Arbuscular mycorrhizal fungi（AMF） are important during revegetation of mining sites, but few studies compared AMF community in revegetated sites with pristine adjacent ecosystems. The aim of this study was to assess...Arbuscular mycorrhizal fungi（AMF） are important during revegetation of mining sites, but few studies compared AMF community in revegetated sites with pristine adjacent ecosystems. The aim of this study was to assess AMF species richness in a revegetated iron-mining site and adjacent ecosystems and to relate AMF occurrence to soil chemical parameters. Soil samples were collected in dry and rainy seasons in a revegetated iron-mining site（RA） and compared with pristine ecosystems of forest（FL）, canga（NG）,and Cerrado（CE）. AMF species were identified by spore morphology from field and trap cultures and by LSU r DNA sequencing using Illumina. A total of 62 AMF species were recovered, pertaining to 18 genera and nine families of Glomeromycota. The largest number of species and families were detected in RA, and Acaulospora mellea and Glomus sp1 were the most frequent species. Species belonging to Glomeraceae and Acaulosporaceae accounted for 42%–48% of total species richness. Total number of spores and mycorrhizal inoculum potential tended to be higher in the dry than in the rainy season, except in RA. Sequences of uncultured Glomerales were dominant in all sites and seasons and five species were detected exclusively by DNA-based identification. Redundancy analysis evidenced soil p H,organic matter, aluminum, and iron as main factors influencing AMF presence. In conclusion, revegetation of the iron-mining site seems to be effective in maintaining a diverse AMF community and different approaches are complementary to reveal AMF species, despite the larger number of species being identified by traditional identification of field spores.展开更多
Tomato is a fruit of great nutritional interest in the basic human diet. The increasing use of agrochemicals to maintain production requires new alternatives to reduce environmental impact. Arbuscular mycorrhizae (AM)...Tomato is a fruit of great nutritional interest in the basic human diet. The increasing use of agrochemicals to maintain production requires new alternatives to reduce environmental impact. Arbuscular mycorrhizae (AM) are beneficial microorganisms that favor the growth of plants improving their nutrition and development, protecting the plant from biotic and abiotic stresses and favoring the production of bioactive compounds that increase their nutritional value. The use of biochar as soil conditioner is also considered an environmentally friendly resource. A greenhouse experiment was carried out to observe the effect of the use of biochar and AM inoculation on the quality of fruits, yield and polyphenols production of Cherry tomato, Solanum lycopersicum var. Cerasiforme. A mixture of rice husk biochar with sterile sand and two inoculums of Glomeromycota native fungi: from a wetland (GWI) and a fallow field (GFI) were used. Control treatments consisted of inoculation with both GWI and GFI in sterile sand. All treatments were irrigated with 50% La Molina? hydroponic solution. After 12 weeks plants were harvested to quantify weight, number and diameters of the fruits, and yield, total polyphenols in the fruit pulp were quantified. In the presence of biochar and the two inoculums, GFI and GWI, fruit production was favored throughout the experiment. The height of the plants was significantly greater in the presence of biochar. Plants grown in biochar and inoculated with GFI had a yield of 8.2 MT/Ha, increasing in 50% this value respect to control with biochar (5.33 MT/Ha). This treatment doubled the number of fruits (59.5) with respect to the control (32.5). Root colonization by GFI was not affected by the presence of biochar. It is concluded that the combined use of rice husk biochar and Glomeromycota fungal inoculation is recommended for increasing of Cherry tomato yield and improving fruit quality through the production of bioactive compounds.展开更多
