Bioelectronic medicine aims to interface electronic technology with biological components
and design more effective therapeutic and diagnostic tools. Advances in nanotechnology …

There is an increasing recognition that biological systems can be influenced in many ways
by electron and ion transfer reactions, potentials and electric fields that can be generated in …

Merging of electronics with biology, defined as bioelectronics, at the nanoscale holds
considerable promise for sensing and modulating cellular behavior. Advancing our …

The electrolysis of aromatic molecules is a useful method for the synthesis and deposition of
conducting polymers. However, this method cannot be applied to diverse large‐area …

For the field of bioelectronics to make an impact on healthcare, there is an urgent
requirement for the development of “wireless” electronic systems to enable modulation of …

The field of bioelectronics is developing exponentially. There is now a drive to interface
electronics with biology for the development of new technologies to improve our …

Meniscus-confined electrodeposition (MCED) has emerged as a versatile additive
micromanufacturing method for complex metal microstructures and flexible electrical …

Conclusion Continuous development of manufacturing techniques and technological
advancements are driving a rapid evolution in the bioelectronic medicine field. While …

Nanoimprint technology has the advantages of low cost, high precision, high fidelity and
high yield. The metal nanoparticle fluid is non-Newtonian fluid, which is used as the imprint …

Bipolar electrochemistry is a technique that involves two opposite chemical processes,
namely an oxidation and a reduction, occurring simultaneously on the surface of a …