Toxic effects of triclosan in aquatic organisms: A review focusing on single and combined exposure of environmental conditions and pollutants

Pulsed-Bed Column Adsorption for Triclosan Removal Using Macadamia Nut Shell Activated Carbon

“…Its increasing presence in wastewater and water resources is now of significant environmental concern [1,2], particularly heightened by the focus of the COVID-19 pandemic on sanitation and personal hygiene [2,3]. Research has highlighted the adverse effects of TCS exposure on humans, aquatic life, and microbial communities, attributed to its ability to accumulate within their cells [4][5][6][7]. Studies conducted by Dar et al (2022) [4] have elucidated pathways leading to the formation of harmful by-products resulting from the interaction of triclosan with photodegradation, chlorination, and oxidation processes.…”

Computational modelling of graphene/aluminum nitride (GP/AlN) hybrid materials for the detection of 2,4 dichlorophenoxyacetic acid (DCP) pollutant

“…7–9 In research involving zebra fish, DCP tested positive for high toxicity due to its effect on the embryonic developmental process, causing morphological and behavioural defects in the offspring. 10 DCP can enter the environment through the decomposition of 2,4-dichlorophenoxyacetic acid in contaminated soil, and DCP can reach water bodies during rainfall. 11,12 During volatilization, DCP is introduced into the air and, when inhaled by humans, triggers nasal irritation and other cardiovascular problems.…”