Kalapi(Kalappia celebica)is an endemic legume of Sulawesi and has been included in the endangered category since the early 1980s.Conservation of the species is possible through ex situ culture techniques.Arbuscular my...Kalapi(Kalappia celebica)is an endemic legume of Sulawesi and has been included in the endangered category since the early 1980s.Conservation of the species is possible through ex situ culture techniques.Arbuscular mycorrhizal fungi(AMF)can accelerate plant growth which in turn supports the conservation of endangered species.This study aimed to assess the efficacy of local AMF to accelerate the growth of kalapi and increase nutrient uptake in kalapi grown in gold mine tailing media.There were three AMF treatments,Glomus claroideum,Glomus coronatum,and a mixture of both,plus the control.Each treatment was replicated three times,each consisting of five plants.The results show that the highest AMF colony was obtained by kalapi seedlings inoculated with Glomus coronatum and the mixture of AMF.The range of mycorrhizae inoculation effect values was 59.7–71.3%.AMF inoculation increased growth and dry weight of 4-month-old seedlings compared to controls.Dry and total weights of kalapi inoculated with G.coronatum were significantly different from those inoculated with the AMF mixture.However,they are not significantly different from kalapi inoculated with G.claroideum.The results also show that AMF increased nitrogen and phosphorous uptake by the roots,as well as nitrogen,phosphorous,potassium,manganese and iron by the shoots.All AMF treatments decreased potassium uptake in the roots,except in kalapi inoculated with G.coronatum.The AMF mixture decreased iron contents the roots by 15%.AMF can be developed into biofertilizer to support the conservation of kalapi in tropical Indonesia.展开更多
Climate change is a global emergency.It is only possible to pace down global change through addressing the triggers of it,greenhouse gas emissions.Despite commendable progress,we think that there is plenty of room to ...Climate change is a global emergency.It is only possible to pace down global change through addressing the triggers of it,greenhouse gas emissions.Despite commendable progress,we think that there is plenty of room to further make the studies addressing global change realistic,through integrating into them biotic interactions.We make a case for this statement through a bibliometrics analysis on agricultural studies exploring greenhouse gas emissions that consider arbuscular mycorrhiza.We show that even though mycorrhizal studies account right now for a small fraction of the agricultural literature,they get cited more often.We further demonstrate that mycorrhizal studies are typically more descriptive in their nature,which we support through comparing the keywords they list.We subsequently use the opportunity to identify shortcomings and opportunities to further integrate mycorrhiza into agricultural studies assaying greenhouse gas emissions.We finally make a call to better integrate arbuscular mycorrhiza into global change studies.展开更多
球囊菌门Glomeromycota是菌物界(Kingdom of Fungi)晚近新增加的一个门,下设1纲4目11科27属约300种丛枝菌根(AM)真菌,均是植物根系重要的共生真菌。同其他真菌分类研究过程相似,随着新种的不断发现、分类技术的进步与研究的深入,AM真菌...球囊菌门Glomeromycota是菌物界(Kingdom of Fungi)晚近新增加的一个门,下设1纲4目11科27属约300种丛枝菌根(AM)真菌,均是植物根系重要的共生真菌。同其他真菌分类研究过程相似,随着新种的不断发现、分类技术的进步与研究的深入,AM真菌分类系统及其菌种学名经历着持续不断的变更。然而,这些变动给AM真菌研究者造成了一定的困扰和混乱。本文在AM真菌系统发育分类重建的基础上,结合当前国际上AM真菌分类的最新进展,规范、正确并一致描述全球已知的AM真菌菌种拉丁文和中文学名,以纠正错误和统一AM真菌中文学名;同时标注了中国新记录种、新种和种质资源保藏种名录,以期促进中国AM真菌分类、资源多样性、群落结构及其相关研究。展开更多
2003年中国“丛枝菌根真菌种质资源库(Bank of Glomeromycota in China,BGC)”在北京市农林科学院植物营养与资源研究所建立。目前,该库已保藏丛枝菌根(AM)真菌40种190株,并面向全国开放,提供菌种资源与共享服务等,对国内AM真菌研究与...2003年中国“丛枝菌根真菌种质资源库(Bank of Glomeromycota in China,BGC)”在北京市农林科学院植物营养与资源研究所建立。目前,该库已保藏丛枝菌根(AM)真菌40种190株,并面向全国开放,提供菌种资源与共享服务等,对国内AM真菌研究与应用发挥了重要作用。本文作者按照菌种利用的研究方向,详细列举了中国保藏的AM真菌菌种资源的研究结果,以期为政府决策、相关研发单位、研究者和生产者等提供参考,以促进中国共生真菌研究的深入开展。展开更多
This article is the 17th in the Fungal Diversity Notes series which allows the researchers to publish fungal collections with updated reports of fungus-host and fungus-geography.Herein we report 97 taxa with four new ...This article is the 17th in the Fungal Diversity Notes series which allows the researchers to publish fungal collections with updated reports of fungus-host and fungus-geography.Herein we report 97 taxa with four new genera distributed in three phyla(Ascomycota,Glomeromycota and Mucoromycota),11 classes,38 orders and 62 families collected from various regions worldwide.This collection is further classified into taxa from 69 genera with four novel genera namely Jinshana,Lithophyllospora,Parapolyplosphaeria and Stegonsporiicola.Furthermore,71 new species,21 new records,one new combination and four novel phylogenetic placements are provided.The new species comprise Acrocalymma estuarinum,Aggregatorygma isidiatum,Alleppeysporonites elsikii,Amphibambusa aquatica,Apiospora hongheensis,Arthrobotrys tachengensis,Calonectria potisiana,Collariella hongheensis,Colletotrichum squamosae,Corynespora chengduensis,Diaporthe beijingensis,Dicellaesporites plicatus,Dicellaesporites verrucatus,Dictyoarthrinium