Experimental control of block copolymer segregation is ideally achieved by varying
temperature, but in practice, the range of segregation is very restricted. A far greater range …

We describe a numerical implementation of self-consistent mean field theory for block
copolymers that requires no assumption of the mesophase symmetry. The method is …

We derive an order parameter model for triblock copolymers. After the statistical description
of interacting polymer chains is presented, the self-consistent field theory is used as a …

We compare two theoretical approaches to diblock copolymer melts in an external electric
field. The first is a relatively simple analytic expansion in the copolymer composition and …

This paper reviews the numerical, self‐consistent field theory of block copolymers and
blends in which they are a major component, and the relationship of this approach to …

We develop a numerical method for examining complex morphologies in thin films of block
copolymer using self-consistent field theory. Applying the method to confined films of …

New developments in field-theoretic simulations (FTSs) are used to evaluate fluctuation
corrections to the self-consistent field theory of diblock copolymer melts. Conventional …

A combination of particle-based simulations and self-consistent field theory (SCFT) is used
to study the stabilization of multiple ordered bicontinuous phases in blends of a diblock …

Traditional particle-based simulations struggle with large bottlebrush copolymers, consisting
of many side chains grafted to a backbone. Field-theoretical simulations (FTS) allow us to …

A parallel algorithm designed for widely used distributed computer clusters is developed for
the real-space self-consistent-field theory for polymers. We adopt an efficient data partition …