Fungal Planet description sheets: 1042–1111

Crous, Pedro W.; Wingfield, M.J.; Chooi, Yit‐Heng; Gilchrist, Cameron L.M.; Lacey, Ernest; Pitt, John I.; Roets, Francois; Swart, W. J.; Cano-Lira, José F.; Valenzuela-López, Nicomedes; Hubka, Vít; Shivas, R. G.; Stchigel, Alberto M.; Holdom, D. G.; Jurjević, Željko; Качалкин, А. В.; Lebel, Teresa; Lock, Colin; Martı́n, Marı́a P.; Tan, Yu Pei; Tomashevskaya, M. A.; Vitelli, J. S.; Baseia, Iuri Goulart; Bhatt, Vinod K.; Brandrud, Tor Erik; Souza, Jorge Teodoro de; Dima, Bálint; Lacey, Heather J.; Lombard, L.; Johnston, Peter R.; Morte, Asunción; Papp, Viktor; Rodrı́guez, Antonio; Rodríguez-Andrade, Ernesto; Semwal, K. C.; Tegart, L.; Abad, Z. Gloria; Akulov, Alexander; Alvarado, Pablo; Alves, Artur; Andrade, Jackeline Pereira; Arenas, Francisco; Asenjo, Conrado F.; Ballarà, Josep; Barrett, Matthew D.; Berná, Luis Miguel; Berraf-Tebbal, Akila; Bianchinotti, M. Virginia; Bransgrove, Kaylene; Burgess, Treena I.; Carmo, Filipe Sandin do; Chávez, Renato; Čmoková, Adéla; Dearnaley, J. D. W.; Santiago, André Luiz Cabral Monteiro de Azevedo; FREITAS-NETO, Julimar Freire de; Denman, Sandra; Douglas, Brian; Dovana, Francesco; Eichmeier, Aleš; Esteve-Raventós, Fernando; Farid, A. Mohd; Fedosova, A. G.; Ferisin, G.; Ferreira, Renato Juciano; Ferrer, Astrid; Figueiredo, Cristiane Nascimento; Figueiredo, Yasmim Freitas; Reinoso-Fuentealba, C. G.; Garrido‐Benavent, Isaac; Cañete‐Gibas, Connie; Gil-Durán, Carlos; Глушакова, А. М.; Gonçalves, Micael F. M.; González, Mariela; Gorczak, Michał; Gorton, Caroline; Guard, F. E.; Guarnizo, Ángel Luigi; Guarro, Josep; Gutiérrez, Manuel Elías; Hamal, Petr; Hiền, Lê Thị Thu; Hocking, A. D.; Houbraken, Jos; Hunter, Gavin C.; Inácio, C. A.; Jourdan, M.; Kapitonov, V. I.; Kelly, Lisa A.; Khanh, T.N.; Kisło, Kamil; Kiss, Levente; Kiyashko, A. A.; Kolařík, Miroslav; Kruse, Julia; Kubátová, Alena; Kučera, Viktor; Kučerová, Ivana; Kušan, Ivana; Lee, H. B.; Levicán, Gloria; Lewis, Alex; Liem, Nguyen Van; Liimatainen, Kare; Lim, Hyo Jin; Lyons, M.N.; Maciá‐Vicente, Jose G.; Magaña-Dueñas, Viridiana; Mahiques, Rafael; Malysheva, Ekaterina; Marbach, P.A.S.; Marinho, Paulo; Matočec, Neven; McTaggart, Alistair R.; Mešić, Armin; Morin, L.; Muñoz-Mohedano, Justo M.; Navarro‐Ródenas, Alfonso; Nicolli, Camila Primieri; Oliveira, Rafael Lima de; Otsing, Eveli; Ovrebo, Clark L.; Панкратов, Т. А.; Paños, Ángela; Paz-Conde, Aurelia; Pérez-Sierra, A.M.; Phosri, Cherdchai; Pintos, Ángel; Pošta, Ana; Prencipe, Simona; Rubio, Enrique; Saitta, Alessandro; Sales, Licia; Sanhueza, Loreto; Shuttleworth, Lucas A.; Smith, Jason A.; Smith, Matthew E.; Spadaro, D.; Špetík, Milan; Sochor, Michal; Sochorová, Zuzana; Sousa, Julieth O.; Suwannasai, Nuttika; Tedersoo, Leho; Thanh, H.M.; Thao, L.D.; Tkalčec, Zdenko; Vaghefi, Niloofar; Venzhik, A. S.; Verbeken, Annemieke; Vizzini, Alfredo; Voyron, Samuele; Wainhouse, Matt; Whalley, Anthony J. S.; Wrzosek, Marta; Zapata, Margarita Jaramillo; Zeil‐Rolfe, Isabel; Groenewald, Johannes Z.

