Recently, a research team spearheaded by Professor Zhao Yang from the School of Chemistry and Chemical Engineering at Beijing Institute of Technology, published a groundbreaking paper in the prestigious international journal Nature Communications. Titled "Mechanically-activated electrochemical implantable micro-supercapacitors boosting wound healing in the small intestine," the paper introduces an innovative solution to the challenge of intestinal wound healing.
The study presents a mechanically-activated electrochemical implantable micro-supercapacitor, ingeniously designed with a polyvinyl alcohol framework. This framework densifies carbon nanotube electrodes through contraction, a process triggered by mechanical activation. Such activation substantially enhances the electrochemically active surface area, enabling the device to deliver high energy density and sustained electrical stimulation.
In simulated intestinal fluid environments, the device demonstrated its capability to provide uninterrupted electrical stimulation for over 96 hours. Its efficacy was further validated in experimental pig models, specifically targeting narrow intestinal wounds. Remarkably, the treated wounds exhibited a 36% to 50% improvement in healing rates compared to their untreated counterparts.
