Page 3575 of 3674 Results 35741 - 35750 of 36734
Id/Author/Year/TitleOrder by:  Year  Id  Author  Title
35203
Skobel N., Borovyk D., Vynokurov D., Moysiyenko I., Babytskiy A., Bednarska I., Bezsmertna O., Chusova O., Dayneko P., Dengler J., Guarino R., Kalashnik K., Khodosovtsev A., Kolomiychuk V., Kucher O., Kuzemko A., Shapoval V., Umanets O., Zagorodniuk N., Zakharova M. & Dembicz I. (2023): Biodiversity surveys of grassland and coastal habitats in 2021 as a documentation of pre-war status in southern Ukraine - Biodiversity Data Journal, 11: e99605 [19 p.]

Background: This paper presents two sampling-event datasets with occurrences of vascular plants, bryophytes and lichens collected in May-June 2021 in southern Ukraine. We aimed to collect high-quality biodiversity data in an understudied region and contribute it to international databases and networks. The study was carried out during the 15th Eurasian Dry Grassland Group (EDGG) Field Workshop in southern Ukraine and the Dark Diversity Network (DarkDivNet) sampling in the Kamianska Sich National … URL EndNote PDF Read more... 

35204
Pykälä J., Kantelinen A. & Myllys L. (2023): Taxonomy of Thelidium auruntii and T. incavatum complexes (lichenized Ascomycota, Verrucariales) in Finland - MycoKeys, 96: 1–23

The taxonomy of lichen species morphologically similar to Thelidium auruntii and T. incavatum in Finland is being revised. Based on ITS and morphology, ten species occur in Finland. All species are restricted to calcareous rocks. The Thelidium auruntii morphocomplex includes six species: T. auruntii, T. huuskonenii sp. nov., T. pseudoauruntii sp. nov., T. sallaense sp. nov, T. toskalharjiense sp. nov. and T. sp. 1. In the ITS phylogeny, T. auruntii, T. pseudoauruntii and T. sallaense group … URL EndNote PDF Read more... 

35205
Lõhmus A., Motiejūnaitė J. & Lõhmus P. (2023): Regionally varying habitat relationships in lichens: the concept and evidence with an emphasis on north-temperate ecosystems - Journal of Fungi, 9(3): 341 [30 p.]

Habitat ecology of lichens (lichen-forming fungi) involves diverse adaptations to stressful environments where lichens use specific habitat conditions. Field observations confirm that such habitat ‘preferences’ can vary significantly across species’ distribution ranges, sometimes revealing abrupt changes over short distances. We critically review and generalize such empirical evidence as broad ecological patterns, link these with the likely physiological mechanisms and evolutionary processes … URL EndNote Read more... 

35223
Ficko S.A., McClymont A., Haughland D.L. & Naeth M.A. (2023): Optimizing growth chamber conditions for maintaining Arctic lichen-dominated biocrusts - Restoration Ecology, 31(4): e13876 [9 p.]

Optimizing growth chamber conditions for Arctic lichen biocrusts will create new opportunities to assess and prioritize reclamation techniques given the challenges associated with conducting arctic field work. Our study is the first to examine growth chamber conditions for optimizing survival and growth of Arctic lichen biocrusts, as measured by changes in lichen cover. We assessed effects of substrate crossed with substrate depth, substrate sterilization, lichen inoculation and community composition, … URL EndNote PDF Read more... 

35225
McGrath C. (2023): Highlight: Gene Cluster Reshuffling Drives Natural Sunscreen Evolution in Lichens - Genome Biology and Evolution, 15(2): 1-2

A new study reveals that the evolution of sunscreen pigments in lichen-forming fungi has been governed by the reshuffling of existing enzyme genes and novel accessory genes into new gene clusters. Lichens are diverse and colorful organisms that can be found in nearly every environment on Earth, from the arctic tundra to tropical rainforests. Due to the wide variety of their phenotypes and propensity to be misidentified as plants, fungi, or mosses, lichens have long been poorly understood. Lichens … URL EndNote PDF Read more... 

35226
Doyle E., Blanchon D., Wells S., de Lange P., Lockhart P., Waipara N., Manefield M., Wallis S. & Berry T.-A. (2023): Internal transcribed pacer and 16S amplicon sequencing identifies microbial species associated with asbestos in New Zealand - Genes, 14(3): 729 [12 p.]

Inhalation of asbestos fibres can cause lung inflammation and the later development of asbestosis, lung cancer, and mesothelioma, and the use of asbestos is banned in many countries. In most countries, large amounts of asbestos exists within building stock, buried in landfills, and in contaminated soil. Mechanical, thermal, and chemical treatment options do exist, but these are expensive, and they are not effective for contaminated soil, where only small numbers of asbestos fibres may be present … URL EndNote PDF Read more... 

35230
Ertz D. & Tehler A. (2023): New species of Arthoniales from Cape Verde with an enlarged concept of the genus Ingaderia - The Lichenologist, 55(1): 1-15

Three new species of Arthoniales are described from Cape Verde: Ingaderia dendritica, with ascomata formed of richly branched-dendroid lirellae and containing erythrin; Sparria caboverdensis, with small stroma-like ascomata and ascospores with 3–7 transverse septa; and Syncesia miesii, with an I− thallus, a tomentose hymenial disc, and a chemistry with fatty acids only. Phylogenetic analyses using nuLSU and RPB2 sequences reveal the placement of Fulvophyton sorediatum, Llimonaea occulta, L. sorediata … URL EndNote PDF Read more... 

35231
Kantvilas G. (2023): Three new species of siphuloid lichens, with a first key to the genus Parasiphula - The Lichenologist, 55(1): 17-25

The term ‘siphuloid’ is introduced for a suite of distinct lichen genera with a superficially similar foliose to fruticose morphology, notably Siphula, Siphulella, Siphulopsis, Parasiphula and Knightiellastrum. Three new species are described: Parasiphula squamosa Kantvilas (from Tasmania and New Zealand), characterized by a whitish grey, squamulose or minutely foliose thallus lacking lichen substances or containing traces of atranorin; Siphula capensis Kantvilas (from southern Africa), containing … URL EndNote PDF Read more... 

35232
Pfeffer B., Lymbery C., Booth B. & Allen J. (2023): Chromosomal genome sequence assembly and mating-type (MAT) locus characterization of the leprose asexual lichenized fungus Lepraria neglecta (Nyl.) Erichsen - The Lichenologist, 55(1): 41-50

Complete chromosomal-level assemblies of fungal genomes are rare. The intimate ecological symbioses and complex reproduction strategies utilized by fungi make highly contiguous, gapless genome assemblies particularly difficult. Here, we use long-read sequencing on the Oxford Nanopore Technology MinION platform to sequence and assemble the genome of Lepraria neglecta (Ascomycota, Lecanorales). In addition to eight contigs ascribable to chromosomes, six of which are assembled telomere-to-telomere, … URL EndNote PDF Read more... 

35233
Wang W., Abas A., Wei X., Qian X. & Wei J. (2023): Two new species of the lichenized genus Lasioloma (Byssolomataceae) from Asia - The Lichenologist, 55(1): 27-33

Two new species of the lichenized genus Lasioloma are described from Asia: Lasioloma longiramosum W. C. Wang & A. Abas (collected from Malaysia), is characterized by a distinct woolly prothallus between dispersed thallus patches, comparatively small, muriform ascospores, long filiform conidia (main branch 22–28 μm in length, the other three branches 65–80 μm) and a foliicolous habitat; L. verrucosum W. C. Wang & X. L. Wei (collected from China), is characterized by a warted thallus, filiform … URL EndNote PDF Read more... 

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