Abstract
The integrated multitrophic aquaculture (IMTA) pond represents a unique ecosystem in which various species of aquatic organisms with different trophic levels are co-cultured together, achieving ecological and economic effects by using ecological principles. This study was designed to investigate the composition pattern of the bacterial communities and potential drivers in IMTA ponds of Penaeus japonicus-Portunus trituberculatus (SC) and P. japonicus-P. trituberculatus-Sinonovacula constricta (SCC). SC and SCC sediments were collected in July, October, and December and used to sequence the 16S rRNA gene and analyze physical and chemical indicators. The α diversity of the bacterial community was not significantly different between the sediments of SC and SCC. The dominant phyla of bacterial communities in sediments of SC and SCC shared a large number of common members. Bacterial members involved in denitrification were biomarkers in the sediment of SC, while biomarkers involved in nitrification, assimilatory nitrate reduction, and nitrogen fixation were found in the sediment of SCC. The β diversity was significantly different between SC and SCC. The bacterial community composition dissimilarity was significantly correlated with environmental factors, which were driven by pH, NH4+ concentration in the sediment (S_ NH4+), and NO2− concentration in the sediment (S_ NO2−) in July, and pH was the most important explanatory variable for the community composition dissimilarity (P < 0.05). The dissimilarity was driven by oxidation–reduction potential (ORP) and NO2− concentration in the pore water of sediments (P_ NO2−) in October, and P_ NO2− was the most important variable (P < 0.05). The S_ NH4+, S_ NO2−, and pH exhibited interactions for the dissimilarity in December, and the S_ NH4+ was the most important variable (P < 0.05). Additionally, the pH was significantly correlated with the S_ NH4+ and S. constricta densities (P < 0.05). These results indicated that the co-culture of S. constricta in shrimp-crab ponds may cause specific composition patterns of bacterial communities by influencing pH and inorganic nitrogen sources, resulting in an increase in bacterial mineralization and nutrient catabolism and a shift in the nitrogen cycling processes from denitrification to nitrification, assimilatory nitrate reduction, and nitrogen fixation in the sediment.
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Acknowledgements
The authors thank Prof. Fang Wang (Ocean University of China) for her guidance and advices on the experimental design. The authors also thank Changjian Li, Yizhuo, Jiang, Wenheng Li, Liye Yu, and Weijia Pu for their assistance during sample collection.
Funding
This work is supported by the National Key R&D Program of China, no.2019YFD0900402.
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Liu Qian: sample collection, sample determination, writing—original draft; Li Junnan: data curation, writing—original draft, formal analysis; Shan Hongwei: methodology, writing—review and editing, supervision; Xie Yicheng: sample collection, sample determination; Zhang Dongxu: data curation.
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Highlights
• Specific patterns and the drivers of the bacterial community in the sediment of two typical IMTA systems (shrimp-crab ponds and shrimp-crab-clam ponds) were studied.
• The α diversity of the bacterial community was not significantly different, whereas the β diversity was significantly different in shrimp-crab ponds and shrimp-crab-clam ponds.
• Clams caused differences in the bacterial community by influencing the physical and chemical factors of the sediment, and pH and NH4+ concentration were the dominant factors.
• The effects of clams on pH and inorganic nitrogen sources potentially shifted the nitrogen cycling process from denitrification to nitrification, assimilatory nitrate reduction and nitrogen fixation.
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Liu, Q., Li, J., Shan, H. et al. Specific patterns and drivers of the bacterial communities in the sediment of two typical integrated multitrophic aquaculture systems. Aquacult Int 30, 1369–1388 (2022). https://doi.org/10.1007/s10499-022-00862-2
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DOI: https://doi.org/10.1007/s10499-022-00862-2


