Greenhouses of botanical gardens as a habitat of alien and native macrofungi: a case study in Poland

Szczepkowski, Andrzej; Gierczyk, Błażej; Kujawa, Anna

doi:10.2478/s11535-014-0310-5

Cited by 8 publications

(10 citation statements)

References 24 publications

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“…On the other hand, knowledge on patterns of macrofungal invasions is geographically restricted (e.g. Szczepkowski et al, 2014; Wood, 2017) and biased towards mycorrhizal taxa (e.g. Dickie et al, 2017; Nuñez & Dickie, 2014; Vellinga et al, 2009).…”

Section: Introductionmentioning

confidence: 99%

Patterns and drivers of the global diversity of non‐native macrofungi

Monteiro

Reino

Ferreira

et al. 2022

Diversity and Distributions

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Aim: To uncover the biogeography of non-native macrofungal diversity worldwide, by analysing patterns and drivers of (1) regional variation in species richness, (2) compositional similarity between regional species assemblages and (3) the spatiotemporal trends of first records. Location: Global.Methods: We used a database providing 1608 distribution records of 554 non-native macrofungal species in 167 national and sub-national regions worldwide. Regression models accounting for regional levels of recording capacity were used to relate spatial variation of non-native macrofungal richness and of regional compositional similarities to variables representing geographical, socio-economic and biophysical characteristics of regions. Temporal trends of first records were assessed at the global and continental scales and for distinct ecofunctional groups.Results: Regions reporting higher diversity of non-native species occur mainly in Europe, the Americas and Oceania. Regression models showed that regions with greater gross domestic product per capita, areal extent and in the Southern Hemisphere have higher non-native species richness, while regions with similar mean temperatures and latitudinal position share higher compositional similarities.Numbers of first records of non-native macrofungi have grown quasi-exponentially between 1753 and 2018, reflecting not only improved recording capacities but also likely an increasing number of introductions.

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Section: Introductionmentioning

confidence: 99%

Patterns and drivers of the global diversity of non‐native macrofungi

Monteiro

Reino

Ferreira

et al. 2022

Diversity and Distributions

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“…Among various groups of macrofungi developing in the greenhouses of Europe, the bulk of the data relate to a targeted study of the species composition of agaricoid fungi. A number of greenhouses located in the nemoral regions of Central Europe (Austria, Germany, Poland, and Czech Republic) were studied, in which the biodiversity of agaricoid fungi was assessed based on the presence of fruitbodies in the soil [6,7,10,14,[16][17][18][19]. It has been demonstrated that the number of fungal species in greenhouses is significantly less compared to natural conditions, and mainly local fungal species develop, and the proportion of non-native sub/tropical fungi varies in the range of 10-20% of the total number of species.…”

Section: Of 23mentioning

confidence: 99%

“…It has been demonstrated that the number of fungal species in greenhouses is significantly less compared to natural conditions, and mainly local fungal species develop, and the proportion of non-native sub/tropical fungi varies in the range of 10-20% of the total number of species. Agaricoid fungi in greenhouses are humus saprobes that have been sporadically found to be capable of exhibiting pathogenic or mycorrhizal activity [19,20]. The total number of agaricoid fungi in the greenhouses of these countries is 187 species.…”

Section: Of 23mentioning

confidence: 99%

How Poor Is Aphyllophoroid Fungi Diversity in the Boreal Urban Greenhouses of Eastern Europe?

Shiryaev,

Zmitrovich,

Senator

et al. 2023

JoF

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It is generally accepted that mycobiota diversity in urban greenhouses is poorer than in natural ecosystems, but our knowledge on this field of research is fragmentary. Here, we present the results of a long-term study of aphyllophoroid macrofungi (Basidiomycota) forming fruitbodies on non-native sub/tropical woody and herbaceous plants in the greenhouses of Saint Petersburg, Moscow, and Ekaterinburg botanical gardens located in the hemiboreal vegetation subzone of Eastern Europe. Over 20 years of research, fruitbodies of 58 species of aphyllophoroid fungi have been identified. Fungal species that developed on the wooden structures of greenhouses and building materials made of local wood are discussed separately. The list of fungi on non-native substrates is dominated by saprobes (93.1% of total list) as well as mycorrhizal with basidiomata on plants (8.6%). Phytopathogens have the lowest number (7.0%), and ¾ of species are widespread locally. Non-native plants are dominated by native fungal species (78.9%), while the percentage of non-native species is low (21.1%). In the three surveyed cities, the area of the studied greenhouses is 2.8 ha, and not a single species of fungi has been found twice on the same substrate. Half of the identified species are characterized by a single specimen (29 species/50.9%). Hymenochaete rheicolor was discovered in Russia for the first time and its known distribution is discussed. Only six (Antrodia gossypium, Hyphodontia arguta, Lyomyces sambuci, Peniophora cinerea, Ramariopsis kunzei, and Trechispora farinacea) local species (10.5%) were collected in all the three cities. The α-diversity of mycobiota (mean number of species per site, Shannon Index, and Menhinick Index) in the Ekaterinburg’s greenhouses is 1.2–3.0 times lower compared to suburban forest parks and old-growth natural forests, while β-diversity (Whittaker Index, Jaccard Index, and Morisita–Horn Index), on the contrary, is 2.1–7.7 times higher. With the plants’ age, the probability of detecting fungi on them increases significantly. In greenhouses, phytopathogenic aphyllophoroid macrofungi are collected on woody plants only, but the probability of their development is not related to the plants’ age.

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“…& Thiers is an example of an additional alien species of mycobiota -besides Agaricus subrufescens Peck [1,2] and Aureoboletus projectellus (Murrill) Halling [3] -recorded in Poland in recent years. This fungus is known under a number of synonymous names: Boletus lakei Murrill, Boletinus lakei (Murrill) Singer, Ixocomus lakei (Murrill) Singer, and Suillus amabilis (Peck) Singer [4].…”

Section: Introductionmentioning

confidence: 99%

Suillus lakei (Murrill) A. H. Sm. & Thiers (Boletales, Basidiomycota) in Poland: new data

Szczepkowski

Olenderek

2017

Acta Mycol

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This study presents up-to-date data on the distribution of the Western Painted Suillus Suillus lakei in Poland. This alien species of fungus was first recorded in Poland in 2012, followed by a second recording in 2013. The third site, presented in this article, was discovered in 2016. A description of the newly discovered site and the basidiomata is given. All three sites of S. lakei are located on private properties overgrown with young Douglas fir. Two of the three recorded sites are located within the boundaries of the Wielkopolskie Province, and one in the Kujawsko-Pomorskie Province. Further expansion of this fungus in Poland is expected.

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Greenhouses of botanical gardens as a habitat of alien and native macrofungi: a case study in Poland

Cited by 8 publications

References 24 publications

Patterns and drivers of the global diversity of non‐native macrofungi

Patterns and drivers of the global diversity of non‐native macrofungi

How Poor Is Aphyllophoroid Fungi Diversity in the Boreal Urban Greenhouses of Eastern Europe?

Suillus lakei (Murrill) A. H. Sm. & Thiers (Boletales, Basidiomycota) in Poland: new data

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