N-doped porous molybdenum carbide nanoflowers: A novel sensing platform for organophosphorus pesticides detecting

Electrochemical biosensors: rapid detection methods in wastewater-based epidemiology research

“…This study firstly demonstrated the feasibility of in situ fabrication of electrochemical enzyme sensing interfaces with composite nanomaterials and aptamers. In addition, Zhou et al 97 Environmental Science: Water Research & Technology Critical review prepared AChE biosensors with nitrogen-doped Mo 2 C nanoflowers. The 3D nanoflower structure of Mo 2 C nanoparticles was conducive to signal transmission and the exposure of surface-active sites, thus improving the detection performance of organophosphorus pesticides.…”

Recent advances in nanoflowers: compositional and structural diversification for potential applications

“… 92 Additionally, N-doped porous Mo 2 C nanoflowers have been used to fabricate acetylcholinesterase biosensors for detecting organophosphorus pesticides. 386 …”

Nanofibrous Cathode Catalysts with MoC Nanoparticles Embedded in N-Rich Carbon Shells for Low-Overpotential Li–CO2 Batteries

“…24,25 For example, molybdenum carbide was reported to be an efficient cathode catalyst for Li−CO 2 batteries. 6,26,27 It was demonstrated by first principles calculations that the final discharge product could be stabilized Li 2 C 2 O 4 , which can prevent further formation of Li 2 CO 3 and reduce the overpotential of the battery. 6 Therefore, to design the high-performance cathode catalysts, the issues including good electronic conductivity, decent CO 2 adsorption capability, and high CO 2 -RR and CO 2 -ER activities should be fully taken into consideration.…”

“…As demonstrated, a porous structure with pore diameters larger than 2 nm plays a decisive role in the capacity of discharge. More importantly, the incorporation of nanocatalysts, such as metals, metal oxides, and carbides with high CO 2 reduction/evolution reaction (CO 2 -RR/CO 2 -ER) activities is particularly efficient in promoting the performance of the cathode catalysts of Li–CO 2 batteries. , For example, molybdenum carbide was reported to be an efficient cathode catalyst for Li–CO 2 batteries. ,, It was demonstrated by first principles calculations that the final discharge product could be stabilized Li 2 C 2 O 4 , which can prevent further formation of Li 2 CO 3 and reduce the overpotential of the battery . Therefore, to design the high-performance cathode catalysts, the issues including good electronic conductivity, decent CO 2 adsorption capability, and high CO 2 -RR and CO 2 -ER activities should be fully taken into consideration.…”