endophyticum,Distoseptispora chiangraiensis,Dothiora eucalypti,Epicoccum indicum,Exesisporites chandrae,Fitzroyomyces pseudopandanicola,Fomitiporia exigua,Fomitiporia rondonii,Fulvifomes subthailandicus,Gigaspora siqueirae,Gymnopus ailaoensis,Hyalorbilia yunnanensis,Hygrocybe minimiholatra,H.mitsinjoensis,H.parviholatra,H.solis,H.vintsy,Helicogermslita kunmingensis,Jinshana tangtangiae,Kirschsteiniothelia dujuanhuensis,Lamproderma subcristatum,Leucoagaricus madagascarensis,Leucocoprinus mantadiaensis,Lithophyllospora australis,Marasmius qujingensis,Melomastia aquilariae,Monoporisporites jansoniusii,M.pattersonii,Monoporisporites valdiyae,Mucispora maesotensis,Mucor soli,Muyocopron yunnanensis,Nigrospora tomentosae,Ocellularia psorirregularis,Ophiocordyceps duyunensis,Oxneriaria nigrodisca,Oxydothis aquatica,O.filiforme,Phacidiella xishuangbannaensis,Phlebiopsis subgriseofuscescens,Pleurothecium takense,Pleurotus tuber-regium,Pseudochaetosphaeronema puerensis,Pseudodactylaria guttulate,Racheliella chinensis,Rhexoacrodictys fangensis,Roussoella neoaquatica,Rubroboletus pruinosus,Sanghuangporus subzonatus,Scytalidium assmuthi,Shrungabeeja kudremukhensis,Spirographa skorinae,Stanjehughesia bambusicola,Stegonsporiicola aurantiaca,Umbelopsis hingganensis,Vararia tenuata,Verruconis pakchongensis,Wongia bandungensis,and Zygosporium cymodoceae.The new combination is Parapolyplosphaeria thailandica(≡Polyplosphaeria thailandica).The 21 new hosts,geographical and habitat records comprise Acrocalymma fici,Apiculospora spartii,Aspergillus subramanianii,Camposporium ramosum,Clonostachys rogersoniana,Colletotrichum brevisporum,C.plurivorum,Collybiopsis gibbosa,Dictyosporium tratense,Distoseptispora adscendens,Exosporium livistonae,Ganoderma gibbosum,Graphis mikuraensis,Gymnosporangium paraphysatum,Lasiodiplodia thailandica,Moesziomyces bullatus,Penicillium cremeogriseum,P.echinulonalgiovense,P.javanicum,P.lanosocoeruleum,P.polonicum,and Pleurotus tuber-regium.Graphis chlorotica,G.panhalensis and G.parilis are given as novel phylogenetic placements.In addition,we provide the morphology of Tarzetta tibetensis which was missing in the previous Fungal Diversity Notes 1611–1716.Identification of characterization of all these taxa are supported by morphological and multigene phylogenetic analyses.展开更多
High-throughput sequencing studies generate vast amounts of taxonomic data.Evolutionary ecological hypotheses of the recovered taxa and Species Hypotheses are difficult to test due to problems with alignments and the ...High-throughput sequencing studies generate vast amounts of taxonomic data.Evolutionary ecological hypotheses of the recovered taxa and Species Hypotheses are difficult to test due to problems with alignments and the lack of a phylogenetic backbone.We propose an updated phylum-and class-level fungal classification accounting for monophyly and divergence time so that the main taxonomic ranks are more informative.Based on phylogenies and divergence time estimates,we adopt phylum rank to Aphelidiomycota,Basidiobolomycota,Calcarisporiellomycota,Glomeromycota,Entomophthoromycota,Entorrhizomycota,Kickxellomycota,Monoblepharomycota,Mortierellomycota and Olpidiomycota.We accept nine subkingdoms to accommodate these 18 phyla.We consider the kingdom Nucleariae(phyla Nuclearida and Fonticulida)as a sister group to the Fungi.We also introduce a perl script and a newick-formatted classification backbone for assigning Species Hypotheses into a hierarchical taxonomic framework,using this or any other classification system.We provide an example of testing evolutionary ecological hypotheses based on a global soil fungal data set.展开更多
Introduction:Here,we compare the arbuscular mycorrhizal fungal(AMF)community composition in soils from the root zone of the exotic invasive species Prosopis juliflora(EXO soils)and soils from the root zone of the nati...Introduction:Here,we compare the arbuscular mycorrhizal fungal(AMF)community composition in soils from the root zone of the exotic invasive species Prosopis juliflora(EXO soils)and soils from the root zone of the native species Mimosa tenuiflora(NAT soils)from five locations in the Brazilian tropical seasonal dry forest,Paraíba,Brazil,using morphological analyses.Results:AMF community composition in EXO and NAT soils were dissimilar.Available phosphorus,diversity index,spore abundance,and species richness were the main factors differing between the EXO and NAT soils.In general,the most dominant order present in the soils were Glomerales(44.8%)and Gigasporales(41.4%).The most abundant AMF genus in all studied soils was Funneliformis.Conclusions:Differences in AMF community composition were associated with(1)differences in the dominant plant species(P.juliflora vs.M.tenuiflora)and(2)changes in soil chemical factors(soil,pH,total organic carbon,total nitrogen,and available P)in EXO soils.These results contribute to a deeper view of the AMF communities in exotic soils and open new perspectives for ecological processes involving AMF species and exotic plant species in the Brazilian tropical seasonal dry forest.展开更多
