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opencc-by-4.0Nov 2016View details →

Fig. 1 in Taxonomic Structure Of Nematode Communities Of Epiphytic Mosses In Green Plantations Of Chernihiv, Ukraine

Fig. 1. Taxonomic diversity of nematodes belonging to different orders that inhabit epiphytic mosses in green plantations of Chernihiv: 1 — Enoplida; 2 — Triplonchida; 3 — Dorylaimida; 4 — Mononchida; 5 — Monhysterida; 6 — Plectida; 7 — Rhabditida; 8 — Tylenchida.

opencc-by-4.0Nov 2016View details →

Fig. 2 in Taxonomic Structure Of Nematode Communities Of Epiphytic Mosses In Green Plantations Of Chernihiv, Ukraine

Fig. 2. Structure of nematode fauna of epiphytic mosses in green plantations of Chernihiv according to the frequency of occurrence.

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Morphological and DNA sequence data generated by Sanger sequencing and target capture methods for moss plants in the genus Fissidens from herbarium specimens

Morphological evolution in mosses has long been hypothesized to accompany shifts in microhabitats and can be tested using comparative phylogenetics. These lines of inquiry have developed substantially, in part, by target capture sequencing allowing for phylogenomic scale data generated from herbarium specimens. In the present study, we test the relationship between taxonomically important morphological characters in the moss genus Fissidens, using both a 400-locus dataset generated using a target-capture approach as well as a three-locus phylogeny generated using sanger sequencing. Phylogenetic trees were generated using ASTRAL and Bayesian Inference and used to test the monophyly of subgenera/sections and provided the basis for ancestral character reconstruction and phylogenetic correlation analyses among five morphological characters as well as habitat moisture scored from literature. The characters axillary hyaline nodules, limbidium, costa, and peristome morphology as well as sexual system, minimum habitat moisture, average habitat moisture, maximum habitat moisture, and habitat moisture niche breadth each exhibit statistically significant phylogenetic signal. Significant correlations were found between the limbidium (phyllid/leaf border) and habitat moisture niche breadth, which could be interpreted as a more extensive limbidium enabling species to survive across a wider variety of habitats. Correlations were also found between costa anatomy and the limbidum of the gametophyte and sporophyte peristome morphology, as well as average habitat moisture and sexual system. Continued exploration of the relationships between morphological evolution, life history, and habitat will enable us to expand our understanding of functional morphology in mosses.

opencc-zeroJun 2022View details →

opencc-by-4.0Nov 2022View details →

Fine-root biomass production, sedge root, sedge leaf, and moss shoot decomposition, soil water-table level, and temperature data from two sedge fens in Finland

Dataset including fine-root biomass production, mass loss of sedge (Carex rostrata) roots and leaves, and moss (Sphagnum fallax) shoots, along with environmental data (soil water-table level, air temperature, soil temperature at 5 cm, and soil temperature at 15 cm) from two sedge fens located in southern Finland (Lakkasuo, Orivesi, 61°48' N 24°19'E) and northern Finland (Lompolojänkkä, Kittilä, 68°N 24°12'E). Data are from a climate change experiment, where warming was induced with open top chambers (OTCs) and drying with shallow ditching. Data are from years 2011-2013.

Lagarosiphon major (Ridl.) Moss (BR0000025277821)

Belgium Herbarium image of <a href="https://www.plantentuinmeise.be">Meise Botanic Garden</a>.

Lagarosiphon major (Ridl.) Moss (BR0000011852643)

Belgium Herbarium image of <a href="https://www.plantentuinmeise.be">Meise Botanic Garden</a>.

Lagarosiphon major (Ridl.) Moss (BR0000012563562)

Belgium Herbarium image of <a href="https://www.plantentuinmeise.be">Meise Botanic Garden</a>.

Lagarosiphon major (Ridl.) Moss (BR0000012186075)

Belgium Herbarium image of <a href="https://www.plantentuinmeise.be">Meise Botanic Garden</a>.

opencc-by-4.0Apr 2015View details →

FIGURE 2 in Mosses New for Mindanao Island, Republic of the Philippines

FIGURE 2. High quality cloud forest habitat draped in bryophyte cover. Collecting in high quality forests is primarily limited to existing roads and trails. Cross-country travel is difficult and slow due to dense forest vegetation and steep slopes. Bryophytes colonize a wide variety of habitats from soil, litter, rotten wood, and boulders on the forest floor to shrubs, tree trunks, to small branches and twigs up in the forest canopy. Inventory efforts to document the diversity of species present at any location need to sample all of the available microhabitat conditions. Photo by J. Shevock.

opencc-by-4.0Apr 2015View details →

FIGURE 1 in Mosses New for Mindanao Island, Republic of the Philippines

FIGURE 1. In Mindanao typical mossy forests are primarily restricted to steep mountainous areas generally exceeding 1500 m in elevation. At this elevation, ample precipitation forms cloud forest environments ideal for bryophyte cover. The amount of water retained by bryophytes in such forests can be significant. Photo by J. Shevock.

