Recent advancements in wearable electronics offer seamless integration with the human
body for extracting various biophysical and biochemical information for real-time health …

Intelligent technologies based on artificial intelligence and big data hold great potential for
health monitoring and human–machine capability enhancement. However, electronics must …

Liquid metals are attractive materials for stretchable electronics owing to their high electrical
conductivity and near‐zero Young's modulus. However, the high surface tension of liquid …

Optically transparent neural microelectrodes have facilitated simultaneous
electrophysiological recordings from the brain surface with the optical imaging and …

The key to designing an implantable device lies in condensing the synergistic effects of
diagnostic and therapeutic methods in a single tool. In conjunction with the integration of …

The adoption of neural interfacing into neurological diagnosis is severely hampered by the
complex, costly, and error‐prone manufacturing methods, requiring new fabrication …

Transparent implantable devices have received significant attention in neuroscience and
biomedical engineering by combining neural recording and optical modalities. Opaque …

Flexible and implantable electronics hold tremendous promises for advanced healthcare
applications, especially for physiological neural recording and modulations. Key …

In recent studies related to bioelectronics, significant efforts have been made to form 3D
electrodes to increase the effective surface area or to optimize the transfer of signals at …

Neural probes are among the most widely applied tools for studying neural circuit functions
and treating neurological disorders. Given the complexity of the nervous system, it is highly …