基金supported by grants from FAPEMIG/FAPESP/FAPESPA/Vale S.A to the project“Diversity of plants and soil organisms with biotechnological potential and indicators of environmental recovery in Minas Gerais”(grant CRA-RDP00136-10)the Fundacao de AmparoàPesquisa e Inovacao do Estado de Santa Catarina(grant FAPESC 2016TR2257)
文摘Arbuscular mycorrhizal fungi（AMF） are important during revegetation of mining sites, but few studies compared AMF community in revegetated sites with pristine adjacent ecosystems. The aim of this study was to assess AMF species richness in a revegetated iron-mining site and adjacent ecosystems and to relate AMF occurrence to soil chemical parameters. Soil samples were collected in dry and rainy seasons in a revegetated iron-mining site（RA） and compared with pristine ecosystems of forest（FL）, canga（NG）,and Cerrado（CE）. AMF species were identified by spore morphology from field and trap cultures and by LSU r DNA sequencing using Illumina. A total of 62 AMF species were recovered, pertaining to 18 genera and nine families of Glomeromycota. The largest number of species and families were detected in RA, and Acaulospora mellea and Glomus sp1 were the most frequent species. Species belonging to Glomeraceae and Acaulosporaceae accounted for 42%–48% of total species richness. Total number of spores and mycorrhizal inoculum potential tended to be higher in the dry than in the rainy season, except in RA. Sequences of uncultured Glomerales were dominant in all sites and seasons and five species were detected exclusively by DNA-based identification. Redundancy analysis evidenced soil p H,organic matter, aluminum, and iron as main factors influencing AMF presence. In conclusion, revegetation of the iron-mining site seems to be effective in maintaining a diverse AMF community and different approaches are complementary to reveal AMF species, despite the larger number of species being identified by traditional identification of field spores.
基金Funded by grants 177-215 and 009-2017-FONDECYT from Fondo Nacional de Desarrollo Cientifico,Tecnologico y de Innovacion Tecnologica(Peru).
文摘Tomato is a fruit of great nutritional interest in the basic human diet. The increasing use of agrochemicals to maintain production requires new alternatives to reduce environmental impact. Arbuscular mycorrhizae (AM) are beneficial microorganisms that favor the growth of plants improving their nutrition and development, protecting the plant from biotic and abiotic stresses and favoring the production of bioactive compounds that increase their nutritional value. The use of biochar as soil conditioner is also considered an environmentally friendly resource. A greenhouse experiment was carried out to observe the effect of the use of biochar and AM inoculation on the quality of fruits, yield and polyphenols production of Cherry tomato, Solanum lycopersicum var. Cerasiforme. A mixture of rice husk biochar with sterile sand and two inoculums of Glomeromycota native fungi: from a wetland (GWI) and a fallow field (GFI) were used. Control treatments consisted of inoculation with both GWI and GFI in sterile sand. All treatments were irrigated with 50% La Molina? hydroponic solution. After 12 weeks plants were harvested to quantify weight, number and diameters of the fruits, and yield, total polyphenols in the fruit pulp were quantified. In the presence of biochar and the two inoculums, GFI and GWI, fruit production was favored throughout the experiment. The height of the plants was significantly greater in the presence of biochar. Plants grown in biochar and inoculated with GFI had a yield of 8.2 MT/Ha, increasing in 50% this value respect to control with biochar (5.33 MT/Ha). This treatment doubled the number of fruits (59.5) with respect to the control (32.5). Root colonization by GFI was not affected by the presence of biochar. It is concluded that the combined use of rice husk biochar and Glomeromycota fungal inoculation is recommended for increasing of Cherry tomato yield and improving fruit quality through the production of bioactive compounds.
