| Autor: |
Leite, Márcio Fernandes Alves1,2 (AUTHOR), Liu, Binbin3 (AUTHOR), Gómez Cardozo, Ernesto4 (AUTHOR), Silva, Hulda Rocha e4 (AUTHOR), Luz, Ronildson Lima4 (AUTHOR), Muchavisoy, Karol Henry Mavisoy4 (AUTHOR), Moraes, Flávio Henrique Reis4 (AUTHOR), Rousseau, Guillaume Xavier4 (AUTHOR), Kowalchuk, George2 (AUTHOR), Gehring, Christoph4 (AUTHOR), Kuramae, Eiko Eurya1,2 (AUTHOR) e.kuramae@nioo.knaw.nl |
| Předmět: |
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| Zdroj: |
Global Change Biology. Mar2023, Vol. 29 Issue 5, p1314-1327. 14p. |
| Abstrakt: |
An alarming and increasing deforestation rate threatens Amazon tropical ecosystems and subsequent degradation due to frequent fires. Agroforestry systems (AFS) may offer a sustainable alternative, reportedly mimicking the plant–soil interactions of the natural mature forest (MF). However, the role of microbial community in tropical AFS remains largely unknown. This knowledge is crucial for evaluating the sustainability of AFS and practices given the key role of microbes in the aboveground–belowground interactions. The current study, by comparing different AFS and successions of secondary and MFs, showed that AFS fostered distinct groups of bacterial community, diverging from the MFs, likely a result of management practices while secondary forests converged to the same soil microbiome found in the MF, by favoring the same groups of fungi. Model simulations reveal that AFS would require profound changes in aboveground biomass and in soil factors to reach the same microbiome found in MFs. In summary, AFS practices did not result in ecosystems mimicking natural forest plant–soil interactions but rather reshaped the ecosystem to a completely different relation between aboveground biomass, soil abiotic properties, and the soil microbiome. [ABSTRACT FROM AUTHOR] |
| Databáze: |
GreenFILE |
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