Surfactant micelle self-assembly directed highly symmetric ultrasmall inorganic cages

Nanoscale objects with highly symmetrical cage-like polyhedral shapes, often with icosahedral symmetry, have recently been assembled using DNA 1-3 , RNA 4 , and proteins 5,6 for biomedical applications. These achievements relied on advances in the development of programmable self-assembling biomater...

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Published in:Nature (London) 2018-06, Vol.558, p.577-580
Main Authors: Ma, Kai, Gong, Yunye, Aubert, Tangi, Turker, Melik, Kao, Teresa, Doerschuk, Peter, Wiesner, Ulrich
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Language:English
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Material chemistry
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container_title Nature (London)
container_volume 558
creator Ma, Kai
Gong, Yunye
Aubert, Tangi
Turker, Melik
Kao, Teresa
Doerschuk, Peter
Wiesner, Ulrich
description Nanoscale objects with highly symmetrical cage-like polyhedral shapes, often with icosahedral symmetry, have recently been assembled using DNA 1-3 , RNA 4 , and proteins 5,6 for biomedical applications. These achievements relied on advances in the development of programmable self-assembling biomaterials 7-10 , as well as rapidly developing single-particle three-dimensional (3D) reconstruction techniques of cryo electron microscopy (cryo-EM) images that provide high-resolution structural characterization of biological complexes 11-13. In contrast, such single-particle 3D
doi_str_mv 10.1038/s41586-018-0221-0
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Material chemistry
title Surfactant micelle self-assembly directed highly symmetric ultrasmall inorganic cages
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