A metal–organic framework approach to engineer mesoporous ZnMnO₃/C towards enhanced lithium storage

Abstract

A feasible synthetic method is proposed for the construction of ZnMnO3/C derived from a bimetallic metal–organic framework as a versatile anode material towards lithium storage.

Structure–property–performance relationship of vanadium- and manganese-based metal–organic frameworks and their derivatives for energy storage and conversion applications

“…Besides, carbon doping in ZnMnO 3 improves the conductivity and enhances Li + adsorption, while a high reversible capacity and favorable rate capability are also obtained. 284 As suggested by Cao et al, the design and control of the size of hollow structures play a decisive role in improving the cyclic stability of electrode materials in the batteries. They studied Mn-MOF-derived mini-hollow polyhedron Mn 2 O 3 for Li-ion batteries.…”

“…Besides, carbon doping in ZnMnO 3 improves the conductivity and enhances Li + adsorption, while a high reversible capacity and favorable rate capability are also obtained. 284…”

Electrochemical Studies of Nanoflakes like ZnMnO3 Perovskites for the Determination of Priority Organic Pollutant N-hydroxysuccinimide

“…This type of surface modification provided an excellent active surface area and electrocatalytic responses towards biomolecules detection. [14][15][16] Herein, a surfactant assisted co-precipitation technique was utilized for preparing perovskite type ZnMnO 3 nanoflakes and was thoroughly investigated by using variety of spectroscopic, analytical and electrochemical methods. An as-prepared ZnMnO 3 nanoflakes were allowed to fabricate the electrochemical probe for the detection NHS in real samples such as spiked urine samples has never been reported.…”