Fungal Diversity最新文献

Taxonomy and phylogeny of poroid Hymenochaetaceae based on the most comprehensive phylogenetic analyses are presented. A phylogeny based on a combined dataset of ITS and nLSU sequences for accepted genera of Hymenochaetaceae was analyzed and two or multigene phylogenies for most species of ten large genera including Coltricia, Fomitiporella, Fomitiporia, Fulvifomes, Fuscoporia, Inonotus, Phylloporia, Porodaedalea, Sanghuangporus and Tropicoporus, were carried out. Based on samples from 37 countries of five continents, seven new genera, Meganotus, Neophellinus, Nothonotus, Pachynotus, Perenninotus, Pseudophylloporia and Rigidonotus, are introduced, 37 new species, Coltricia tibetica, Fomitiporella crassa, F. queenslandica, Fomitiporia eucalypti, F. gatesii, F. ovoidospora, Fulvifomes azonatus, F. caligoporus, F. costaricense, F. floridanus, F. jouzaii, F. nakasoneae, F. subindicus, Fuscoporia sinuosa, F. submurina, Inonotus subradiatus, I. vietnamensis, Neomensularia castanopsidis, Pachynotus punctatus, Phellinus cuspidatus, P. subellipsoideus, Phylloporia minutissima, P. tabernaemontanae, Porodaedalea occidentiamericana, P. orientoamericana, P. qilianensis, P. schrenkianae, Pseudophylloporia australiana, Sanghuangporus australianus, S. lagerstroemiae, Tropicoporus angustisulcatus, T. hainanicus, T. lineatus, T. minus, T. ravidus, T. substratificans and T. tenuis, are described, and 108 new combinations are proposed. In addition, one illegitimate name and two invalid names are renamed, and Coltricia and Coltriciella were synonymized. The taxonomic relevance and limits of the new taxa are discussed. Photos and illustrations for 37 new species are presented, and a full description for each new species is given. Eventually, this study recognizes 672 species in 34 genera and provides a modern treatment of the poroid Hymenochaetaceae in the world. A key to the accepted poroid genera of Hymenochaetaceae is provided, and identification keys to the accepted species of 32 poroid genera worldwide are given. A synopsis description of each species is included in these keys.

Family Cortinariaceae currently includes only one genus, Cortinarius, which is the largest Agaricales genus, with thousands of species worldwide. The species are important ectomycorrhizal fungi and form associations with many vascular plant genera from tropicals to arctic regions. Genus Cortinarius contains a lot of morphological variation, and its complexity has led many taxonomists to specialize in particular on infrageneric groups. The previous attempts to divide Cortinarius have been shown to be unnatural and the phylogenetic studies done to date have not been able to resolve the higher-level classification of the group above section level. Genomic approaches have revolutionized our view on fungal relationships and provide a way to tackle difficult groups. We used both targeted capture sequencing and shallow whole genome sequencing to produce data and to perform phylogenomic analyses of 75 single-copy genes from 19 species. In addition, a wider 5-locus analysis of 245 species, from the Northern and Southern Hemispheres, was also done. Based on our results, a classification of the family Cortinariaceae into ten genera—Cortinarius, Phlegmacium, Thaxterogaster, Calonarius, Aureonarius, Cystinarius, Volvanarius, Hygronarius, Mystinarius, and Austrocortinarius—is proposed. Seven genera, 10 subgenera, and four sections are described as new to science and five subgenera are introduced as new combinations in a new rank. In addition, 41 section names and 514 species names are combined in new genera and four lecto- and epitypes designated. The position of Stephanopus in suborder Agaricineae remains to be studied. Targeted capture sequencing is used for the first time in fungal taxonomy in Basidiomycetes. It provides a cost-efficient way to produce -omics data in species-rich groups. The -omics data was produced from fungarium specimens up to 21 years old, demonstrating the value of museum specimens in the study of the fungal tree of life. This study is the first family revision in Agaricales based on genomics data and hopefully many others will soon follow.

Fungi are eukaryotes that play essential roles in ecosystems. Among fungi, Basidiomycota is one of the major phyla with more than 40,000 described species. We review species diversity of Basidiomycota from five groups with different lifestyles or habitats: saprobic in grass/forest litter, wood-decaying, yeast-like, ectomycorrhizal, and plant parasitic. Case studies of Agaricus, Cantharellus, Ganoderma, Gyroporus, Russula, Tricholoma, and groups of lichenicolous yeast-like fungi, rust fungi, and smut fungi are used to determine trends in discovery of biodiversity. In each case study, the number of new species published during 2009–2020 is analysed to determine the rate of discovery. Publication rates differ between taxa and reflect different states of progress for species discovery in different genera. The results showed that lichenicolous yeast-like taxa had the highest publication rate for new species in the past two decades, and it is likely this trend will continue in the next decade. The species discovery rate of plant parasitic basidiomycetes was low in the past ten years, and remained constant in the past 50 years. We also found that the establishment of comprehensive and robust taxonomic systems based on a joint global initiative by mycologists could promote and standardize the recognition of taxa. We estimated that more than 54,000 species of Basidiomycota will be discovered by 2030, and estimate a total of 1.4–4.2 million species of Basidiomycota globally. These numbers illustrate a huge gap between the described and yet unknown diversity in Basidiomycota.

Fungi are an understudied resource possessing huge potential for developing products that can greatly improve human well-being. In the current paper, we highlight some important discoveries and developments in applied mycology and interdisciplinary Life Science research. These examples concern recently introduced drugs for the treatment of infections and neurological diseases; application of -OMICS techniques and genetic tools in medical mycology and the regulation of mycotoxin production; as well as some highlights of mushroom cultivaton in Asia. Examples for new diagnostic tools in medical mycology and the exploitation of new candidates for therapeutic drugs, are also given. In addition, two entries illustrating the latest developments in the use of fungi for biodegradation and fungal biomaterial production are provided. Some other areas where there have been and/or will be significant developments are also included. It is our hope that this paper will help realise the importance of fungi as a potential industrial resource and see the next two decades bring forward many new fungal and fungus-derived products.