基金supported by the funding support(No.171.SP2H/LT/DRPM/2019)from Directorate General of Resource,Science,Technology,Higher Education,Ministry of Research,Technology of the Republic of Indonesia。
文摘Kalapi(Kalappia celebica)is an endemic legume of Sulawesi and has been included in the endangered category since the early 1980s.Conservation of the species is possible through ex situ culture techniques.Arbuscular mycorrhizal fungi(AMF)can accelerate plant growth which in turn supports the conservation of endangered species.This study aimed to assess the efficacy of local AMF to accelerate the growth of kalapi and increase nutrient uptake in kalapi grown in gold mine tailing media.There were three AMF treatments,Glomus claroideum,Glomus coronatum,and a mixture of both,plus the control.Each treatment was replicated three times,each consisting of five plants.The results show that the highest AMF colony was obtained by kalapi seedlings inoculated with Glomus coronatum and the mixture of AMF.The range of mycorrhizae inoculation effect values was 59.7–71.3%.AMF inoculation increased growth and dry weight of 4-month-old seedlings compared to controls.Dry and total weights of kalapi inoculated with G.coronatum were significantly different from those inoculated with the AMF mixture.However,they are not significantly different from kalapi inoculated with G.claroideum.The results also show that AMF increased nitrogen and phosphorous uptake by the roots,as well as nitrogen,phosphorous,potassium,manganese and iron by the shoots.All AMF treatments decreased potassium uptake in the roots,except in kalapi inoculated with G.coronatum.The AMF mixture decreased iron contents the roots by 15%.AMF can be developed into biofertilizer to support the conservation of kalapi in tropical Indonesia.
基金the National Natural Science Foundation of China for Outstanding Foreign Young Scholars(No.32250610)for the project“Arbuscular mycorrhizae:A land of promise for mitigating terrestrial N2O emissions”awarded to SDV。
文摘Climate change is a global emergency.It is only possible to pace down global change through addressing the triggers of it,greenhouse gas emissions.Despite commendable progress,we think that there is plenty of room to further make the studies addressing global change realistic,through integrating into them biotic interactions.We make a case for this statement through a bibliometrics analysis on agricultural studies exploring greenhouse gas emissions that consider arbuscular mycorrhiza.We show that even though mycorrhizal studies account right now for a small fraction of the agricultural literature,they get cited more often.We further demonstrate that mycorrhizal studies are typically more descriptive in their nature,which we support through comparing the keywords they list.We subsequently use the opportunity to identify shortcomings and opportunities to further integrate mycorrhiza into agricultural studies assaying greenhouse gas emissions.We finally make a call to better integrate arbuscular mycorrhiza into global change studies.
文摘球囊菌门Glomeromycota是菌物界(Kingdom of Fungi)晚近新增加的一个门,下设1纲4目11科27属约300种丛枝菌根(AM)真菌,均是植物根系重要的共生真菌。同其他真菌分类研究过程相似,随着新种的不断发现、分类技术的进步与研究的深入,AM真菌分类系统及其菌种学名经历着持续不断的变更。然而,这些变动给AM真菌研究者造成了一定的困扰和混乱。本文在AM真菌系统发育分类重建的基础上,结合当前国际上AM真菌分类的最新进展,规范、正确并一致描述全球已知的AM真菌菌种拉丁文和中文学名,以纠正错误和统一AM真菌中文学名;同时标注了中国新记录种、新种和种质资源保藏种名录,以期促进中国AM真菌分类、资源多样性、群落结构及其相关研究。
文摘2003年中国“丛枝菌根真菌种质资源库(Bank of Glomeromycota in China,BGC)”在北京市农林科学院植物营养与资源研究所建立。目前,该库已保藏丛枝菌根(AM)真菌40种190株,并面向全国开放,提供菌种资源与共享服务等,对国内AM真菌研究与应用发挥了重要作用。本文作者按照菌种利用的研究方向,详细列举了中国保藏的AM真菌菌种资源的研究结果,以期为政府决策、相关研发单位、研究者和生产者等提供参考,以促进中国共生真菌研究的深入开展。
基金National Natural Science Foundation of China(Nos.32370021 and 31860008)the Innovative team program of the Department of Education of Guangdong Province(Nos.2022KCXTD015 and 2022ZDJS020)+75 种基金the Project of Fungi Investigation in Tomur Mountains National Nature Reserve(2021-01-139-2)the National Natural Science Foundation of China(No.32100012)the Science and Technology Bureau of Guangzhou City(202201011618)to acknowledge Zhongkai University of Agriculture and Engineering,talent funding(Grant number KA210319288)the Guangzhou Science and Technology Plan Project(2023A04J1427)the Key Laboratory of Green Prevention and Control on Fruits and Vegetables in South China,Guangdong(KA21031C502)Zhongkai University of Agriculture and Engineering,Guangzhou,Guangdong,China(KA22016B746)for financial research supportthe UP System Balik PhD Program(OVPAA-BPhD-2022-02)Yunnan Department of Sciences and Technology of China(Grant No:202101AS070045,202205AM070007,202302AE090023,202303AP140001)the financial support provided by the Distinguished