Litcius/Paper detail

MXene, protein, and KCl-assisted ionic conductive hydrogels with excellent anti-freezing capabilities, self-adhesive, ultra-stretchability, and remarkable mechanical properties for a high-performance wearable flexible sensor

Irfan Ijaz, Aysha Bukhari, Ezaz Gilani, Ammara Nazir, Hina Zain, Attia Shaheen, Mohammed Rafi Shaik, Mohamed E. Assal, Mujeeb Khan

2024RSC Advances18 citationsDOIOpen Access PDF

Abstract

hydrogel demonstrated negligible hysteresis behavior, quick electromechanical response (0.10 s), and excellent sensitivity (gauge factor (GF) = 13.1 within the strain range of 1200-2000%). The resulting hydrogel could be immobilized on the animal or human skin to detect different body movements and physiological motions, offering reproducibility and precise accuracy as primary advantages. The approach of developing materials with tunable features, along with inorganic salt and the fish-inspired freeze-tolerance method, offers a new prospect for wearable gadgets.

Topics & Concepts

Materials scienceAdhesiveSelf-healing hydrogelsWearable computerIonic bondingElectrical conductorNanotechnologyChemical engineeringIonComposite materialPolymer chemistryChemistryComputer scienceEmbedded systemEngineeringOrganic chemistryLayer (electronics)Advanced Sensor and Energy Harvesting MaterialsMXene and MAX Phase MaterialsSupercapacitor Materials and Fabrication