Organic semiconductors are generally featured with low structure order in solid‐state films,
which leads to low charge‐transport mobility and strong charge recombination in their …

The halogenated volatile solid additives can delicately optimize the active layer morphology
of organic solar cells, improving the devices' performance, stability, and reproducibility …

Reducing non‐radiative energy loss (∆ Enr) is critical for enhancing the photovoltaic
performance of organic solar cells (OSCs). To achieve this, a small molecular donor, LJ1, is …

Operational stability underpins the successful application of organic mixed ionic‐electronic
conductors (OMIECs) in a wide range of fields, including biosensing, neuromorphic …

As the rise of nonfullerene acceptors (NFA) has allowed lab‐scale organic solar cells (OSC)
to reach 20% efficiency, translating these devices into roll‐to‐roll compatible fabrication still …

The commercial uptake of (polymer-based) organic solar cells is among others hindered by
poor reproducibility of the device performance, arising from the variability in molar mass …

Bulk heterojunction (BHJ) organic solar cells have made remarkable inroads toward 20%
power conversion efficiency, yet non-radiative recombination losses (ΔV nr) remain high …

In an organic solar cell, exciton dissociation and charge transport to generate current
depend on interface and bulk morphology, respectively, and their rates dictate device …

The efficiency of an organic solar cell is highly dependent on the complex, interpenetrating
morphology, and molecular order within the composite phases of the bulk heterojunction …

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