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• W3008889690 abstract "Abstract Background The consequences of deforestation and agricultural treatments are complex and affect all trophic levels. Changes of microbial community structure and composition associated with rainforest conversion to managed systems such as rubber and oil palm plantations have been shown by 16S rRNA gene analysis previously, but functional profile shifts have been rarely addressed. In this study, we analysed the effects of rainforest conversion to different converted land use systems, including agroforestry (“jungle rubber”) and monoculture plantations comprising rubber and oil palm, on soilborne microbial communities by metagenomic shotgun sequencing in Sumatra, Indonesia. Results The diversity of bacteria and archaea decreased whereas diversity of fungi increased in the converted land use systems. The soil microbiome was dominated by bacteria followed by fungi. We detected negative effects of land use conversion on the abundance of Proteobacteria (especially on Rhizobiales and Burkholderiales ) and positive effects on the abundance of Acidobacteria and Actinobacteria . These abundance changes were mainly driven by pH, C:N ratio, and Fe, C and N content. With increasing land use intensity, the functional diversity decreased for bacteria, archaea and fungi. Gene abundances of specific metabolisms such as nitrogen metabolism and carbon fixation were affected by land use management practices. The abundance of genes related to denitrification and nitrogen fixation increased in plantations while abundance of genes involved in nitrification and methane oxidation showed no significant difference. Linking taxonomic and functional assignment per read indicated that nitrogen metabolism-related genes were mostly assigned to members of the Rhizobiales and Burkholderiales . Abundances of carbon fixation genes increased also with increasing land use intensity. Motility- and interaction-related genes, especially genes involved in flagellar assembly and chemotaxis genes, decreased towards managed land use systems. This indicated a shift in mobility and interspecific interactions in bacterial communities within these soils. Conclusions Rainforest conversion to managed land use systems drastically affects structure and functional potential of soil microbial communities. The decrease in motility- and interaction-related functions from rainforest to converted land use systems indicated not only a shift in nutrient cycling but also in community dynamics. Fertilizer application and correspondingly higher availability of nutrients in intensively managed plantations lead to an environment in which interspecific interactions are not favoured compared to rainforest soils. We could directly link effects of land management, microbial community structure and functional potential for several metabolic processes. As our study is the first study of this size and detail on soil microbial communities in tropical systems, we provide a basis for further analyses." @default.
• W3008889690 created "2020-03-06" @default.
• W3008889690 creator A5009891235 @default.
• W3008889690 creator A5066487226 @default.
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• W3008889690 date "2020-02-03" @default.
• W3008889690 modified "2023-10-11" @default.
• W3008889690 title "Unravelling the effects of tropical land use conversion on the soil microbiome" @default.
• W3008889690 cites W1248167682 @default.
• W3008889690 cites W1427544589 @default.
• W3008889690 cites W1604029064 @default.
• W3008889690 cites W1826237940 @default.
• W3008889690 cites W1834245627 @default.
• W3008889690 cites W1855544175 @default.
• W3008889690 cites W1895209316 @default.
• W3008889690 cites W1942798541 @default.
• W3008889690 cites W1952309072 @default.
• W3008889690 cites W1970786682 @default.
• W3008889690 cites W1980680725 @default.
• W3008889690 cites W1984113392 @default.
• W3008889690 cites W1986434576 @default.
• W3008889690 cites W1990817087 @default.
• W3008889690 cites W2009805973 @default.
• W3008889690 cites W2025667741 @default.
• W3008889690 cites W2026861577 @default.
• W3008889690 cites W2045193375 @default.
• W3008889690 cites W2062672358 @default.
• W3008889690 cites W2067944603 @default.
• W3008889690 cites W2084382408 @default.
• W3008889690 cites W2091213905 @default.
• W3008889690 cites W2093853999 @default.
• W3008889690 cites W2099382231 @default.
• W3008889690 cites W2110300022 @default.
• W3008889690 cites W2112429606 @default.
• W3008889690 cites W2124799197 @default.
• W3008889690 cites W2131869707 @default.
• W3008889690 cites W2133953663 @default.
• W3008889690 cites W2134732679 @default.
• W3008889690 cites W2139289250 @default.
• W3008889690 cites W2145859310 @default.
• W3008889690 cites W2152856675 @default.
• W3008889690 cites W2155498186 @default.
• W3008889690 cites W2163323094 @default.
• W3008889690 cites W2168761229 @default.
• W3008889690 cites W2170809966 @default.
• W3008889690 cites W2179438025 @default.
• W3008889690 cites W2180209337 @default.
• W3008889690 cites W2182247437 @default.
• W3008889690 cites W2206749097 @default.
• W3008889690 cites W2224243430 @default.
• W3008889690 cites W2273761496 @default.
• W3008889690 cites W2305066330 @default.
• W3008889690 cites W2337747100 @default.
• W3008889690 cites W2343738386 @default.
• W3008889690 cites W2346706264 @default.
• W3008889690 cites W2398027004 @default.
• W3008889690 cites W2399846079 @default.
• W3008889690 cites W2508047390 @default.
• W3008889690 cites W2511941815 @default.
• W3008889690 cites W2513911593 @default.
• W3008889690 cites W2555180552 @default.
• W3008889690 cites W2584675692 @default.
• W3008889690 cites W2594376002 @default.
• W3008889690 cites W2602374743 @default.
• W3008889690 cites W2620841976 @default.
• W3008889690 cites W2740329066 @default.
• W3008889690 cites W2748607273 @default.
• W3008889690 cites W2765864255 @default.
• W3008889690 cites W2765867579 @default.
• W3008889690 cites W2767091683 @default.
• W3008889690 cites W2770433344 @default.
• W3008889690 cites W2787735574 @default.
• W3008889690 cites W2792841057 @default.
• W3008889690 cites W2794132365 @default.
• W3008889690 cites W2809515135 @default.
• W3008889690 cites W2821958851 @default.
• W3008889690 cites W2897183357 @default.
• W3008889690 cites W2900695534 @default.
• W3008889690 cites W2904261192 @default.
• W3008889690 cites W2914708756 @default.
• W3008889690 cites W2919446934 @default.
• W3008889690 cites W2923747983 @default.
• W3008889690 cites W2944975071 @default.
• W3008889690 cites W2945213197 @default.
• W3008889690 cites W2951912016 @default.
• W3008889690 cites W2952152744 @default.
• W3008889690 cites W2952921381 @default.
• W3008889690 cites W2968450569 @default.
• W3008889690 cites W2972348732 @default.
• W3008889690 cites W4254687493 @default.
• W3008889690 cites W4294216483 @default.
• W3008889690 cites W970170549 @default.
• W3008889690 doi "https://doi.org/10.1186/s40793-020-0353-3" @default.
• W3008889690 hasPubMedCentralId "https://www.ncbi.nlm.nih.gov/pmc/articles/8067294" @default.
• W3008889690 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33902736" @default.
• W3008889690 hasPublicationYear "2020" @default.
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