Scientist Fellowship Program(DSFP)at King Saud University in Riyadh,Saudi ArabiaScience&Engineering Research Board(SERB),Department of Science&Technology(DST)Govt.of India(Scheme No.CRG/2020/006053)Institution of Eminence(IoE)Scheme,Ministry of Human Resource and Development(MHRD),Govt.of India(No.R/Dev/D/IoE/Incentive/2021-22/32387)for providing financial supportGenivaldo Alves-Silva,Elisandro R.Drechsler-Santos,Rosa M.B.da Silveira,and Aristóteles Góes-Neto are supported by Conselho Nacional de Desenvolvimento Científico e Tecnológico(CNPq)(Grant No.153025/2022-0,310150/2022-1,308122/2019-4,308880/2022-6,respectively)the CNPq and FAPESC under the PROTAX program(Grant No.FAPESC 2021TR390,Grant No.CNPq 441821/2020-0)and M.E.Engels for collectionsde Desenvolvimento Científico e Tecnológico(CNPq),Brazil,that provided research grants to B.T.Goto(proc.306632/2022-5)support from the National Science and Technology Council is acknowledged(101-2621-B-019-001-MY3)supported by Prof.Dr.M.Schnittler(University of Greifswald,Germany),through the DFG project RESPONSE(RTG2010)study by Ralaiveloarisoa Asupported by the Today’s Flora for Tomorrow project funded by a generous donor through the Kew Foundation,and by a grant from the Bentham-Moxon Trustsupported by the Bulgarian National Science Fund(Grant no.KP-06-N51/10/16.11.2021)the herbarium at the Botanic Garden and Botanical Museum Berlin received support from the SYNTHESYS Plus Project http://www.synthesys.info,which is financed by the H2020 Research Infrastructures Programme(Grant no.DE-TAF-8193)providing tuition fee scholarship.The Center for Yunnan Plateau Biological Resources Protection and Utilization,College of Biological Resource and Food Engineering,Qujing Normal University is thanked for the facilities provided for the research worksupported by the National Natural Science Foundation of China(No.32060012)Muhammad Usman and Abdul Nasir Khalid would like to thank Dr.Kamran Habib,Dr.Muhammad Ali,Mr.Mohammad Aijaz Ahmad and Mr.Muhammad Shafiq for accompanying during the collection surveythe Science and Engineering Research Board(SERB)the Department of Science and Technology,Government of India,for their financial support through CRG/2020/000668 projectthe MACS Agharkar Research Institute in Pune,for providing the lab resources and motivating us in our research workFunding Scheme for Research and Innovation grant for the project“Discovery of new antivirals using cultures of filamentous fungi collected in Europe and Thailand as compound sources(JFS20ST-127 Antiviralfun,P2150844)”BIOTEC-Novartis collaboration for microbial bioprospecting project(P20-52031)to CSIR-HRDG,India,for providing her with financial assistance as part of the JRF fellowship(09/0670(13602)/2022-EMR-I)to Javier Etayo(Pamplona)for his valuable suggestionsNational Science Foundation of China(No.31870528)support from Iran National Science Foundation(INSF,no.4000655)Coordenação de Aperfeiçoamento de Pessoal de Nível Superior-Brasil(CAPES)-Finance Code 001 who provided a visiting professorship to the first authorsupporting this work with a PhD’s scholarship to LAS(140847/2019-7)a research grant to MESC(307569/2019-5)and for financial support in the Universal project(Process:437097/2018-8ERDF-A way of making Europe(Grant PID2021-128068NB-100)the Department of Biotechnology(DBT),Government of India(Grant no.BT/PR/0054/NDB/52/94/2007)support under the project‘Establishment of Microbial Culture Collection(NCMR-NCCS).’Gajanan Mane is thankful to the University Grants Commission,Delhi(India)for the senior research fellowship(File No.16-6(Dec.2017)/2018(NET/CSIR)Rohit Sharma thanks the Department of Biotechnology(DBT),Government of India(Grant no.BT/PR25490/NER/95/1220/2017 dated 28.06.2018),for financial supportthe grant from the Guangdong Rural Science and Technology Commissioner project(KTP20210313)the Key Laboratory of Green Prevention and Control on Fruits and Vegetables in South China,Guangdong(KA21031C501)the Innovative Team program of the Department of Education of Guangdong Province(2023KCXTD018/2022KCXTD015)Extramural Research-SERB,DST(EMR/2016/003078)Government of India for the financial assistanceto‘The PCCF’of the Tamil Nadu Forest Department for providing permission(E2/20458/2017)assistance and support during field visit in the Eastern Ghats.Malarvizhi Kaliyaperumal and Kezhocuyi Kezo thank RUSA 2.0(Theme-1,Group-1/2021/49)for providing grantthe Tamil Nadu State Council for Higher Education,Chennai(RGP/2019-20/MU/HECP-0040)for financial assistancethe National Science Foundation of China(No.31870528)support under statutory funds from the W.Szafer Institute of