doi:10.3767/persoonia.2020.44.11

Cited by 92 publications

(49 citation statements)

References 164 publications

(220 reference statements)

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“…Beta conidia are spindle shaped, aseptate, smooth, hyaline, apex acutely rounded, base truncate, tapering from lower third towards apex, curved, (20-) 22-25 (-27) × 1.5 (-2) µm. In this study, the colonies of the isolates on PDA were dirty white, which are similar to those of D. passifloricola [39], D. durionigena [40], D. rosae [41], and D. ueckerae [42], while that of D. miriciae is buff [23]. Morphological characteristics of alpha (bi-guttulate) and beta conidia of three isolates are consistent with those of D. passifloricola ex-type strain (CBS 141329) [39].…”

Section: Discussionsupporting

confidence: 75%

“…Morphological characteristics of alpha (bi-guttulate) and beta conidia of three isolates are consistent with those of D. passifloricola ex-type strain (CBS 141329) [39]. The sizes of alpha and beta conidia of three isolates are larger than those of D. durionigena [40] and D. rosae [41]. The alpha conidia of D. miriciae are not described of guttulate characterized [23], and the beta conidia of D. ueckerae are not observed in a previous study [42].…”

Section: Discussionsupporting

confidence: 66%

See 1 more Smart Citation

Morphology Characterization, Molecular Phylogeny, and Pathogenicity of Diaporthe passifloricola on Citrus reticulata cv. Nanfengmiju in Jiangxi Province, China

Chaisiri

Liu

Yin

et al. 2021

Plants

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The Nanfengmiju (Citrus reticulata cv. Nanfengmiju), a high-quality local variety of mandarin, is one of the major fruit crops in Jiangxi Province, China. Citrus melanose and stem-end rot, two common fungal diseases of Nanfengmiju, are both caused by Diaporthe spp. (syn. Phomopsis spp.). Identification of the Diaporthe species is essential for epidemiological studies, quarantine measures, and management of diseases caused by these fungi. Melanose disease was observed on Nanfengmiju fruit in Jiangxi Province of China in 2016. Based on morphological characterization and multi-locus phylogenetic analyses, three out of 39 isolates from diseased samples were identified as D. passifloricola. Since these three isolates did not cause melanose on citrus fruit in the pathogenicity tests, they were presumed to be endophytic fungi present in the diseased tissues. However, our results indicate that D. passifloricola may persist as a symptom-less endophyte in the peel of citrus fruit, yet it may cause stem-end if it invades the stem end during fruit storage. To the best of our knowledge, this is the first report of D. passifloricola as the causal agent of the stem-end rot disease in Citrusreticulata cv. Nanfengmiju.

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Section: Discussionsupporting

confidence: 75%

Section: Discussionsupporting

confidence: 66%

Morphology Characterization, Molecular Phylogeny, and Pathogenicity of Diaporthe passifloricola on Citrus reticulata cv. Nanfengmiju in Jiangxi Province, China

Chaisiri

Liu

Yin

et al. 2021

Plants

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“…The recently described Australian species Lf. austropiperatus forms a strongly supported clade with a Thai specimen, however, the authors maintain the Australian material as distinct until further collections from Thailand can be examined and sequenced ( Crous et al 2020b ). In all other known cases of possible intercontinental species, molecular inference rejected this possibility ( Stubbe et al 2010 , Van de Putte et al 2010 , De Crop et al 2014 ).…”

Section: The Genus Lactifluusmentioning

confidence: 99%

A short story of nearly everything in Lactifluus (Russulaceae)

