A review of metal-organic framework-derived carbon electrode materials for capacitive deionization

KOH-Activated Hollow ZIF-8 Derived Porous Carbon: Nanoarchitectured Control for Upgraded Capacitive Deionization and Supercapacitor

“…Despite such advantages, the overall salt ion adsorption capacity of CDI is largely determined by the unique physical and chemical properties of porous carbon materials. Important properties of porous carbons for the CDI application include specific surface area, porosity, structural morphology, and surface functional groups. − Therefore, a tailored design of porous materials for the electrode is necessary to achieve the superior salt adsorption capacity of CDI successfully.…”

High-performance trimethylamine gas sensors based on defect-engineering MOF-derived ZnO nanoclusters with tunable surface oxygen vacancies

“…It is a wellestablished method to obtain target derivatives by the rational design of MOFs structures. [24][25][26] Defect-engineering (DE) MOF derived MOS materials can be a promising research eld to develop high-performance gas sensors. Defect engineering is a deletion/migration process of MOF atoms/ions that is regulated by the type and addition sequence of different linkers to coordinate unsaturated metal sites (CUSs), thus rearranging the periodic MOF crystals.…”

Dimensional optimization enables high-performance capacitive deionization

“…226 With the property of controllable morphology, microstructure, optimal pore size distribution and satisfying electrical conductivity, the metal-organic framework-derived carbon is another competitive candidate for capacitive desalination. 227 3D nanostructured materials can be desalted by simple surface adsorption, or they can store ions inside the lattice structure for desalination. Therefore, we can divide 3D nanostructured materials into three categories for detailed analysis and summary: the surface adsorption type, lattice internal type and composite type.…”