Botany,Polish Academy of Sciencesto ICMBio(Instituto Chico Mendes de Conservação da Biodiversidade)and IF(Instituto Florestal)for the collecting permits#38466-2 and#260108-001.102/2015,respectivelyinanced in part by Coordination of Improvement of Higher Education Personnel-Brazil(CAPES)-Finance Code 001 and by the National Council for Scientific and Technological Development(to LFPG and Proc.305269/2018-6 to AR)to LFPG and Proc.305269/2018-6 to AR)the Program CAPES-PrInt,process number 88887.310463/2018-00Mobility numbers#88887.468939/2019-00 and#88887.571230/2020-00the Coordenação de Aperfeiçoamento de Pessoal de Nível Superior CAPES(processes numbers CAPES 88887.360774/2019-00)Conselho Nacional Desenvolvimento Científico e Tecnológico CNPq(ONDACBC:465764/2014-2 and NEXUS:441305/2017-2)the Fundação de AmparoàCiência e Tecnologia de Pernambuco-FACEPE(BFP-0046-5.01/20,APQ-0350-2.12/19 and APQ 1527-5.01/22)the Conselho Nacional de Desenvolvimento Científico e Tecnológico-CNPq(Proc.312606/2022-2)the National Natural Science Foundation of China(Project ID:32060005)and the Yunnan Fundamental Research Project(202201AW070001)the National Natural Science Foundation of China(No.32260004)Yunnan Revitalization Talents Support Plan(High-End Foreign Experts Program)the Key Laboratory of Yunnan Provincial Department of Education of the Deep-Time Evolution on Biodiversity from the Origin of the Pearl River for their support.Xing-Can Peng and Ting-Chi Wen acknowledge the support by the National Natural Science Foundation of China(No.32060012)Department of Sciences and Technology of China(No.202202AE090091)the National Natural Science Foundation of China(Grant No.32200015)the foundation of the Guangzhou bureau of science and technology(Grant No.2023A04J1425)Thailand Science Research and Innovation(TSRI)for the grant“Biodiversity,taxonomy,phylogeny and evolution of Colletotrichum on Avocado,Citrus,Durian and Mango in northern Thailand”(Grant no.652A01003)the National Natural Science Foundation of China(No.NSFC 32260004)and the Yunnan Revitalization Talents Support Plan(Young Talents Program and High-End Foreign Experts Program)The Center for Yunnan Plateau Biological Resources Protection and Utilization,College of Biological Resource and Food Engineering,Qujing Normal University for the facilities provided for the research workthe National Natural Science Foundation of China(Grant no.31600019)the Modern Agricultural Industry Technology System Flower Innovation Team of Guangdong Province(Grant no.2023KJ121)the Project of Educational Commission of Guangdong Province of China(Grant no.2021KTSCX045)the research productivity fellowship(Grant No.303834/2020-0)the Eminent scholar offered by Kyun Hee Universitythe Chinese Research Fund,Grant number E1644111K1,titled“Flexible introduction of the high-level expert program,Kunming Institute of Botany,Chinese Academy of Sciences”for financial supportthe Italian National Antarctic Research Program for funding Antarctic campaingssupport to the Mycological Section of the MNA and the Culture Collection of Antarctic fungi(MNA-CCFEE),University of Tuscia,Italy.
文摘This article is the 17th in the Fungal Diversity Notes series which allows the researchers to publish fungal collections with updated reports of fungus-host and fungus-geography.Herein we report 97 taxa with four new genera distributed in three phyla(Ascomycota,Glomeromycota and Mucoromycota),11 classes,38 orders and 62 families collected from various regions worldwide.This collection is further classified into taxa from 69 genera with four novel genera namely Jinshana,Lithophyllospora,Parapolyplosphaeria and Stegonsporiicola.Furthermore,71 new species,21 new records,one new combination and four novel phylogenetic placements are provided.The new species comprise Acrocalymma estuarinum,Aggregatorygma isidiatum,Alleppeysporonites elsikii,Amphibambusa aquatica,Apiospora hongheensis,Arthrobotrys tachengensis,Calonectria potisiana,Collariella hongheensis,Colletotrichum squamosae,Corynespora chengduensis,Diaporthe beijingensis,Dicellaesporites plicatus,Dicellaesporites verrucatus,Dictyoarthrinium endophyticum,Distoseptispora chiangraiensis,Dothiora eucalypti,Epicoccum indicum,Exesisporites chandrae,Fitzroyomyces pseudopandanicola,Fomitiporia exigua,Fomitiporia rondonii,Fulvifomes subthailandicus,Gigaspora siqueirae,Gymnopus ailaoensis,Hyalorbilia yunnanensis,Hygrocybe minimiholatra,H.mitsinjoensis,H.parviholatra,H.solis,H.vintsy,Helicogermslita kunmingensis,Jinshana tangtangiae,Kirschsteiniothelia dujuanhuensis,Lamproderma subcristatum,Leucoagaricus madagascarensis,Leucocoprinus mantadiaensis,Lithophyllospora