In this review, we discuss (i) the introduction of hydrogel and its traditional applications, (ii) the work principles of hydrogel in bioelectronics, (iii) the recent advances in hydrogel bioelectronics for health monitoring, and (iv) the outlook for future hydrogel bioelectronics' development.doi:10.3390/bios13080815Lyu, XinyanHu, YanShi,...
Next, some representative applications of self-powered bioelectronics are illustrated (i.e., human motion monitoring, healthcare monitoring and therapies, neural stimulation and human-machine interaction). Finally, a brief summary and outlook for self-powered hydrogel bioelectronics is presented. Graphical...
implanted into the ventral horn of the lumbar region, single-unit neural spiking activity was recorded over long-term observations in both anesthetized and free-moving conditions, which underscores the potential of hydrogel bioelectronics for extended neurophysiological monitoring in naturally behaving ...
Bioelectronics offer a promising solution by developing wearable and implant- able devices that can seamlessly interface with the human body, enabling real-time monitoring of physiological signals and targeted therapies for personalized healthcare [7–10]. Recent advancements in this field have led to ...
process, we fabricated a hydrogel RFID tag (Fig.5c, left) that could endure stretching up to 100% strain without delamination (Fig.5c, middle). The device could be attached to a body and detected by an RFID reader (Fig.5c, right), with potential applications in wearable bioelectronics. ...
Hydrogel bioelectronics that can interface biological tissues and flexible electronics is at the core of the growing field of healthcare monitoring, smart drug systems, and wearable and implantable devices. Here, a simple strategy is demonstrated to prototype all‐hydrogel bioelectronics with embedded ...
However, semiconductors –essential for bioelectronics –are typically stiff, brittle, and lack hydrophilicity, making integration with living tissues challenging. To overcome this, the UChicago team developed a new manufacturing method for their hydrogel that allows it to retain semiconductive properties ...
Lu, X. Zhao Hydrogel bioelectronics Chem. Soc. Rev., 48 (2019), pp. 1642-1667 CrossrefGoogle Scholar [3] L.A. Hardy, J.D. Kennedy, C.R. Wilson, P.B. Irby, N.M. Fried Analysis of thulium fiber laser induced bubble dynamics for ablation of kidney stones J. Biophot., 10 (...
implanted into the ventral horn of the lumbar region, single-unit neural spiking activity was recorded over long-term observations in both anesthetized and free-moving conditions, which underscores the potential of hydrogel bioelectronics for extended neurophysiological monitoring in naturally behaving ...
Owing to the unique combination of electrical conductivity and tissue-like mechanical properties, conducting polymer hydrogels have emerged as a promising candidate for bioelectronic interfacing with biological systems. However, despite the recent advanc