Zeolite-modified electrodes for electrochemical sensing of heavy metal ions – Progress and future directions

Copper foam supported g-C3N4-metal–organic framework bacteria biohybrid cathode catalyst for CO2 reduction in microbial electrosynthesis

“…There could be several possible explanations for this result and the most prominent reason among them could be the excellent structural feature of the g- C 3 N 4 -MOF. Particularly, MOF is a highly porous matrix with a tuned surface area, which facilitated a large surface to the microbes and also helped pre-concentrate the CO 2 /H 2 inside the matrix 55 , 56 . Moreover, the utilization of g- C 3 N 4 inside the MOF matrix greatly elevated the conductivity of the material, which assisted with low-resistance electron–electron transfer.…”

Hydroxyl covalent organic frameworks integrated on functionalized graphene for enhanced electrochemical energy storage

“…In the past few years, a variety of nanomaterials have been synthesized and widely developed and applied to modify electrodes for electrochemical energy storage, including porous carbon nanomaterials, [1][2][3] covalent organic frameworks (COFs), [4][5][6][7] crystalline inorganic zeolites, [8][9][10] metal-organic frameworks (MOFs), [11][12][13][14] etc. Their high specific surface area can maximize the formation of electric double-layer capacitors (EDLCs) by loading a good deal of electroactive substances on the electrode surface, 15 and the periodic pore structure provides an open path for electrolyte ion transport, 16 which can enhance electron transfer and sensitivity to a significant extent.…”