Application of microbubble air flotation to harvest Microcystis sp. from agriculture wastewater: The regulation and mechanisms

The harvesting of microalgae is the main bottleneck of its large-scale biomass production, and seeking an efficient, green, and low-cost microalgae harvesting technology is one of the urgent problems to be solved. Microbubble air flotation has been proven to be an effective measure, but the mechanis...

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Veröffentlicht in:Biotechnology and bioengineering 2024-12, Vol.121 (12), p.3742-3753
Hauptverfasser: Ye, Jianfeng, Zhu, Zhihao, Song, Zhaofeng, Xu, Huiting, Xu, Tianchen, Liu, Hui
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container_issue 12
container_start_page 3742
container_title Biotechnology and bioengineering
container_volume 121
creator Ye, Jianfeng
Zhu, Zhihao
Song, Zhaofeng
Xu, Huiting
Xu, Tianchen
Liu, Hui
description The harvesting of microalgae is the main bottleneck of its large-scale biomass production, and seeking an efficient, green, and low-cost microalgae harvesting technology is one of the urgent problems to be solved. Microbubble air flotation has been proven to be an effective measure, but the mechanisms of microbubbles-algal cell attachment are still unclear. In this study, microbubble air flotation was used as a harvesting method for Microcystis cultured in agricultural wastewater. The process mechanism of microbubble air flotation harvesting microalgae in wastewater was fully revealed from three aspects (the design of bubble formation, the adhesion law, and the recovery rate of microalgae under different working conditions). The results show that the length of the release pipe is the main factor affecting the proportion of microbubbles with a particle size of less than 50 μm. In the process of adhesion, when the particle size of microbubbles is 0.6-1.7 times the size of Microcystis, the adhesion efficiency of microbubbles to Microcystis is the highest. Under the conditions of pressure 0.45 MPa, gas-liquid ratio 5%, and release pipe length 100 cm, the harvesting performance of Microcystis was the best. Microbubble air flotation has better harvesting performance (63.5%, collection rate) of Microcystis with higher density. By understanding the mechanism of microbubble flotation, the technical parameters of microbubble flotation for harvesting energy microalgae are optimized to provide support for the development of efficient and low-cost devices and equipment for collecting microalgae.
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Microbubble air flotation has been proven to be an effective measure, but the mechanisms of microbubbles-algal cell attachment are still unclear. In this study, microbubble air flotation was used as a harvesting method for Microcystis cultured in agricultural wastewater. The process mechanism of microbubble air flotation harvesting microalgae in wastewater was fully revealed from three aspects (the design of bubble formation, the adhesion law, and the recovery rate of microalgae under different working conditions). The results show that the length of the release pipe is the main factor affecting the proportion of microbubbles with a particle size of less than 50 μm. In the process of adhesion, when the particle size of microbubbles is 0.6-1.7 times the size of Microcystis, the adhesion efficiency of microbubbles to Microcystis is the highest. Under the conditions of pressure 0.45 MPa, gas-liquid ratio 5%, and release pipe length 100 cm, the harvesting performance of Microcystis was the best. Microbubble air flotation has better harvesting performance (63.5%, collection rate) of Microcystis with higher density. 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subjects Adhesion
Agricultural economics
Agricultural wastes
Agriculture - methods
Algae
Aquatic microorganisms
Cell adhesion
Energy harvesting
Flocculation
Flotation
Harvest
Microalgae
Microalgae - growth & development
Microbubbles
Microcystis
Microcystis - growth & development
Particle size
Pipes
Wastewater
Wastewater - chemistry
Wastewater - microbiology
Working conditions
title Application of microbubble air flotation to harvest Microcystis sp. from agriculture wastewater: The regulation and mechanisms
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