Aggregation/disaggregation of microalgal-bacterial flocs in high-rate oxidation ponds is a response to biotic/abiotic-induced changes in microbial community structure

During wastewater treatment by integrated algal pond systems (IAPS), microalgal-bacterial flocs (MaB-flocs) form naturally but periodically disaggregate, resulting in poor settling, low biomass recovery, and reduced effluent quality. This study investigates biotic/abiotic-induced changes in microbia...

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Veröffentlicht in:Journal of applied phycology 2024-06, Vol.36 (3), p.1311-1325
Hauptverfasser: Keshinro, Taobat A., Keshinro, Olajide M., Titilawo, Yinka, Cowan, A. Keith
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Keshinro, Olajide M.
Titilawo, Yinka
Cowan, A. Keith
description During wastewater treatment by integrated algal pond systems (IAPS), microalgal-bacterial flocs (MaB-flocs) form naturally but periodically disaggregate, resulting in poor settling, low biomass recovery, and reduced effluent quality. This study investigates biotic/abiotic-induced changes in microbial community structure in high-rate algal oxidation ponds (HRAOP) of an IAPS on MaB-floc formation and stability during sewage treatment. Results show that dominance by  Pseudopediastrum ,  Desmodesmus  and  Micractinium  species in spring and summer and the chytrids,  Paraphysoderma  sp. in spring and  Sanchytrium  sp. in summer, occurred coincident with enhanced MaB-floc formation and biomass recovery (≥90%). In winter, poor floc formation and low biomass recovery were associated with dominance by  Desmodesmus ,  Chlorella , and the Chlorella -like genus  Micractinium . A principal components analysis (PCA) confirmed that combinations of colonial microalgae and associated parasitic chytrids underpin MaB-floc formation and stability in spring and summer and that unicells dominated in winter. Dominance by  Thiothrix  sp. coincided with floc disaggregation. Thus, changes in season, composition and abundance of colonial microalgae and associated parasitic fungi appeared to impact MaB-floc formation, whereas species composition of the bacterial population and emergence of  Thiothrix  coincided with floc instability and disaggregation.
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subjects Abiotic factors
Aggregation
Algae
Aquatic microorganisms
Bacteria
Biomass
Biomedical and Life Sciences
Chlorella
Community composition
Community structure
Composition
Desmodesmus
Disaggregation
Dominance
Ecology
Freshwater & Marine Ecology
Fungi
Life Sciences
Micractinium
Microalgae
Microbiomes
Microorganisms
Oxidation
Oxidation ponds
Phytoplankton
Plant Physiology
Plant Sciences
Ponds
Principal components analysis
Recovery
Sewage
Sewage treatment
Species composition
Spring
Spring (season)
Summer
Thiothrix
Waste stabilization ponds
Wastewater treatment
Winter
title Aggregation/disaggregation of microalgal-bacterial flocs in high-rate oxidation ponds is a response to biotic/abiotic-induced changes in microbial community structure
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