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Engineered biochar-metal oxide nanocomposites for targeted dye remediation in textile wastewater

Faisal MehmoodBioenergy and Environment Science & Technology Laboratory , College of Engineering , China Agricultural University , Beijing 100083 , ChinaMuhammad NadeemBeijing Key Laboratory of Farmland Soil Pollution Prevention and Remediation and College of Resources and Environmental Sciences , China Agricultural University , Beijing 100193 , ChinaObid TursunovRen SihaoBioenergy and Environment Science & Technology Laboratory , College of Engineering , China Agricultural University , Beijing 100083 , ChinaYongkun FuBioenergy and Environment Science & Technology Laboratory , College of Engineering , China Agricultural University , Beijing 100083 , ChinaRenjie DongBakhtiyor MeliyevJizzakh Polytechnic Institute , Jizzakh 130100 , UzbekistanMakhsudjon OchilovJizzakh Polytechnic Institute , Jizzakh 130100 , UzbekistanGayrat EgamnazarovJizzakh Polytechnic Institute , Jizzakh 130100 , UzbekistanYuguang Zhou

2026

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Litsenziya: cc-by

ABI

Annotatsiya

The global textile industry releases nearly 280,000 tons of synthetic dyes each year, generating persistent pollutants that disrupt aquatic ecosystems as well as pose carcinogenic and mutagenic risks.Conventional treatment technologies such as activated carbon adsorption, advanced oxidation processes, and biological degradation often fail to address the complexity of real industrial effluents.This review critically evaluated engineered biochar metal oxide nanocomposites (BMO-NCs) as emerging dual-functional materials that integrate adsorption with photocatalytic degradation for targeted dye removal.The authors highlighted how the tunable surface chemistry, hierarchical porosity, and electronic conductivity of biochar synergize with metal-oxide-driven reactive oxygen species (•OH, •O₂⁻, h⁺) to enhance degradation pathways.While laboratory studies frequently report >95% dye removal, real-wastewater conditions such as fluctuating pH, high salinity, and competing contaminants significantly reduce performance.To bridge this gap, key research priorities were identified, including mechanistic validation of ROS via in-situ ESR, LC-MS tracking of degradation intermediates, long-term regeneration and metal-leaching assessments, and standardized testing protocols for industrial effluents.This review provided design principles for scalable, safe, and circular-economy-aligned BMO-NCs, underscoring their potential contribution to Sustainable Development Goal 6.

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Identifikatorlar

DOI: 10.12911/22998993/214916

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