ZIF-67 derived Co/N carbon hollow fiber membrane with excellent decontamination performance

From nano- to macroarchitectures: designing and constructing MOF-derived porous materials for persulfate-based advanced oxidation processes

“…9j and k). 124 As shown in Fig. 9l and m, the outer and inner diameters of the composite HFM are around 1.5 mm and 0.8 mm.…”

Reduction of Ultrafiltration Membrane Fouling by the Pretreatment Removal of Emerging Pollutants: A Review

“…Xie et al synthesized Co/N carbon hollow-fiber UF membranes derived from ZIF-67. Through special catalytic sites, the application of electric fields, and size interception, the efficiency and electrostatic repulsion of the AOPs were effectively improved, and membrane fouling caused by organic pollutant deposition was effectively inhibited [ 173 ]. The strategy of applying an electric field causes AOPs to have special activity and stability, which proves that the electro-assisted membrane-based AOP process is a sustainable and feasible strategy [ 173 ].…”

“…Through special catalytic sites, the application of electric fields, and size interception, the efficiency and electrostatic repulsion of the AOPs were effectively improved, and membrane fouling caused by organic pollutant deposition was effectively inhibited [ 173 ]. The strategy of applying an electric field causes AOPs to have special activity and stability, which proves that the electro-assisted membrane-based AOP process is a sustainable and feasible strategy [ 173 ]. Zhang et al adopted a heterogeneous Fenton system to implant iron oxychloride into ceramic UF membrane pores, effectively solving the problem of AOPs.…”

Albumin protein encapsulation into a ZIF-8 framework with Co-LDH-based hierarchical architectures for robust catalytic reduction

“…Due to their unique ability to be easily synthesized and customized with appropriate metal ions and organic linkers, ZIFs offer unparalleled exibility for cuttingedge applications. [18][19][20][21] This makes ZIFs exceptional templates for nanoscientists seeking to explore the frontiers of materials science and engineering. In this context, the ability to ne-tune the chemistry and pore structure of ZIFs has been a major area of interest and innovation in this eld.…”

“…[22][23][24] By precisely controlling the composition and size of organic ligands and metal ions, researchers can customize the properties of ZIFs to meet the needs of diverse challenges, ranging from energy storage and conversion to environmental remediation. 18,[25][26][27][28][29] The versatility of ZIFs and their groundbreaking applications have inspired many researchers to investigate their potential, bridging the gap between materials science and engineering. Zhu et al 30 developed an anemone-shaped ZIF-67@CNTS material with excellent electromagnetic wave absorption properties.…”