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 …

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

This Review, with 200 references, describes and comments key highlights of the progress in
the field of potentiometric sensing between January 2019, the date of the last fundamental …

Antibiotics are used largely in agriculture and animal farming. As a result, antibiotic residues
are found in food products as well as pharmaceutical industries and farming wastes. Since …

Organic electrochemical transistors (OECTs) show remarkable promise as biosensors,
thanks to their high signal amplification, simple architecture, and the intrinsic flexibility of the …

Wearable chemical sensors have recently received great attention, especially on monitoring
ion concentration in sweat. However, challenges still remain, such as the nonnegligible …

Liquid-based devices have emerged as bioinspired neuromorphic applications owing to
their high ion-diffusion coefficients, diverse structures, and controllable ion-exchange …

Monitoring of ions in real-time directly in cell culture systems and in organ-on-a-chip
platforms represents a significant investigation tool to understand ion regulation and …

The transportation of sweat in an epidermal sweat sensor is critical for the monitoring of
biochemical compositions of human sweat. However, it is still a challenge to engineer …

Wettability and microfluidics are inextricably linked, and the wettability-based approach to
microfluidics exhibits considerable potential. In addition to microfluidics, there has been a …