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Amphiphilic triblocks to control assembly of mixed or segregated bilayers and monolayers
Author(s) -
Christina Ting,
Brad H. Jones,
Amalie L. Frischknecht,
Erik David Spoerke,
Mark J. Stevens
Publication year - 2015
Publication title -
soft matter
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.99
H-Index - 170
eISSN - 1744-6848
pISSN - 1744-683X
DOI - 10.1039/c5sm01447f
Subject(s) - monolayer , phase diagram , bilayer , amphiphile , materials science , chemical physics , phase (matter) , volume fraction , self assembly , crystallography , diamond , condensed matter physics , nanotechnology , chemistry , physics , copolymer , membrane , organic chemistry , composite material , polymer , biochemistry
Triblock amphiphilic molecules composed of three distinct segments provide a large parameter space to obtain self-assembled structures beyond what is achievable with conventional amphiphiles. To obtain a molecular understanding of the thermodynamics of self-assembly, we develop a coarse-grained triblock polymer model and apply self-consistent field theory to investigate the packing mechanism into layer structures. By tuning the structural and interaction asymmetry, we are able to obtain bilayers and monolayers, where the latter may additionally be mixed (symmetric) or segregated (asymmetric). Of particular interest for a variety of applications are the asymmetric monolayers, where segregation of end blocks to opposite surfaces is expected to have important implications for the development of functional nanotubes and vesicles with distinct surface chemistries.

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