Many new materials, for example carbon materials (carbon fibers, carbon nanotubes, graphene), nanoparticles, clusters (Au, Ag, Pd, Cu, semiconducting oxides, magnetic oxides, among others), conducting polymers, and ionic liquids, have been used for sensor construction to improve their performance.
With compelling features of the efficient EF method, versatile TENG and biomass-derived carbon materials, this work pioneers the alliance of TENG, carbon-based electrodes and EF to self-power the organic pollutants degradation for sustainable environmental protection.
The remarkable performances suggest that this carbon material is a promising candidate for high-power output supercapacitor electrode materials.
Biocompatibility, durability, wear resistance, and robustness make this carbon material attractive for bio- and medical applications [9].
This carbon material was evaluated by testing it as a sorbent for several pesticides in aqueous solutions.
The present findings support further investigation of this carbon material as a combined carbon-based filtration/adsorbent device for direct blood purification.
In this study, this carbon material was characterized and a significant fraction is graphene with a low oxygen content.
This paper also shows how the redox functionality can be incorporated on the surface of this carbon material by impregnation with vanadium oxide species.
This carbon material shows a unique 3 nm cubic pore structure and ensured great electrical conductivity with high specific area (2085 m2085.
We also observe that the ORR catalytic activity of this carbon material can compare favorably with that of the state-of-the-art commercial 20 wt.% Pt/C catalyst, but also the former's electrocatalysis stability to the ORR and methanol-tolerant performance are better, suggesting a promising applications in alkaline fuel cells.
