Zhao L, Groenewald J Z, Hernández-Restrepo M, Schroers H-J, Crous P W
Westerdijk Fungal Biodiversity Institute, Uppsalalaan 8, Utrecht, 3584 CT, The Netherlands.
Microbiology, Department of Biology, Utrecht University, Padualaan 8, Utrecht, 3584 CH, The Netherlands.
Stud Mycol. 2023 Jun;105:205-266. doi: 10.3114/sim.2023.105.03. Epub 2023 Jun 12.
(, ) species are common soil-borne fungi, endophytes, epiphytes, and saprotrophs. Sexual morphs of spp were placed in the genus , which was further segregated into the six subgenera , , , , , and . However, with the end of dual nomenclature, became the single depository for sexual and asexual morph-typified species. Species of are typically characterised by penicillate, sporodochial, and, in many cases, dimorphic conidiophores (primary and secondary conidiophores). Primary conidiophores are mononematous, either verticillium-like or narrowly penicillate. The secondary conidiophores generally form imbricate conidial chains that can collapse to slimy masses, particularly on sporodochia. In the present study, we investigated the species diversity within a collection of 420 strains of from the culture collection of, and personal collections at, the Westerdijk Fungal Biodiversity Institute in Utrecht, the Netherlands. Strains were analysed based on their morphological characters and molecular phylogeny. The latter used DNA sequence data of the nuclear ribosomal internal transcribed spacer regions and intervening 5.8S nrDNA (ITS) and partial 28S large subunit (LSU) nrDNA and partial protein encoding genes including the RNA polymerase II second largest subunit (), translation elongation factor 1-alpha () and β-tubulin (). Based on these results, the subgenera , , and are supported within . Furthermore, the genus is resurrected to accommodate the former subgenera and . The close relationship of and is strongly supported as both are inferred phylogenetically as sister-genera. New taxa include 24 new species and 10 new combinations. Recognition of distinguishes species typically forming a reduced perithecial stroma superficially on plant tissue from species in often forming well-developed, through bark erumpent stromata. The patterns of observed perithecial wall anatomies, perithecial wall and stroma interfaces, and asexual morph diversifications described in a previously compiled monograph are used for interpreting ancestral state reconstructions. It is inferred that the common ancestor of and may have formed perithecia superficially on leaves, possessed a perithecial wall consisting of a single region, and formed intercalary phialides in penicilli of conidiophores. Character interpretation may also allow hypothesising that diversification of morphs occurred then in the two genera independently and that the frequently stroma-linked morphs evolved together with the occupation of woody host niches and mycoparasitism. L. Zhao & Crous, L. Zhao & Crous, L. Zhao & Crous, L. Zhao & Crous, L. Zhao & Crous, L. Zhao & Crous, L. Zhao, Crous & Schroers, L. Zhao & Crous, L. Zhao, Crous & Schroers, L. Zhao & Crous, L. Zhao & Crous, L. Zhao, Crous & Schroers, , L. Zhao & Crous, L. Zhao, Crous & Schroers, L. Zhao & Crous, L. Zhao, Crous & Schroers, L. Zhao & Crous, L. Zhao, Crous & Schroers, L. Zhao, Crous & Schroers, L. Zhao & Crous, L. Zhao & Crous, L. Zhao & Crous, L. Zhao & Crous, L. Zhao & Crous. (J.A. Stev.) L. Zhao & Crous, (Y.P. Tan .) L. Zhao & Crous, (Y.P. Tan .) L. Zhao & Crous, (Samuels) L. Zhao, Crous & Schroers, (Schroers) L. Zhao, Crous & Schroers, (Schroers) L. Zhao, Crous & Schroers, (Lechat & J. Fourn.) L. Zhao & Crous, (Samuels) L. Zhao, Crous & Schroers, (Lechat & J. Fourn.) L. Zhao & Crous, (Höhn.) Schroers. W.H. Chen ., H. Yu & Y. Wang, R.H. Perera & K.D. Hyde, (Starbäck) Forin & Vizzini, Prasher & R. Chauhan, R.H. Perera ., (Sacc.) Forin & Vizzini, (J. Luo & W.Y. Zhuang) Z.Q. Zeng & W.Y. Zhuang. J.C. Schmidt ex Link, Bonord. Zhao L, Groenewald JZ, Hernández-Restrepo M, Schroers H-J, Crous PW (2023). Revising and allied genera in . : 205-266. doi: 10.3114/sim.2023.105.03.
( )物种是常见的土壤传播真菌、内生菌、附生菌和腐生菌。 属物种的有性形态被归入 属,该属进一步分为六个亚属,即 、 、 、 、 和 。然而,随着双名法的结束, 成为有性和无性形态典型物种的唯一存放处。 属物种的典型特征是帚状、分生孢子盘状,在许多情况下还有二型分生孢子梗(初生和次生分生孢子梗)。初生分生孢子梗是单丝的,要么像轮枝菌一样,要么是狭窄的帚状。次生分生孢子梗通常形成覆瓦状分生孢子链,这些链可能会塌缩成粘稠的团块,特别是在分生孢子盘上。在本研究中,我们调查了荷兰乌得勒支的 Westerdijk 真菌生物多样性研究所培养物保藏中心以及个人收藏的 420 株 菌株中的物种多样性。根据菌株的形态特征和分子系统发育对其进行分析。后者使用了核糖体核糖核酸内转录间隔区以及间隔的 5.8S 核糖体核糖核酸(ITS)、部分 28S 大亚基(LSU)核糖体核糖核酸和部分蛋白质编码基因的 DNA 序列数据,包括 RNA 聚合酶 II 第二大亚基( )、翻译延伸因子 1-α( )和 β-微管蛋白( )。基于这些结果,在 属中支持了 、 ( )、 和 亚属。此外, 属被重新启用,以容纳以前的 ( )和 ( )亚属。 属和 属的密切关系得到了有力支持,因为两者在系统发育上都被推断为姐妹属。新分类群包括 24 个新物种和 10 个新组合。 属的认定将通常在植物组织表面形成缩小的子囊壳基质的物种与 属中经常形成发育良好、穿透树皮突出的基质的物种区分开来。在先前编纂的专论中描述的观察到的子囊壳壁解剖结构、子囊壳壁与基质界面以及无性形态多样化模式用于解释祖先状态重建。据推断, 属和 属的共同祖先可能在叶片表面形成子囊壳,具有由单个区域组成的子囊壳壁,并在分生孢子梗的帚状体中形成间生瓶梗。性状解释也可能允许假设形态多样化随后在这两个属中独立发生,并且频繁与基质相关的 形态与占据木质寄主生态位和真菌寄生一起进化。 赵凌、克劳斯, 赵凌、克劳斯, 赵凌、克劳斯, 赵凌、克劳斯, 赵凌、克劳斯, 赵凌、克劳斯, 赵凌、克劳斯、施罗尔斯, 赵凌、克劳斯, 赵凌、克劳斯、施罗尔斯, 赵凌、克劳斯, 赵凌、克劳斯, 赵凌、克劳斯、施罗尔斯, , 赵凌、克劳斯, 赵凌、克劳斯、施罗尔斯, 赵凌、克劳斯, 赵凌