Eco-evolutionary dynamics of plant-soil feedbacks explain the spread potential of a plant invader under climate warming and biocontrol herbivory
Year: 2025
Type: article
Abstract: Appendix TablesTable S1. Field experimental treatmentsTable S2. Herbivore damages of each field cages over four generations and population size at the fourth generationTable S3. DNA extraction and sequencing for soil microbial communityTable S4. Pool-seq genomic information for each Ambrosia artemisiifolia field experimental F4 populationTable S5. The variables used in DAGsTable S6. Pairwise FST for Ambrosia artemisiifolia offspringTable S7. Soil physicochemical propertiesTable S8. Effects of field treatments on soil physicochemical propertiesTable S9. Summary of bacterial phylum across all samplesTable S10. Summary of fungal phylum across all samplesTable S11. Summary of fungal trophic modes across all samplesTable S12. Microbial richness (number of operational taxonomic units), Shannon diversity for bacterial and fungal community, inversed Simpson diversity for bacterial and fungal community, rarefied richness for bacterial and fungal community and Faith’s phylogenetic diversity for bacterial and fungal community in the rhizosphere of Ambrosia artemisiifolia under control, Ambrosia with a history of herbivory, with a history of warming, with a history of both warming and herbivory and soil without Ambrosia growthTable S13. Effects of field treatments on bacterial richness (number of operational taxonomic units), Shannon diversity for bacterial and fungal community, inversed Simpson diversity for bacterial and fungal community, rarefied richness for bacterial and fungal community and Faith’s phylogenetic diversityTable S14. Effects of field treatments on fungal richness (number of operational taxonomic units), Shannon diversity for bacterial and fungal community, inversed Simpson diversity for bacterial and fungal community, rarefied richness for bacterial and fungal community and Faith’s phylogenetic diversityTable S15. Fungal trophic mode richness (number of operational taxonomic units), Shannon diversity for bacterial and fungal community, inversed Simpson diversity and Pielou's Evenness for groups of pathotroph, plant pathogen, saprotroph, symbiotroph and AMF in the rhizosphere of Ambrosia artemisiifolia under control, Ambrosia with a history of herbivory, with a history of warming, with a history of both warming and herbivory and soil without Ambrosia growthTable S16. Effects of field treatments on richness (number of operational taxonomic units), Shannon diversity for bacterial and fungal community, inversed Simpson diversity, evenness for groups of pathotroph, plant pathogen, saprotroph, symbiotroph and AMFTable S17. Plant-soil feedback, and pairwise FST or and plant pathogen distance for each approachTable S18. Statistic summary of plant-soil feedback for each approach and treatment by bootstrapTable S19. Effects of field treatments on the correlation between PSFs and biotic distanceTable S20. Total biomass of Ambrosia artemisiifolia in greenhouse plant-soil feedback experiment, and the plant genomic composition and abundance of three pathogens families in the soil used in the greenhouse experimentTable S21. Effects of field treatments on the correlation between total biomass and plant genomic composition, abundance of Microascaceae, of Sclerotiniaceae and of SympoventuriaceaeTable S22. Phenotypic traits of Ambrosia artemisiifolia in the greenhouse plant-soil feedback experimentTable S23. The posterior probability for each direction for two DAGsTable S24. The correlation between population size and soil abiotic and biotic propertiesDAG_model.r: the causal model code16Sfastq_seqData: the sequence data of 16SITSfastq_seqData: the sequence data of ITS
Source: Figshare
Author: SUN, Yan
Language: English
Subfield: Nature and Landscape Conservation
Field: Environmental Science
Domain: Physical Sciences
SDGs: Life on land, Zero hunger
Open Access status: green
OpenAlex ID: W6958713116