Conducting polymers with high theoretical capacitance and deformability are among the
optimal candidates for compressible supercapacitor electrode materials. However …

Homogeneous immunoassays represent an attractive alternative to traditional
heterogeneous assays due to their simplicity and high efficiency. Homogeneous …

Electrode materials have attracted considerable attention as pivotal components for high-
performance supercapacitors (SCs). In recent years, electrospun carbon nanofibers …

Implantable batteries are urgently needed as a power source to meet the demands of the
next generation of biomedical electronic devices. However, existing implantable batteries …

Based on the “ion-confined transport” strategy, supercapacitor-diodes and switchable
supercapacitors as new ion-type devices have emerged with promising applications in fields …

The field of bioinspired iontronics, bridging electronic devices and ionic systems, has
multiple biological applications. Carbon‐based ultracapacitive devices hold promise for …

Neurotransmitters carrying specific chemical information play a key role in the nervous
system, which inspires ion‐based devices to mimic biological functions of nervous system …

Iontronic architectures operate via multiple ions or redox processes mimicking neural
systems capable to operate with complex ions and biological transmitters with high energy …

Ion-controlled electronics use biocompatible electrolytes to realize multiple functions, such
as ionic resistors, ionic diodes, and ionic transistors, endowing them with huge biologic …

The G-Cap is an iontronic device that combines features of an electrical double-layer
capacitor and a transistor, exhibiting switchable capacitance behavior. This functionality is …