Crop¹,

Delgat²,

Nuytinck³

et al. 2021

Fungal Systematics and Evolution

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Fungi are a large and hyper-diverse group with major taxa present in every ecosystem on earth. However, compared to other eukaryotic organisms, their diversity is largely understudied. Since the rise of molecular techniques, new lineages are being discovered at an increasing rate, but many are not accurately characterised. Access to comprehensive and reliable taxonomic information of organisms is fundamental for research in different disciplines exploring a variety of questions. A globally dominant ectomycorrhizal (ECM) fungal family in terrestrial ecosystems is the Russulaceae (Russulales, Basidiomycota) family. Amongst the mainly agaricoid Russulaceae genera, the ectomycorrhizal genus Lactifluus was historically least studied due to its largely tropical distribution in many underexplored areas and the apparent occurrence of several species complexes. Due to increased studies in the tropics, with a focus on this genus, knowledge on Lactifluus grew. We demonstrate here that Lactifluus is now one of the best-known ECM genera. This paper aims to provide a thorough overview of the current knowledge of Lactifluus, with information on diversity, distribution, ecology, phylogeny, taxonomy, morphology, and ethnomycological uses of species in this genus. This is a result of our larger study, aimed at building a comprehensive and complete dataset or taxonomic framework for Lactifluus, based on molecular, morphological, biogeographical, and taxonomical data as a tool and reference for other researchers.

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“…In addition, the genus Vishniacozyma is frequently isolated from soil samples; examples include the strains of V. ellesmerensis , V. tephrensis , V. victoriae and V. heimaeyensis [18, 21]. Other sources like V. phoenicis was isolated from dates fruit [20], V. penaeus was isolated from surface of a shrimp and V. psychrotolerans was isolated from sea water [21].…”

Section: Ecologymentioning

confidence: 99%

“…Liu et al [15] used seven genes to update the taxonomic system of Tremellomycetes and proposed that the genus Vishniacozyma accommodates 11 species previously classified as members of the genera Cryptococcus and Bullera in the dimennae and victoriae clades. An additional seven novel species were reported and classified into the genus Vishniacozyma, namely Vishniacozyma alagoana, Vishniacozyma ellesmerensis, Vishniacozyma europaea, Vishniacozyma kurtzmanii, Vishniacozyma melezitolytica, Vishniacozyma phoenicis and Vishniacozyma pseudopenaeus [16][17][18][19][20]. To date, a total of 18 species are recognized in the genus.…”

mentioning

confidence: 99%

Vishniacozyma changhuana sp. nov., and Vishniacozyma taiwanica sp. nov., two novel yeast species isolated from mangrove forests in Taiwan

Chang

Huang

Lee

2019

International Journal of Systematic and Evolutionary Microbiology

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Mangroves grow in the intertidal zone, which alternates between fresh water and sea water, with abundant bioresources. In mangrove habitats, yeasts play an important role in the decomposition of organic matter, and such nutrient cycling has high ecological importance. During a study of the diversity of yeast from Taiwan mangroves, seven strains of basidiomycetous yeasts were isolated and these yeasts represent two novel yeast species belonging to the genus Vishniacozyma. According to the sequences of the D1/D2 domain of large subunit (LSU) rRNA and the internal transcribed spacer (ITS) region, these seven strains could be clearly classified into two groups representing two individual, distinct species. Strains HM5L06, HM6L07, HM11L11 and BJ3S01, differed from their closest relative species Vishniacozyma phoenicis by 4–5 nt substitutions (no gaps) in the sequences of the D1/D2 domain of LSU rRNA and by 23 nt substitutions (10 gaps) in the ITS region. Strains HM6L11, HM7L02 and HM8L19, differed from their closest relative species Vishniacozyma penaeus by 7 nt substitutions (one gap) in the sequences of the D1/D2 domain of LSU rRNA and by 27 nt substitutions (12 gaps) in the ITS region. The scientific names of Vishniacozyma taiwanica sp. nov. and Vishniacozyma changhuana sp. nov. are proposed for these strains. The holotypes are Vishniacozyma taiwanica BCRC 23477T (ex-type HM5L06=CBS 16558; MycoBank number MB837428) and Vishniacozyma changhuana BCRC 23478T (ex-type HM6L11=CBS 16556; MycoBank number MB837429).

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Fungal Planet description sheets: 1042–1111

Cited by 92 publications

References 164 publications

Morphology Characterization, Molecular Phylogeny, and Pathogenicity of Diaporthe passifloricola on Citrus reticulata cv. Nanfengmiju in Jiangxi Province, China

Morphology Characterization, Molecular Phylogeny, and Pathogenicity of Diaporthe passifloricola on Citrus reticulata cv. Nanfengmiju in Jiangxi Province, China

A short story of nearly everything in Lactifluus (Russulaceae)

Vishniacozyma changhuana sp. nov., and Vishniacozyma taiwanica sp. nov., two novel yeast species isolated from mangrove forests in Taiwan

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