australis,Marasmius qujingensis,Melomastia aquilariae,Monoporisporites jansoniusii,M.pattersonii,Monoporisporites valdiyae,Mucispora maesotensis,Mucor soli,Muyocopron yunnanensis,Nigrospora tomentosae,Ocellularia psorirregularis,Ophiocordyceps duyunensis,Oxneriaria nigrodisca,Oxydothis aquatica,O.filiforme,Phacidiella xishuangbannaensis,Phlebiopsis subgriseofuscescens,Pleurothecium takense,Pleurotus tuber-regium,Pseudochaetosphaeronema puerensis,Pseudodactylaria guttulate,Racheliella chinensis,Rhexoacrodictys fangensis,Roussoella neoaquatica,Rubroboletus pruinosus,Sanghuangporus subzonatus,Scytalidium assmuthi,Shrungabeeja kudremukhensis,Spirographa skorinae,Stanjehughesia bambusicola,Stegonsporiicola aurantiaca,Umbelopsis hingganensis,Vararia tenuata,Verruconis pakchongensis,Wongia bandungensis,and Zygosporium cymodoceae.The new combination is Parapolyplosphaeria thailandica(≡Polyplosphaeria thailandica).The 21 new hosts,geographical and habitat records comprise Acrocalymma fici,Apiculospora spartii,Aspergillus subramanianii,Camposporium ramosum,Clonostachys rogersoniana,Colletotrichum brevisporum,C.plurivorum,Collybiopsis gibbosa,Dictyosporium tratense,Distoseptispora adscendens,Exosporium livistonae,Ganoderma gibbosum,Graphis mikuraensis,Gymnosporangium paraphysatum,Lasiodiplodia thailandica,Moesziomyces bullatus,Penicillium cremeogriseum,P.echinulonalgiovense,P.javanicum,P.lanosocoeruleum,P.polonicum,and Pleurotus tuber-regium.Graphis chlorotica,G.panhalensis and G.parilis are given as novel phylogenetic placements.In addition,we provide the morphology of Tarzetta tibetensis which was missing in the previous Fungal Diversity Notes 1611–1716.Identification of characterization of all these taxa are supported by morphological and multigene phylogenetic analyses.
基金Supported by the National Basic Research Programs of China(2012CB026105)the National Natural Foundation of China(31170482,31300445,31370450)+2 种基金the PhD Programs Foundation of the Ministry of Education of China(20110211110021,20130211120005)the China Postdoctoral Science Foundation(2013M540780,2014T70949)the Fundamental Research Funds for the Central Universities in China(LZUJBKY-2014-201)~~
基金LT acknowledges funding from the Estonian Science Foundation(1399PUT,IUT20-30),MOBERC and ECOLCHANGE.
文摘High-throughput sequencing studies generate vast amounts of taxonomic data.Evolutionary ecological hypotheses of the recovered taxa and Species Hypotheses are difficult to test due to problems with alignments and the lack of a phylogenetic backbone.We propose an updated phylum-and class-level fungal classification accounting for monophyly and divergence time so that the main taxonomic ranks are more informative.Based on phylogenies and divergence time estimates,we adopt phylum rank to Aphelidiomycota,Basidiobolomycota,Calcarisporiellomycota,Glomeromycota,Entomophthoromycota,Entorrhizomycota,Kickxellomycota,Monoblepharomycota,Mortierellomycota and Olpidiomycota.We accept nine subkingdoms to accommodate these 18 phyla.We consider the kingdom Nucleariae(phyla Nuclearida and Fonticulida)as a sister group to the Fungi.We also introduce a perl script and a newick-formatted classification backbone for assigning Species Hypotheses into a hierarchical taxonomic framework,using this or any other classification system.We provide an example of testing evolutionary ecological hypotheses based on a global soil fungal data set.
文摘Introduction:Here,we compare the arbuscular mycorrhizal fungal(AMF)community composition in soils from the root zone of the exotic invasive species Prosopis juliflora(EXO soils)and soils from the root zone of the native species Mimosa tenuiflora(NAT soils)from five locations in the Brazilian tropical seasonal dry forest,Paraíba,Brazil,using morphological analyses.Results:AMF community composition in EXO and NAT soils were dissimilar.Available phosphorus,diversity index,spore abundance,and species richness were the main factors differing between the EXO and NAT soils.In general,the most dominant order present in the soils were Glomerales(44.8%)and Gigasporales(41.4%).The most abundant AMF genus in all studied soils was Funneliformis.Conclusions:Differences in AMF community composition were associated with(1)differences in the dominant plant species(P.juliflora vs.M.tenuiflora)and(2)changes in soil chemical factors(soil,pH,total organic carbon,total nitrogen,and available P)in EXO soils.These results contribute to a deeper view of the AMF communities in exotic soils and open new perspectives for ecological processes involving AMF species and exotic plant species in the Brazilian tropical seasonal dry forest.
