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 …

Resulting from its wide range of beneficial properties, the conjugated conducting polymer
poly (3, 4‐ethylenedioxythiophene)(PEDOT) is a promising material in a number of …

Interfacing electronics with neural tissue is crucial for understanding complex biological
functions, but conventional bioelectronics consist of rigid electrodes fundamentally …

Flexible inorganic bioelectronics represent a newly emerging and rapid developing
research area. With its great power in enhancing the acquisition, management and …

Neural sensing and stimulation have been the backbone of neuroscience research, brain-
machine interfaces and clinical neuromodulation therapies for decades. To-date, most of the …

The coupling between charge accumulation in a conjugated polymer and the ionic charge
compensation, provided from an electrolyte, defines the mode of operation in a vast array of …

Next‐generation neural interfaces for bidirectional communication with the central nervous
system aim to achieve the intimate integration with the neural tissue with minimal …

Brain–computer interface (BCI) has been the subject of extensive research recently.
Governments and companies have substantially invested in relevant research and …

We report on the superior electrochemical properties, in-vivo performance and long term
stability under electrical stimulation of a new electrode material fabricated from …

Owing to their excellent mechanical flexibility, mixed‐conducting electrical property, and
extraordinary chemical turnability, conjugated polymers have been demonstrated to be an …