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63 results for “Pottiaceae”
FIGURE 2. A–L. Hyophila flavolimbata S in Hyophila flavolimbata, a new species of Pottiaceae from northwestern Yunnan, China
FIGURE 2. A–L. Hyophila flavolimbata S. He & Y.-J. Yi. A, apical leaf cells. B, marginal leaf cells. C, basal leaf cells. D, median leaf cells. E, lower marginal leaf cells. F, J, K, cross sections of stems with a layer of pseudoleptoids pointed by arrows. G–I, cross sections of leaves with subguide cells pointed by arrows. L, part of stem cross section showing papillose epidermal cells (All prepared from the isotype, Ma et al. 13-4879, MO).
FIGURE 1. A–I. Hyophila flavolimbata S in Hyophila flavolimbata, a new species of Pottiaceae from northwestern Yunnan, China
FIGURE 1. A–I. Hyophila flavolimbata S. He & Y.-J. Yi. A, dry plants. B, wet plants. C, a wet branch. D, a brood branch. E–F, leaves. G, leaf apex. H–I, leaf bases. (All prepared from the isotype, Ma et al. 13-4879, MO).
FIGURE 2. A in Didymodon hengduanensis (Bryophyta, Pottiaceae), a new species from the Hengduan Mountains, Southwestern China
FIGURE 2. A. Habit of Didymodon hengduanensis in dry state. B. Leaf. C. Cross-section of a leaf near base. D. Dorsal surface cells of the costa. E. Juxtacostal basal cells. F. Transverse section of stem. All from holotype.
FIGURE 1. Didymodon hengduanensis. A. Habit, dry. B–C. Leaves. D. Perichaetial leaf. E. Leaf apex. F. Basal laminal cells. G. Upper laminal cells. H–J in Didymodon hengduanensis (Bryophyta, Pottiaceae), a new species from the Hengduan Mountains, Southwestern China
FIGURE 1. Didymodon hengduanensis. A. Habit, dry. B–C. Leaves. D. Perichaetial leaf. E. Leaf apex. F. Basal laminal cells. G. Upper laminal cells. H–J. Transverse sections of a leaf from apical to basal part. K. Capsule. L. Peristome. Scale bars: A = 2 mm. B–D = 300 μm. E = 30 μm. F, H–J = 40 μm. G = 25 μm. K = 0.6 mm. L = 300 μm. All from holotype.
FIGURE 4 in A taxonomic revision of cleistocarpous species of Weissia (Pottiaceae, Bryophyta) in Japan
FIGURE 4. Weissia kiiensis (A–I) and W. prajaponica (J–W). A, Habit (dry); B, Cross section of stem; C, Perichaetial leaf; D, Vegetative leaf; E & F, Cross sections of perichaetial leaf; G, Sporophyte; H, Cross section of seta; I, Calyptra; J, Habit (dry); K, Cross section of stem; L–N, Perichaetial leaves; O–R, Vegetative leaves; S & T, Cross sections of perichaetial leaf; U, Sporophyte; V, Cross section of seta; W, Calyptra. A–I drawn from K. Minakata s.n. (NICH-M 37518, holotype of Astomum kiiense); J, V from T. Yamaguchi 36925 (HIRO, paratype); K, L, O, P, S, T, W from Y. Inoue 3864 (HIRO, holotype); M, Q from Y. Inoue 3925 (HIRO, paratype); N, R from T. Yamaguchi 30497 (HIRO, paratype); U from T. Yamaguchi 18666 (HIRO, paratype).
FIGURE 3 in A taxonomic revision of cleistocarpous species of Weissia (Pottiaceae, Bryophyta) in Japan
FIGURE 3. Weissia exserta (A–J) and W. japonica (K–T). A, Habit (dry); B, Cross section of stem; C, Perichaetial leaf; D & E, Vegetative leaves; F & G, Cross sections of perichaetial leaf; H, Sporophyte; I, Cross section of seta; J, Calyptra; K, Habit (dry); L, Cross section of stem; M, Perichaetial leaf; N & O, Vegetative leaves; P & Q, Cross sections of perichaetial leaf; R, Sporophyte; S, Cross section of seta; T, Calyptra. A–J drawn from Wichura 1379a (H 190018, lectotype of Astomum exsertum); K–T from Y. Inoue 914 (HIRO).
FIGURE 1 in A taxonomic revision of cleistocarpous species of Weissia (Pottiaceae, Bryophyta) in Japan
FIGURE 1. Phylogenetic tree based on analysis with the concatenated sequences of chloroplast rbcL and rps4 genes, depicted by the best-supported tree with highest likelihood value (ln L = -5770.556 by Garli). Supporting values more than 50 % obtained by the program CONSEL were overlaid: AU test (AU), bootstrap probabilities (NP), and Bayesian posterior probabilities (PP) are shown on or near each branch (AU/NP/PP). Thickened branches indicate that all three supporting values are 100 %.
FIGURE 2 in A taxonomic revision of cleistocarpous species of Weissia (Pottiaceae, Bryophyta) in Japan
FIGURE 2. Scanning electron microscope (SEM) images of cleistocarpous capsules of Weissia in Japan and of Trachycarpidium lonchophyllum. A, W. exserta (Y. Inoue 3828 in HIRO); B, W. japonica (Y. Inoue 3830 in HIRO); C, W. parajaponica (T. Yamaguchi 36925 in HIRO); D, W. kiiensis (Y. Inoue 3813 in HIRO); E, T. lonchophyllum (O. Yano & B.L. Morretes 28820 in SP). 1, Capsule overviews; 2, Close up of upper portion of capsules (Arrowheads indicate dehiscence line).
