Polymer‐based materials with tunable nanoscale structures and associated
microenvironments hold great promise as next‐generation ion‐exchange membranes …

Block polymers have undergone extraordinary evolution since their inception more than 60
years ago, maturing from simple surfactants to an expansive class of macromolecules …

The self‐assembly of copolymers containing crystallizable blocks in solution has received
increasing attention in the past few years. Various strategies including crystallization‐driven …

Block copolymer self-assembly affords diverse nanostructures, spanning from spheres and
cylinders to networks, offering meticulous control over properties and functionalities at the …

Ion-containing block copolymers hold promise as next-generation proton exchange
membranes in hydrogen and methanol fuel cells. These materials' self-assembled ordered …

Energy storage is at present one of the foremost issues society faces. However, material
challenges now serve as bottlenecks in technological progress. Lithium-ion batteries are the …

Block polymers are formed by the covalent union of two or more chemically distinct
homopolymers. These composite macromolecules self-assemble into a variety of ordered …

Solid-state polymer electrolytes and high-concentration liquid electrolytes, such as water-in-
salt electrolytes and ionic liquids, are emerging materials to replace the flammable organic …

Order− order and order− disorder phase transitions in mixtures of poly (styrene-block-
ethylene oxide)(SEO) copolymers and lithium bis (trifluoromethylsulfonimide)(LiTFSI), a …

The effect of alignment of proton-conducting domains in hydrated poly (styrenesulfonate-b-
methylbutylene) copolymer films on conductivity was studied by impedance spectroscopy …