Telagathoti A, Probst M, Mandolini E, Peintner U
Institute of Microbiology, University of Innsbruck, Technikerstrasse 25, 6020 Innsbruck, Austria.
Stud Mycol. 2022 Sep;103:25-58. doi: 10.3114/sim.2022.103.02. Epub 2022 Oct 18.
Fungi are incredibly diverse, but they are unexplored, especially in the subalpine and alpine zone. are certainly one of the most abundant, species-rich, and widely distributed cultivable soil fungal families in terrestrial habitats, including subalpine and alpine zones. The phylogeny of was recently resolved based on current state of the art molecular techniques, and the paraphyletic genus () was divided into 13 monophyletic genera. Our extensive sampling campaigns in the Austrian Alps resulted in 139 different pure culture isolates representing 13 new species. For the definition of taxa, we applied both classical morphological criteria, as well as modern DNA-based methods. Phylogenetic relationships were resolved based on the ribosomal DNA internal transcribed spacer (rDNA ITS), the large subunit (LSU), and the DNA-directed RNA polymerase II largest subunit 1 (). In this study, we proposed a new genus and described 13 new species belonging to the genera , , and . In addition, we proposed eight new combinations, re-defined at species level, defined a neotype for and lecto- as well as epitypes for , and The rDNA ITS region is generally applied as classical barcoding gene for fungi. However, the obtained phylogenetic resolution is often too low for an accurate identification of closely related species of , especially for small sampling sizes. In such cases, unambiguous identification can be obtained based on morphological characters of pure culture isolates. Therefore, we also provide dichotomous keys for species identification within phylogenetic lineages. Telagathoti, Probst & Peintner; Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, M. Probst & Peintner, Telagathoti, Probst & Peintner; (W. Gams & Grinb.) Telagathoti, M. Probst & Peintner, (A.L. Sm.) Telagathoti, M. Probst & Peintner; (Y. Takash. ) Telagathoti, M. Probst & Peintner, (Linnem. ex W. Gams) Telagathoti, M. Probst & Peintner, (Hyang B. Lee ) Telagathoti, M. Probst & Peintner, (Tiegh.) Telagathoti, M. Probst & Peintner, (Degawa) Telagathoti, M. Probst & Peintner, (W. Gams & Carreiro) Telagathoti, M. Probst & Peintner; var. A.L. Sm., Linnem., Linnem. Peyronel. Telagathoti A, Probst M, Mandolini E, Peintner U (2022). from subalpine and alpine habitats: new species of and : 25-58. doi: 10.3114/sim.2022.103.02.
真菌种类极其多样,但尚未得到充分研究,尤其是在亚高山和高山地区。[具体真菌类群名称]无疑是陆地生境中最丰富、物种最丰富且分布最广泛的可培养土壤真菌家族之一,包括亚高山和高山地区。最近,基于当前最先进的分子技术解析了[具体真菌类群名称]的系统发育,多系的[属名]属被划分为13个单系属。我们在奥地利阿尔卑斯山进行的广泛采样活动获得了139个不同的[具体真菌类群名称]纯培养分离物,代表13个新物种。对于分类单元的定义,我们既应用了经典的形态学标准,也采用了基于现代DNA的方法。基于核糖体DNA内部转录间隔区(rDNA ITS)、大亚基(LSU)和DNA指导的RNA聚合酶II最大亚基1([相关基因名称])解析了系统发育关系。在本研究中,我们提出了一个新属,并描述了属于[具体属名1]、[具体属名2]、[具体属名3]和[具体属名4]属的13个新物种。此外,我们提出了8个新组合,在物种水平上重新定义了[具体分类单元名称],为[具体分类单元名称]定义了新模式,为[具体分类单元名称1]、[具体分类单元名称2]和[具体分类单元名称3]定义了选模式以及后选模式。rDNA ITS区域通常被用作真菌的经典条形码基因。然而,对于准确鉴定[具体真菌类群名称]的近缘物种,尤其是小样本量时,所获得的系统发育分辨率往往过低。在这种情况下,可以根据纯培养分离物的形态特征进行明确鉴定。因此,我们还提供了系统发育谱系内物种鉴定的双歧检索表。[多位作者及具体文献引用信息]