Asymmetric substitution of end‐groups is first applied in molecular donors. Three commonly
used end‐groups of 2‐ethylhexyl cyanoacetate (CA), 2‐ethylhexyl rhodanine (Reh), and 1H …

Terminal group modification is one of the most influential factors for small-molecular donors
compared with their polymer counterparts, resulting in an opportunity to optimize the …

In bulk-heterojunction organic solar cells (BHJ-OSCs), exciton dissociation and charge
transport are highly sensitive to the molecular packing pattern and phase separation …

It is very important to fine‐tune the nanoscale morphology of donor: acceptor blend active
layers for improving the photovoltaic performance of all‐small‐molecule organic solar cells …

Design of high-performance small molecule donors for all-small-molecule organic solar cells
(ASM-OSCs) requires a combinative effort of optimizing the material design and device …

Fibrous interpenetrating network structure morphology is extremely crucial for all‐small‐
molecule organic solar cells (ASM‐OSCs) in achieving high power conversion efficiency …

In order to obtain high-performance all-small-molecule organic solar cells (ASM-OSCs), it is
crucial to exploit the available strategy for molecular design and to further understand key …

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 …

Achieving an ideal morphology to realize efficient charge generation and transport is an
imperative avenue to improve the photovoltaic performance of all small‐molecule organic …

Ternary organic solar cells (OSCs) have attracted increasing attention because they are a
feasible and efficient strategy to improve the power conversion efficiency (PCE) of OSCs …