FIG. 5 in Expressed sex ratio in populations of the moss Hamatocaulis vernicosus (Mitt.) Hedenäs (Scorpidiaceae) in the Czech Republic with consideration of its cryptic species

FIG. 5. — The sex ratio in mixed population at locality Zhůří 1. Unbordered pie charts refer to clade 1, bordered ones represent clade 2. The patch in the larger circle contained plants of both clades, so this patch must be excluded from evaluating sex ratio in separated clades.

FIG. 3 in Expressed sex ratio in populations of the moss Hamatocaulis vernicosus (Mitt.) Hedenäs (Scorpidiaceae) in the Czech Republic with consideration of its cryptic species

FIG. 3. — Rates of male (blue), female (red) and non-expressing (green) plants at studied localities of Hamatocaulis vernicosus (Mitt.) Hedenäs clade 1 and 2.

FIG. 2 in Expressed sex ratio in populations of the moss Hamatocaulis vernicosus (Mitt.) Hedenäs (Scorpidiaceae) in the Czech Republic with consideration of its cryptic species

FIG. 2. — The expressed sex ratio at studied localities of H. vernicosus (Mitt.) Hedenäs. In mixed populations,only single-clade patches were used for the assessment.

FIG. 4 in Expressed sex ratio in populations of the moss Hamatocaulis vernicosus (Mitt.) Hedenäs (Scorpidiaceae) in the Czech Republic with consideration of its cryptic species

FIG. 4.— Sex ratio at localities with co-occurring cryptic species. All, without distinguished clades; cl. 1, clade 1; cl. 2, clade 2; Šimanov, Šimanovské rašeliniště. Only barcoded shoots were used to create this graph.

FIG. 1 in Expressed sex ratio in populations of the moss Hamatocaulis vernicosus (Mitt.) Hedenäs (Scorpidiaceae) in the Czech Republic with consideration of its cryptic species

FIG. 1.— The sex expression of Hamatocaulis vernicosus (Mitt.) Hedenäs in the Czech Republic at individual localities assessed at two levels of pooling hierarchy ("shoots at localities" and "patches at localities").

opencc-zeroJan 2020View details →

FIG. 1. — A in New Pottiaceae genera to the moss flora of Saudi Arabia and the Arabian Peninsula

FIG. 1. — A, Map showing Asir region, Saudi Arabia in the Arabian Peninsula (after Kürschner 2000); B, Map showing: 1, Muhayil Asir; and 2, Bariq governorates includes three sites of collection; Qana, Koran Valley and Athrb mountain (yellow pins) (https://earth.google.com).

opencc-zeroJan 2020View details →

FIG. 4 in New Pottiaceae genera to the moss flora of Saudi Arabia and the Arabian Peninsula

FIG. 4. — Plaubelia involuta (Magill) R.H.Zander: A, dry plant; B, wet plant; C-F, leaves; G, upper part of leaf; H, basal part of leaf; I-K, leaf cross sections; L, stem cross section; M, axillary propagule. Scale bars: A-F, 0,3 mm; G, I-M, 50 μm; H, 100 μm.

opencc-zeroJun 2020View details →

FIG. 1 in Two disjunct moss species new to Mexico

FIG. 1. — Meteorium flexicaule Wils. in Hook.: A, three-centimeter fragment of a stem. Branches are short and pointed; B, stem leaves, asterisks mark position of cells in figures C and D; C, subapical and mid-leaf cells; D, basal leaf cells. No papillae positions are shown. Scale bars: 0,1 mm.

opencc-zeroMay 2021View details →

FIG. 2 in Does the removal of non-photosynthetic sections lead to a down-regulation of photosynthesis in mosses? A first experiment

FIG. 2. — Comparisons of the sample- (A-C) and mass- (D-F) based CO2 assimilation rates of green and brown moss sections, and the sum of these two sections (sample-based plots) and the changes through time for three moss species. Shown are the mean values ± standard errors (smaller than the symbol in some cases) of different sections determined at different time points, starting at a few minutes after separation. Sample-based plots are expressed as the CO2 exchange per sample to allow a direct comparison of intact and separated sections. Gray solid and dashed lines show the mean values of intact shoots (values shown to the right), ± standard errors. Asterisks indicate significant differences in assimilation rates between intact shoots and the sum of the separated sections (paired t-test, p<0.05, n = 4). And the capital and lowercase letters indicate significant differences among time points (p<0.05).