The nervous system poses a grand challenge for integration with modern electronics and
the subsequent advances in neurobiology, neuroprosthetics, and therapy which would …

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

Constructing highly planar, extended π-electron systems is an important strategy for
achieving high-mobility organic semiconductors. In general, there are two synthetic …

Bioelectronics have made strides in improving clinical diagnostics and precision medicine.
The potential of bioelectronics for bidirectional interfacing with biology through continuous …

To understand the physiology and pathology of electrogenic cells and the corresponding
tissue in their full complexity, the quantitative investigation of the transmission of ions as well …

The electronics surrounding us in our daily lives rely almost exclusively on electrons as the
dominant charge carrier. In stark contrast, biological systems rarely use electrons but rather …

At the convergence of organic electronics and biology, organic bioelectronics attracts great
scientific interest. The potential applications of organic semiconductors to reversibly transmit …

Over the last two decades, considerable scientific and technological efforts have been
devoted to develo** tactile sensing based on a variety of transducing mechanisms, with …

We live in a world where the lifetime of electronics is becoming shorter, now approaching an
average of several months. This poses a growing ecological problem. This brief review will …

The field of organic bioelectronics is advancing rapidly in the development of materials and
devices to precisely monitor and control biological signals. Electronics and biology can …