetic diseases.
Source:
nanowerk.com
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