2D/2D black-BiOCl/ Fe2O3 heterojunction photo-Fenton catalytic system for enhanced visible-light tetracycline degradation

Engineered magnetic oxides nanoparticles as efficient sorbents for wastewater remediation: a review

“…Further, (Zhai et al 2021) described the photocatalytic activity of hematite doped on bismuth oxychloride nanosheets with a two-dimensional structure for degradation of tetracycline. The photocatalytic Fenton processes are used for the degradation of tetracycline in the presence of H 2 O 2 .…”

Brown TiO2-Based Fe–Ni Thiospinel Binary Nanocomposite as a Sustainable Catalyst with Synergistic Improvement Assisted by H2O2 and Ascorbic Acid for Round-the-Clock Removal of Rhodamine B

“…25,26 To fully benefit from the synergistic effect of photocatalysis technology with the photo-Fenton oxidation process, it is necessary to produce catalysts that respond to a wide solar spectrum, including visible light. 27 Defective titanium dioxide (TiO 2−x ) containing Ti 3+ centers and oxygen vacancies (O v ) has recently been reported to act as an efficient photocatalyst in the visible light region. 28 However, the combination of TiO 2−x with other semiconductors seems necessary to improve light absorption and decrease the electron−hole recombination rate.…”

Construction of high-performance g-C3N4-based photo-Fenton catalysts by ferrate-induced defect engineering

“…The frequently utilized antibiotics by various pharmaceutical and aquaculture industries become an indispensable part of modern society. 1 However, water resource pollution caused by the inappropriate and extensive use of various antibiotics and other pollutants threatens living beings and constitutes a significant part of the environmental problems. 2,3 Compared with other antibiotics, tetracycline (TC) is highly persistent and undegradable in the environment.…”

“…Photocatalysts can use visible light to generate photoelectronhole pairs and active radicals (OH, • O 2 − ) or to boost the reductive ferrikinetics in a photo-Fenton system. Considering their respective characteristics, researchers propose various semiconductor-based photo-Fenton systems for effective degradation of refractory environmental contaminants 1,7 Among all the photocatalysts, graphitic carbon nitride (g-C 3 N 4 ), as a nonmetallic conjugated photocatalyst, attracts wide attention owing to its chemical stability, appropriate band gap energy, and unique electronic structure. [13][14][15] However, it is still limited by the low surface area, visible light utilization, blocked charge separation, and low quantum efficiency 16,17 and thus needs further modification.…”

“…Photocatalysts can use visible light to generate photoelectron–hole pairs and active radicals (OH, ˙O 2 − ) or to boost the reductive ferrikinetics in a photo-Fenton system. Considering their respective characteristics, researchers propose various semiconductor-based photo-Fenton systems for effective degradation of refractory environmental contaminants 1,7…”