Microfibres and coliforms determination and removal from wastewater treatment effluent

The research aim was to remove as many microfibres, microplastics and harmful bacteria as possible from the polluted water to produce suitable water for reuse. The test water was the effluent from the municipal wastewater treatment plant in Shalek Valley. A pilot plant with a ceramic SiC filter for membrane filtration and ozonation of filtered water was set up to remove suspended solids, micro-fibres, microplastics, and harmful microorganisms. The Microfibers Detection System was developed to identify microfibers on-site. The results showed that the microfiltration system combined with ozone treatment effectively removed total suspended solids, microfibres, microplastics and microorganisms. A detection system method for identifying microfibres and microplastic particles was used to determine how many microfibres and microorganisms were identified by membrane filtration and ozonation. The study showed that membrane filtration successfully removed all microfibres, 88% of total coliforms and 93% of E. coli . After additional ozonation, we achieved a 100% removal rate of total coliforms and a 100% removal rate of E. coli . The treated water (effluent from the municipal wastewater treatment plant) can be used for specific purposes, such as agricultural irrigation or enhancing bathing waters near the plant's water effluent.

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Publication Details

Journal
Cleaner Engineering and Technology
Published
2024-09-08
DOI
https://doi.org/10.1016/j.clet.2024.100806
Citations
6
Primary Topic
Microplastics and Plastic Pollution
Type
article
Field-Weighted Citation Impact
0.80
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article

Microfibres and coliforms determination and removal from wastewater treatment effluent

Nataša Uranjek, Milenko Roš, Hakim El Khiar, Aleksandra Lobnik et al.
6 citations
Cleaner Engineering and Technology
Microplastics and Plastic Pollution
0.80
article

Microfibres and coliforms determination and removal from wastewater treatment effluent

Nataša Uranjek, Milenko Roš, Hakim El Khiar, Aleksandra Lobnik, Jolanda Rihter Pikl
article en
6 citations

Abstract

The research aim was to remove as many microfibres, microplastics and harmful bacteria as possible from the polluted water to produce suitable water for reuse. The test water was the effluent from the municipal wastewater treatment plant in Shalek Valley. A pilot plant with a ceramic SiC filter for membrane filtration and ozonation of filtered water was set up to remove suspended solids, micro-fibres, microplastics, and harmful microorganisms. The Microfibers Detection System was developed to identify microfibers on-site. The results showed that the microfiltration system combined with ozone treatment effectively removed total suspended solids, microfibres, microplastics and microorganisms. A detection system method for identifying microfibres and microplastic particles was used to determine how many microfibres and microorganisms were identified by membrane filtration and ozonation. The study showed that membrane filtration successfully removed all microfibres, 88% of total coliforms and 93% of E. coli . After additional ozonation, we achieved a 100% removal rate of total coliforms and a 100% removal rate of E. coli . The treated water (effluent from the municipal wastewater treatment plant) can be used for specific purposes, such as agricultural irrigation or enhancing bathing waters near the plant's water effluent.

Cleaner Engineering and TechnologyVol. 22
University of Maribor (SI), Šolski Center Velenje (SI), PUH Team (Slovenia) (SI), College of Environmental Protection (SI), ERICo (Slovenia) (SI)
Clean water and sanitation
Openalex Percentile: Top 34%
Microplastics and Plastic Pollution
0.80
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