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FIGURES 38–46 in Tolypella mongolica (Charophyceae, Characeae): A new dioecious charophyte species from the center of Eurasia and implications for charophyte taxonomy, including the validation of T. porteri and the new combination for T. jwalae

FIGURES 38–46. Oospores of Tolypella mongolica sp. nov., Altai Mountains (LE), general appearance and sparsely coarsely tuberculate surface, scanning electron microscopy: 38–42—general appearance: 38, 41 & 42—lateral view of oospores with different degree of prominence of tubercles; 39 & 40—basal view; 43–46—sparsely coarsely tuberculate surface with different prominence of tubercles. Scale: 38–42—100 μm, 43—10 μm, 44–46—20 μm. Photographs by R.E. Romanov.

FIGURES 29–37 in Tolypella mongolica (Charophyceae, Characeae): A new dioecious charophyte species from the center of Eurasia and implications for charophyte taxonomy, including the validation of T. porteri and the new combination for T. jwalae

FIGURES 29–37. Oospores of Tolypella mongolica sp. nov., Mongolia (UBA, LE), different expression of surface sculpture, scanning electron microscopy: 29 & 30—densely coarsely tuberculate surface; 31—different expression of oospore surface at neighboring fossae, from sparsely weakly tuberculate to having complex tubercles at the middle of fossa; 32 & 33—isolated protrusions with acute forked ends; 34—tuberculate surface and tuberculate surface with forked acute protrusions at neighboring fossae; 35–37—surface resembling an aerial view of a mountain landscape. Scale: 29, 31 & 35—40 μm, 30, 32, 33, 34, 36 & 37—20 μm. Photographs by R.E. Romanov.

FIGURE 1 in Tolypella mongolica (Charophyceae, Characeae): A new dioecious charophyte species from the center of Eurasia and implications for charophyte taxonomy, including the validation of T. porteri and the new combination for T. jwalae

FIGURE 1. Holotype and isotypes of Tolypella mongolica sp. nov., Mongolia (UBA-6283). The upper bigger plant is a holotype. Scale: 2 cm. Photograph by R.E. Romanov.

FIGURES 23–28 in Tolypella mongolica (Charophyceae, Characeae): A new dioecious charophyte species from the center of Eurasia and implications for charophyte taxonomy, including the validation of T. porteri and the new combination for T. jwalae

FIGURES 23–28. Oospores of Tolypella mongolica sp. nov., Mongolia (UBA, LE), general appearance with different expression of surface sculpture, scanning electron microscopy: 23–25—lateral view; 26—apical view; 27—basal view; 28—tangential view of basal pole. Scale: 100 μm. Photographs by R.E. Romanov.

FIGURES 2–22 in Tolypella mongolica (Charophyceae, Characeae): A new dioecious charophyte species from the center of Eurasia and implications for charophyte taxonomy, including the validation of T. porteri and the new combination for T. jwalae

FIGURES 2–22. Morphological traits of Tolypella mongolica sp. nov., Mongolia (UBA, LE, NHMM): 2–5—apical parts of plants with different numbers of more or less compacted branchlets; 6—whorl of most compacted branchlets; 7—lateral branch; 8–10—basal parts of whorls with well-developed branchlets, arrowhead indicates lateral ray with fructifying node; 11—first node (arrowhead) of richly branched plant; 12—close view of apical whorls of branchlets, arrowhead indicates richly fertile single node of main axis of branchlet; 13—apical whorl of branchlets having two-celled ends; 14—gradually tapering three-celled end of long branchlets; 15–20—basal parts of branchlet whorls and axial nodes with numerous oogonia, arrowheads indicate single richly fertile nodes of branchlets above basal branchlet internode having variable length; 21 & 22—richly fertile single nodes of main axes of branchlets: 21—arrowheads indicate lateral rays; 22—arrowheads indicate nodes of lateral rays. Scale: 2–11—5 mm, 12–18, 20–22—1 mm, 19—2 mm. Photographs by R.E. Romanov.

FIGURE 1 in Morphological and phylogenetic evidence for recognition of a new species of Kirschsteiniothelia, K. agumbensis and validation of five new combinations in Kirschsteiniotheliaceae

FIGURE 1. Maximum likelihood (ML) phylogenetic tree obtained from an IQ-TREE analysis of species from Kirschsteiniotheliaceae and closely related taxa based on ITS, LSU and SSU sequences. Strains of the species under study is shown in bold text. Families and orders are indicated on the right side of the tree in blocks, as well as the name of new species in bold text. Branch support values from 1000 non-parametric bootstraps for IQ-TREE (ML-BS) and posterior probability values from the Bayesian analysis (PP) are shown at the nodes (ML-BS>70%/ PP>0.9). The tree is rooted with Stemphylium vesicarium MFLUCC 14-0920 and Stemphylium vesicarium CBS 191.86.

