AI Article Synopsis
- Nickel-manganese spinel oxide (NiMnO) was combined with reduced graphene oxide hydrogel (rGOH) to create a highly porous 3D structure, enhancing its electrochemical properties.
- The hybrid material demonstrated exceptional glucose sensing capabilities, including high sensitivity, a wide measurable range, quick response time, and resistance to interference.
- Additionally, it exhibited impressive supercapacitor performance, showing high capacitance and efficiency, making it suitable for use in a self-powered glucose sensor device.
Article Abstract
Nickel-manganese spinel oxide (NiMnO) was hybridized with reduced graphene oxide hydrogel (rGOH) via a facile solvothermal process and a highly porous three-dimensional (3D) structure was constructed. NiMnO/rGOH exhibited excellent electrochemical performance due to the high specific surface area, excellent electrocatalytic activity, and enhanced electrical conductivity due to the synergetic effects between the two components. The NiMnO/rGOH exhibited excellent glucose sensing performance with high sensitivity (1310.8 μA mM cm), a wide linear range (2 μM-20 mM), rapid response time (<3.5 s), and anti-interference properties. Furthermore, it also showed excellent supercapacitor performance with a high capacitance (396.85 F g) and excellent energy and power density on account of the large surface area and pseudo-capacitor behavior of NiMnO. A self-powered glucose sensor can be fabricated with NiMnO/rGOH as both supercapacitor and glucose sensing electrodes.
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| http://dx.doi.org/10.1039/c7nr07748c | DOI Listing |
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