Electronic do** in organic materials has remained an elusive concept for several
decades. It drew considerable attention in the early days in the quest for organic materials …

The field of organic electronics thrives on the hope of enabling low‐cost, solution‐processed
electronic devices with mechanical, optoelectronic, and chemical properties not available …

The electrical performance of doped semiconducting polymers is strongly governed by
processing methods and underlying thin-film microstructure. We report on the influence of …

Molecular do**—the use of redox‐active small molecules as dopants for organic
semiconductors—has seen a surge in research interest driven by emerging applications in …

Doped organic semiconductors are critical to emerging device applications, including
thermoelectrics, bioelectronics, and neuromorphic computing devices. It is commonly …

The mechanism and the nature of the species formed by molecular do** of the model
polymer poly (3-hexylthiophene)(P3HT) in its regioregular (rre-) and regiorandom (rra-) …

Optoelectronic properties of semiconductors are significantly modified by impurities at trace
level. Oxygen, a prevalent impurity in organic semiconductors (OSCs), has long been …

Numerous strategies are developed to impart stretchability to polymer semiconductors.
Although these methods improve the ductility, mobility, and stability of such stretchable …

Printable electronic devices from organic semiconductors are strongly desired but limited by
their low conductivity and stability relative to those of their inorganic counterparts. p-Do** …

The exploration of a wide range of molecular structures has led to the development of high‐
performance conjugated polymer semiconductors for flexible electronic applications …