FIGURE 3 in Morphological and phylogenetic evidence for recognition of a new species of Kirschsteiniothelia, K. agumbensis and validation of five new combinations in Kirschsteiniotheliaceae

FIGURE 3. Kirschsteiniothelia agumbensis (AMH 10646). a–c Conidia with attachment. d–i Conidia. Scale bars: a–i = 20 µm.

FIGURE 5 in Morphological and phylogenetic evidence for recognition of a new species of Kirschsteiniothelia, K. agumbensis and validation of five new combinations in Kirschsteiniotheliaceae

FIGURE 5. The results of the pairwise homoplasy index (PHI) test for the closely related species of Kirschsteiniothelia agumbensis using both LogDet transformation and splits decomposition. PHI test results (фw) <0.05 indicate significant recombination within the dataset.

FIGURE 2 in Morphological and phylogenetic evidence for recognition of a new species of Kirschsteiniothelia, K. agumbensis and validation of five new combinations in Kirschsteiniotheliaceae

FIGURE 2. Kirschsteiniothelia agumbensis (AMH 10646). a–c Conidiomata on natural substrate. d Colonies on MEA obverse. e Colonies on MEA reverse. Scale bars: a = 1000 µm. b–c = 100 µm.

FIGURE 4 in Morphological and phylogenetic evidence for recognition of a new species of Kirschsteiniothelia, K. agumbensis and validation of five new combinations in Kirschsteiniotheliaceae

FIGURE 4. Kirschsteiniothelia agumbensis (AMH 10646). a–f SEM of conidia. Scale bars: a–b = 20 µm. c–d = 2 µm. e–f = 20 µm.

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Data and code used for 'Assessing the Accuracy of Activity Classification Using Thigh-Worn Accelerometry: A Validation Study of ActiPASS in School-Aged Children'

<p>This repository contains all data necessary to reproduce the results for the manuscript titled 'Assessing the Accuracy of Activity Classification Using Thigh-Worn Accelerometry: A Validation Study of ActiPASS in School-Aged Children'.</p>

Fig. 12 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 12. Color forms of males of Melasis buprestoides. a) Bicolored, France (57), Guermange (total length 6.1 mm),

Fig. 11 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 11. Neighbor-joining tree using COI-5P DNA barcode of the 24 Melasis species of the dataset dx.doi.org/ 10.5883/DS-MELASIS. Distance model was performed with Kimura two-parameter and Isorhipis marmottani was used for genetic distance comparisons. Both coloration patterns (bicolored and unicolored) and BOLD sample-ID of each Melasis individual is referenced for clarity.

Fig. 10 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 10. Relationship between elytral length/pronotal length and total body length. Black circles and red (gray in print version) squares represent unicolored and bicolored Melasis, respectively. Triangles refer to M. fermini types.

Fig. 9 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 9. Relationship between the elytral length/width ratio and total body length. Black circles and red (gray in print version) squares represent unicolored and bicolored Melasis, respectively. Triangles refer to M. fermini types.

Fig. 3 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 3. Elytral (a) and pronotal (b) width measurements of studied Melasis. Photo credit: P. Zagatti.

Fig. 6 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 6. Color probability of a Melasis individual with respect to its size. Gray dots represent the number of individuals for each size. The darker the dot, the higher the number of individuals. a) Probability of being unicolored (curve), b) Probability of being bicolored (curve).

Fig. 5 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 5. Total length of studied Melasis grouped by coloration and sex. Dots refer to Melasis specimens examined in this study and triangles refer to the photographed M. fermini types.

Fig. 2 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 2. Elytral (a) and pronotal (b) length measurements of studied Melasis. Photo credit: P. Zagatti.

Fig. 1 in Intraspecific Variability of Melasis buprestoides (Linnaeus, 1761) Challenges the Validity of Melasis fermini Sánchez-Ruiz and Rosa, 2003 (Coleoptera: Eucnemidae)

Fig. 1. Photographs of Melasis fermini holotype and paratypes. a) Holotype (male), dorsal habitus (abdomen removed, total length 4.25 mm), antenna, and labels, b) Paratype no. 191659 (male), dorsal habitus (total length 4.19 mm), antenna, and labels, c) Paratype no. 191660 (female), dorsal habitus (total length 4.75 mm), antenna, and labels. Photo credits: M. Paris.