Abstract A pair of A 1-A 2-type polymer acceptors (PY-DTBT and PY-DT-BT) including
acceptor backbones (A 1) with fused-or unfused-electron-deficient linkers dithieno …

Controlling the morphology of organic solar cells (OSCs) presents a significant challenge
due to their complex structure and composition. In particular, attaining synergistic control …

The ternary strategy has proven effective in enhancing the performance of organic solar
cells (OSCs), yet identifying the optimal third component remains a challenge due to the lack …

The difluorobenzothiadizole (ffBT) unit is one of the most classic electron‐accepting building
blocks used to construct D‐A copolymers for applications in organic solar cells (OSCs) …

Conjugated polymers are becoming popular near-infrared II (NIR-II) phototheranostic agents
(PTAs) due to their numerous advantages, such as high photostability, large molar extinction …

The integration of fluorinated benzothiadiazole (FBT) into donor–acceptor (D–A) copolymers
represents a major advancement in the field of organic solar cells (OSCs). The fluorination …

This study puts forth a novel terminal group design to develop medium‐band gap Y‐series
acceptors beyond conventional side‐chain engineering. We focused on the strategical …

Modifications to the alkyl side chains of Y6‐type nonfullerene acceptors (NFAs) continuously
break through the organic solar cells (OSCs) efficiency by enhancing electron mobility …

Anode modification and optimization is crucial towards improving performance of organic
solar cells (OSCs). PEDOT: PSS is the most common choice as a hole transport layer (HTL) …

A key factor in optimizing organic solar cells (OSCs) is the precise control of blend film
morphology to enhance exciton dissociation and charge transport. Solid additives play a …