Hydrogel-based conductive materials for smart wearable devices have attracted increasing
attention due to their excellent flexibility, versatility, and outstanding biocompatibility. This …

Flexible electronics is an emerging field of research involving multiple disciplines, which
include but not limited to physics, chemistry, materials science, electronic engineering, and …

Recent advancements in wearable electronics offer seamless integration with the human
body for extracting various biophysical and biochemical information for real-time health …

The flourishing development of flexible healthcare sensing systems is inseparable from the
fundamental materials with application-oriented mechanical and electrical properties …

Advances in hydrogel technology have unlocked unique and valuable capabilities that are
being applied to a diverse set of translational applications. Hydrogels perform functions …

Electronics based on hydrogels can have inherent similarities to biological tissue and are of
potential use in biomedical applications. Ideally, such hydrogel electronics should offer …

Hydrogels offer tissue-like compliance, stretchability, fracture toughness, ionic conductivity
and compatibility with biological tissues. However, their electrical conductivity (< 100 S cm …

Stretchable ionic conductors are considerable to be the most attractive candidate for next-
generation flexible ionotronic devices. Nevertheless, high ionic conductivity, excellent …

Hydrogel-polymer hybrids have been widely used for various applications such as
biomedical devices and flexible electronics. However, the current technologies constrain the …

Biocompatible conductors are important components for soft and stretchable bioelectronics
for digital healthcare, which have attracted extensive research efforts. Natural biopolymers …