Bioelectronics focuses on the interface between biological systems and electronics. Most
biological systems are soft and wet, while electronics are typically hard and dry. Information …

Bioelectronics presents a promising future in the field of embedded and implantable
electronics, providing a range of functional applications, from personal health monitoring to …

The regulation of most physiological processes relies on a state of equilibrium called
homeostasis, which is achieved through a biological control loop involving sensors and …

High-throughput microfluidic systems are widely used in biomedical fields for tasks like
disease detection, drug testing, and material discovery. Despite the great advances in …

Bioelectronic devices sense or deliver information at the interface between living systems
and electronics by converting biological signals into electronic signals and vice‐versa …

The capacity of machine-learning methods to handle large and complex datasets makes
them suitable for applications in precision medicine. Current methods automate data …

Biological systems ranging from bacteria to mammals utilize electrochemical signaling.
Although artificial electrochemical signals have been utilized to characterize neural tissue …

Hydrogels have become the material of choice in bioelectronic devices because their high‐
water content leads to efficient ion transport and a conformal interface with biological tissue …

The ability to deliver drugs with precise dosages at specific time points can significantly
improve disease treatment while reducing side effects. Drug encapsulation for gradual …

A potentiostat is an essential piece of analytical equipment for studying electrochemical
devices and reactions. As the design of electrochemical devices evolve, applications for …