FIGURE 1. Didymodon obtusus. A in Didymodon obtusus (Bryophyta, Pottiaceae), a new species from Tibet, China
FIGURE 1. Didymodon obtusus. A. Plant when dry (scale in mm). B. Plant when moist (scale in mm). C. Cross-section of stem. D. Leaves. E. Upper part of costa (dorsal). F. Upper part of costa (ventral). G. Mid-leaf cells. H. Basal juxtacostal cells. I. Basal marginal cells. J. Axillary hairs. Scale bar (as shown on C): C, J = 100 μm; D = 1 mm; E–I = 40 μm. All from holotype.
FIGURE 2. Didymodon obtusus. A in Didymodon obtusus (Bryophyta, Pottiaceae), a new species from Tibet, China
FIGURE 2. Didymodon obtusus. A. Leaf apex (dorsal). B. Leaf apex (ventral). C–H. Transverse section of leaf, sequentially from apex to base. Scale bar (as shown on H): A–H = 100 μm. All from holotype.
FIGURE 3. Didymodon rigidulus var. subulatus. A. Leaf. B in Didymodon obtusus (Bryophyta, Pottiaceae), a new species from Tibet, China
FIGURE 3. Didymodon rigidulus var. subulatus. A. Leaf. B. Leaf apex (dorsal). C–G. Transverse section of leaf, sequentially from apex to base. Scale bar (as shown on G): A = 0.4 mm; B–G = 100 μm. From Xiao-Ming Shao & Jin Kou 20140815A006 (BAU).
FIGURE 1 in A new species of Plaubelia Bridel (Pottiaceae, Bryophyta) from India
FIGURE 1. Plaubelia khasiana sp. nov. 1. Plant. 2. Cross section of stem. 3–8 Leaves. 9–12. Gemmae. 13. Cross section of leaf. 14, 15. Leaf apex. 16. Median cells of leaf. 17. Juxta costal cells in leaf. 18. Basal marginal cells of leaf.
FIGURE 2. Bryoerythrophyllum subcaespitosum. A. Perichaetial leaf. B in Bryoerythrophyllum subcaespitosum (Pottiaceae), a new combination for a neglected species from South America
FIGURE 2. Bryoerythrophyllum subcaespitosum. A. Perichaetial leaf. B. Cross-section of the leaf. C. Upper laminal cells. D. Basal laminal cells. (Cano et al. 5149, MUB).
FIGURE 1. Bryoerythrophyllum subcaespitosum. A. Habit, dry. B–D. Leaves. E. Perichaetial leaf. F. Leaf apex. G. Basal laminal cells. H. Perichaetial leaf margin. I. Upper laminal cells. J–M in Bryoerythrophyllum subcaespitosum (Pottiaceae), a new combination for a neglected species from South America
FIGURE 1. Bryoerythrophyllum subcaespitosum. A. Habit, dry. B–D. Leaves. E. Perichaetial leaf. F. Leaf apex. G. Basal laminal cells. H. Perichaetial leaf margin. I. Upper laminal cells. J–M. Cross-sections of the leaf. N. Peristome. O. Cross-section of stem. Scale bars: A = 0.1 cm. B–E = 0.2 mm. F, H, N = 50 µm. G = 60 µm. I = 20 µm. J, K, L, M = 40 µm. O = 25 µm. A–C, F, G, I–M, O from Cano et al. 5149, MUB; D, E, H, N from Lindig 2008, BM.
FIGURE 13. Anoectangium aestivum. A in A taxonomic revision of the tribe Pleuroweisieae (Pottiaceae, Bryophyta) in South America
FIGURE 13. Anoectangium aestivum. A. Cross-section of the stem. B. Leaf. C. Cross-section of the leaf. D. Upper laminal cells. (A– D from Lewis 38541, MO).
FIGURE 9. Molendoa peruviana. A in A taxonomic revision of the tribe Pleuroweisieae (Pottiaceae, Bryophyta) in South America
FIGURE 9. Molendoa peruviana. A. Cross-section of the stem. B. Leaf. C. Cross-section of the leaf. D. Upper laminal cells. (A–D from Cano et al. 5149, MUB).
FIGURE 7. Molendoa sendtneriana. A in A taxonomic revision of the tribe Pleuroweisieae (Pottiaceae, Bryophyta) in South America
FIGURE 7. Molendoa sendtneriana. A. Cross-section of the stem. B. Leaf. C. Cross-section of the leaf. D. Upper laminal cells. (A–D from Cano & Jiménez 5195, MUB).
FIGURE 11. Anoectangium stracheyanum. A in A taxonomic revision of the tribe Pleuroweisieae (Pottiaceae, Bryophyta) in South America
FIGURE 11. Anoectangium stracheyanum. A. Cross-section of the stem. B. Leaf. C. Cross-section of the leaf. D. Upper laminal cells. (A–D from Lewis 79–1235, F).
FIGURE 5. Gymnostomum calcareum. A in A taxonomic revision of the tribe Pleuroweisieae (Pottiaceae, Bryophyta) in South America
FIGURE 5. Gymnostomum calcareum. A. Cross-section of the stem. B. Leaf. C. Cross-section of the leaf. D. Upper laminal cells. (A– D from Cano 395, MUB).
FIGURE 3. Hymenostylium recurvirostrum. A in A taxonomic revision of the tribe Pleuroweisieae (Pottiaceae, Bryophyta) in South America
FIGURE 3. Hymenostylium recurvirostrum. A. Cross-section of the stem. B. Leaf. C. Cross-section of the leaf. D. Upper laminal cells. (A, B, D from Cano & Gallego 2913, MUB; C from Grande et al. 5852b, MUB).
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International Brain Laboratory public data
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OpenNeuro
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