Bioelectronics explores the use of electronic devices for applications in signal transduction
at their interfaces with biological systems. The miniaturization of the bioelectronic systems …

Photoelectrochemical (PEC) water splitting to produce hydrogen fuel was first reported 50
years ago, yet artificial photosynthesis has not become a widespread technology. Although …

Research in bioelectronics is highly interdisciplinary, with many new developments being
based on techniques from across the physical and life sciences. Advances in our …

Binder and conductive additive-free Si nanowires (NWs) grown directly on the current
collector have shown great potential as next generation Li-ion battery anodes. However, low …

Overcoming the difficulty in the precise definition of the metal phase of metal–Si
heterostructures is among the key prerequisites to enable reproducible next-generation …

Metal‐semiconductor heterostructures providing geometrically reproducible and abrupt
Schottky nanojunctions are highly anticipated for the realization of emerging electronic …

Engineered silicon-based materials can display photoelectric and photothermal responses
under light illumination, which may lead to further innovations at the silicon–biology …

In the past decades, group IV nanowires and nanoparticles have been the subject of
extensive research. Beside tremendous progress in morphological control and integration in …

Ratcheting effects play an important role in systems ranging from mechanical socket
wrenches to biological motor proteins. The underlying principle is to convert a fluctuating …

The highly intricate structures of biological systems make the precise probing of biological
behaviors at the cellular‐level particularly difficult. As an advanced toolset capable of …