Polymer-based electronic devices are limited by slow transport and recombination of newly
separated charges. Built-in electric fields, which arise from compositional gradients, are …

High efficiency, stability, and flexibility are key prerequisites for the commercial applications
of organic solar cells (OSCs). Herein, three back‐to‐back connected dimers (2Qx‐TT, 2Qx …

This study reports the successful design and synthesis of two novel polymerized nonfused
ring electron acceptors, P-2BTh and P-2BTh-F, derived from the high-performance nonfused …

All‐polymer photodetectors possess unique mechanical flexibility and are ideally suitable for
the application in next‐generation flexible, wearable short‐wavelength infrared (SWIR, 1000 …

Organic field-effect transistors (OFETs) are an ideal platform for intrinsically stretchable
sensors due to their diverse mechanisms and unique electrical signal amplification …

Achieving efficient solar-driven CO 2 reduction (CO 2 RR) into valuable carbon–neutral fuels
without relying on photosensitizers, sacrificial agents, or co-catalysts has proven to be an …

Organic photovoltaics based on polymer blends have the potential for flexible solar cells
with superior mechanical and thermal resiliency. Recently, regioregular polymerized small …

Incorporating a third component through ternary copolymerization strategy has proven to be
a promising and effective approach for further improving the device performance of polymer …

Modeling charge generation and transport dynamics in organic semiconductors benefits
greatly from an atomistic description of the microstructure. In this work, virtual site coarse …

Controlling the morphology of bulk heterojunction (BHJ) films, which are the optoelectrical
active layer, in all-polymer solar cells (all-PSCs) is both delicate and challenging in the …