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Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Remediation Sign in to save

Removal of microplastics by algal biomass from aqueous solutions: performance, optimization, and modeling

Scientific Reports 2025 33 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 73 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Fatemeh Lotfigolsefidi, Fatemeh Lotfigolsefidi, Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Mojtaba Davoudi, Ziaeddin Bonyadi Ziaeddin Bonyadi Maryam Sarkhosh, Maryam Sarkhosh, Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Mojtaba Davoudi, Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Ziaeddin Bonyadi Mojtaba Davoudi, Ziaeddin Bonyadi

Summary

Researchers found that algae (Chlorella vulgaris) can remove up to 73% of polystyrene microplastics from water under optimized conditions. Using algae as a natural, eco-friendly alternative to chemical treatments offers a sustainable approach to cleaning up microplastic pollution in water systems without introducing additional harmful substances.

Microplastics (MPs) are emerging pollutants that pose significant risks to ecosystems due to their inherent toxicity, capacity to accumulate various pollutants, and potential for synergistic impacts. Given these concerns, the focus of this research is on the critical need for effective MPs removal from aquatic environments. Using BBD method, this study aimed to identify the key parameters affecting the removal of MPs by algal biomass from aqueous solutions. The investigation specifically analyzed the effects of varying initial PS concentrations (100 to 900 mg/L), pH values (4 to 10), reaction durations (20 to 40 min), and C. vulgaris dosages (50 to 400 mg/L). Data analysis indicated that QM best described the experimental findings, leading to the identification of optimal conditions for PS removal: a pH of 7.5, a reaction time of 31.90 min, a C. vulgaris dosage of 274.05 mg/L, and a PS level of 789.37 mg/L. Under these conditions, the study achieved a maximum removal efficiency of 73.01% for PS. These outcomes demonstrate the significant potential of C. vulgaris in efficiently removing PS from water. Furthermore, using algae as a green, eco-friendly alternative to conventional chemical coagulants offers a practical and sustainable approach to addressing MPs pollution in our water systems.

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