Active layer material plays a critical role in promoting the performance of an organic solar
cell (OSC). Small‐molecule (SM) materials have the merits of well‐defined chemical …

All‐small‐molecule organic solar cells (ASM‐OSCs) have received tremendous attention in
recent decades because of their advantages over their polymer counterparts. These …

The symmetry breaking strategy has been broadly applied in the design of organic
photovoltaic materials; however, a comprehensive understanding of the effects of two …

Achieving a bi-continuous morphology with appropriate and solidified nanoscale domains in
the active layers is a challenging task for all-small-molecule organic solar cells (all …

All small molecule organic solar cells (ASM‐OSCs) have numerous advantages but lower
power conversion efficiencies (PCEs) than their polymer equivalents, which is largely due to …

The emerging Y‐series nonfullerene acceptors (Y‐NFA) has prompted the rapid progress of
power conversion efficiency (PCE) of all‐small‐molecule organic solar cells (ASM‐OSCs) …

In addition to the donor–acceptor nano phases, the intermixed phase within the organic
blends is crucial for the photovoltaic performance and stability of the bulk-heterojunction …

Compared to polymer‐based organic solar cells, all‐small‐molecule organic solar cells
(ASM‐OSCs) have garnered significant attention due to their well‐defined chemical …

The excitons are generally decomposed into free charges by the heterojunction due to the
low dielectric constant of organic materials. Recent research indicates that owing to the low …

Organic solar cells have obtained a prodigious amount of attention in photovoltaic research
due to their unique features of light weight, low cost, eco-friendliness, and semitransparency …