TY - JOUR
T1 - Designer nanorings with functional cavities from self-assembling β-Sheet peptides
AU - Park, Il Soo
AU - Yoon, You Rim
AU - Jung, Minseon
AU - Kim, Kimoon
AU - Park, Seongbyeong
AU - Shin, Seokmin
AU - Lim, Yong Beom
AU - Lee, Myongsoo
PY - 2011/2/1
Y1 - 2011/2/1
N2 - β-Barrel proteins that take the shape of a ring are common in many types of water-soluble enzymes and water-insoluble transmembrane pore-forming proteins. Since β-barrel proteins perform diverse functions in the cell, it would be a great step towards developing artificial proteins if we can control the polarity of artificial β-barrel proteins at will. Here, we describe a rational approach to construct β-barrel protein mimics from the self-assembly of peptide-based building blocks. With this approach, the direction of the self-assembly process toward the formation of water-soluble β-barrel nanorings or water-insoluble transmembrane β-barrel pores could be controlled by the simple but versatile molecular manipulation of supramolecular building blocks. This study not only delineates the basic driving force that underlies the folding of β-barrel proteins, but also lays the foundation for the facile fabrication of β-barrel protein mimics, which can be developed as nanoreactors, ion- and small-molecule-selective pores, and novel antibiotics.
AB - β-Barrel proteins that take the shape of a ring are common in many types of water-soluble enzymes and water-insoluble transmembrane pore-forming proteins. Since β-barrel proteins perform diverse functions in the cell, it would be a great step towards developing artificial proteins if we can control the polarity of artificial β-barrel proteins at will. Here, we describe a rational approach to construct β-barrel protein mimics from the self-assembly of peptide-based building blocks. With this approach, the direction of the self-assembly process toward the formation of water-soluble β-barrel nanorings or water-insoluble transmembrane β-barrel pores could be controlled by the simple but versatile molecular manipulation of supramolecular building blocks. This study not only delineates the basic driving force that underlies the folding of β-barrel proteins, but also lays the foundation for the facile fabrication of β-barrel protein mimics, which can be developed as nanoreactors, ion- and small-molecule-selective pores, and novel antibiotics.
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U2 - 10.1002/asia.201000428
DO - 10.1002/asia.201000428
M3 - Article
C2 - 20839276
AN - SCOPUS:79251521824
SN - 1861-4728
VL - 6
SP - 452
EP - 458
JO - Chemistry - An Asian Journal
JF - Chemistry - An Asian Journal
IS - 2
ER -