Early stage root-Associated fungi show a high temporal turnover, but Are independent of beech progeny

• Published in: Microorganisms (Basel) Vol. 8; no. 2; p. 210
• Main Authors: Goldmann, Kezia, Ammerschubert, Silke, Pena, Rodica, Polle, Andrea, Wu, Bin-Wei, Wubet, Tesfaye, Buscot, François
• Format: Journal Article
• Language: English
• Published: Switzerland MDPI 04.02.2020; MDPI AG
• Subjects: beech transplant experiment; biodiversity exploratories; fagus sylvatica; fungal its2; illumina sequencing; rhizosphere; fungal ITS2; Beech Transplant Experiment; Biodiversity Exploratories; Illumina sequencing; Fagus sylvatica; rhizosphere
• ISSN: 2076-2607; 2076-2607
• DOI: 10.3390/microorganisms8020210

The relationship between trees and root-associated fungal communities is complex. By specific root deposits and other signal cues, different tree species are able to attract divergent sets of fungal species. Plant intraspecific differences can lead to variable fungal patterns in the root's proximity. Therefore, within the , we analyzed the impact of three different European beech ecotypes on the fungal communities in roots and the surrounding rhizosphere soil at two time points. Beech nuts were collected in three German sites in 2011. After one year, seedlings of the different progenies were out-planted on one site and eventually re-sampled in 2014 and 2017. We applied high-throughput sequencing of the fungal ITS2 to determine the correlation between tree progeny, a possible home-field advantage, plant development and root-associated fungal guilds under field conditions. Our result showed no effect of beech progeny on either fungal OTU richness or fungal community structure. However, over time the fungal OTU richness in roots increased and the fungal communities changed significantly, also in rhizosphere. In both plant compartments, the fungal communities displayed a high temporal turnover, indicating a permanent development and functional adaption of the root mycobiome of young beeches.