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 …

Thanks to the combined efforts of scientists in several research fields, the preceding decade
has witnessed considerable progress in the use of conjugated polymers as emerging …

Intrinsically stretchable electronics can form intimate interfaces with the human body,
creating devices that could be used to monitor physiological signals without constraining …

Heterogeneous interfaces that are ubiquitous in optoelectronic devices play a key role in the
device performance and have led to the prosperity of today's microelectronics. Interface …

Over the past three decades, significant research efforts have focused on improving the
charge carrier mobility of organic thin‐film transistors (OTFTs). In recent years, a commonly …

Undoped, conjugated, organic molecules and polymers possess properties of
semiconductors, including the electronic structure and charge transport, which can be …

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 …

Organic semiconductors have sparked interest as flexible, solution processable, and
chemically tunable electronic materials. Improvements in charge carrier mobility put organic …

Organic field-effect transistors hold the promise of enabling low-cost and flexible electronics.
Following its success in organic optoelectronics, the organic do** technology is also used …

Molecular do** is a crucial tool for controlling the charge-carrier concentration in organic
semiconductors. Each dopant molecule is commonly thought to give rise to only one …