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FIGURE 2 in A new classification for Lipocarpha and Volkiella as infrageneric taxa of Cyperus s.l. (Cypereae, Cyperoideae, Cyperaceae): insights from species tree reconstruction supplemented with morphological and floral developmental data
FIGURE 2: A. Inflorescence of Lipocarpha chinensis (left) and Ascolepis brasiliensis (right) in Madagascar (picture taken by Marc Reynders); B. Inflorescences of Lipocarpha nana in Madagascar (picture taken by Marc Reynders); C. Inflorescence of Lipocarpha prieuriana (© Marco Schmidt, West African plants - A Photo Guide; photo used with permission of Brunken et al. 2008); D. Lipocarpha micrantha in its natural habitat in the United States (© Arthur Haines, New England Wild Flower Society; photo used with photographer's permission).
FIGURE 7 in A new classification for Lipocarpha and Volkiella as infrageneric taxa of Cyperus s.l. (Cypereae, Cyperoideae, Cyperaceae): insights from species tree reconstruction supplemented with morphological and floral developmental data
FIGURE 7: Shape of spikelet bracts of Lipocarpha species used in this study (modified from Goetghebeur & Van den Borre 1989). Bars: 1mm. A–D. Clade 1:—A. L. aristulata, B. L. drummondii, C. L. micrantha, D. L. micrantha; E–G. Clade 2:—E. L. albiceps, F. L. comosa, G. Volkiella disticha; H–N. Clade 3:—H. L. microcephala, I. L. filiformis, J. L. cf. filiformis, K. L. salzmannina, L. L. maculata, M. L. prieuriana, N. L. species; O–P. Clade 4:—O. L. leucaspis, P. L. nana; Q–T. Clade 5:—Q. L. hemisphaerica, R. L. chinensis, S. L. constricta, T. L. mexicana (Madagascar); U–V. Clade 6:—U. L. barteri, V. L. humboldtiana; W–X. Clade 7 (flowerbearing glumes instead of spikelet bracts!):—W. L. kernii, X. L. rehmannii. Abbreviations: ap: apical part of spikelet bract; bp: basal part of spikelet bract.
FIGURE 1 in A new classification for Lipocarpha and Volkiella as infrageneric taxa of Cyperus s.l. (Cypereae, Cyperoideae, Cyperaceae): insights from species tree reconstruction supplemented with morphological and floral developmental data
FIGURE 1: A. Phylogeny of Cyperus s.l., modified from Larridon et al. (2013). Distribution of the segregate genera now included in Cyperus s.l. An asterisk indicates a bootstrap support higher than 75%; B. The segregate genera of Cyperus s.l.
FIGURE 6 in A new classification for Lipocarpha and Volkiella as infrageneric taxa of Cyperus s.l. (Cypereae, Cyperoideae, Cyperaceae): insights from species tree reconstruction supplemented with morphological and floral developmental data
FIGURE 6: A. New interpretation of the inflorescence of Lipocarpha rehmannii inflorescence. The inflorescence consists of a spikelet of spirally arranged glumes each subtending a flower. B. Old interpretation of the Lipocarpha rehmannii inflorescence (Goetghebeur & Van den Borre 1989). In that interpretation, the inflorescence consists of a spike of highly reduced spikelets with each spikelet subtended by a spikelet bract (blue). Near the base of the nutlet, remnants of a prophyll and glume can be found. Blue = spikelet bract; pink = prophyll; yellow = glume; red = nutlet.
FIGURE 4 in A new classification for Lipocarpha and Volkiella as infrageneric taxa of Cyperus s.l. (Cypereae, Cyperoideae, Cyperaceae): insights from species tree reconstruction supplemented with morphological and floral developmental data
FIGURE 4: Estimated species tree with coalescent approaches using two chloroplast markers, trnH-psbA and rpl32-trnL and one nuclear marker, ETS1F. Lipocarpha is divided in seven clades, as indicated on the figure. All PP values are shown but we only consider PP values higher then 0.70 as significant. Fig. 4A–E. 3D reconstruction of spikelets (based on Larridon et al. 2013):—A. Spikelet of clades 3–6, B. Spikelet of clade 2, C. Spikelet of clade 1, D. Spikelet of Ascolepis clade, E. Spikelet of clade 7 (Rikliella clade). Blue = spikelet bract; pink = prophyll; yellow = glume; red = nutlet.
FIGURE 5 in Sinalliaria, a new genus of Brassicaceae from eastern China, based on morphological and molecular data
FIGURE 5. Sinalliaria limprichtiana (Pax) X. F. Jin, Y. Y. Zhou & H. W. Zhang and S. limprichtiana var. grandifolia (Z. X. An) X. F. Jin, Y. Y. Zhou & H. W. Zhang. (A)–(C) Sinalliaria limprichtiana; (D) and (E) S. limprichtiana var. grandifolia. (A) habit; (B) flower; (C) petal; (D) habit, upper part; (E) silique (drawn by Xiao-Feng Jin, A–C from Y. Zhang 1-93 in HTC, D and E from X. F. Jin 1722 in HTC).
FIGURE 4 in Sinalliaria, a new genus of Brassicaceae from eastern China, based on morphological and molecular data
FIGURE 4. Distrobution map of Sinalliaria limprichtiana (Pax) X. F. Jin, Y. Y. Zhou & H. W. Zhang (■) and S. limprichtiana var. grandifolia (Z. X. An) X. F. Jin, Y. Y. Zhou & H. W. Zhang (●).
FIGURE 3 in Sinalliaria, a new genus of Brassicaceae from eastern China, based on morphological and molecular data
FIGURE 3. Majority consensus tree infered from maximum parsimony and Bayesian analysis based on the ITS and trnL-trnF sequences. Numbers above the branches are maximum parsimony bootstrap percentage (BS≥50%); numbers below the branches are posterior probabilities (PP≥50%).
FIGURE 2 in Sinalliaria, a new genus of Brassicaceae from eastern China, based on morphological and molecular data
FIGURE 2. SEM photographs of seed shape and sexine ornamentation. A, B. Alliaria grandifolia. C, D. Cardamine limprichtiana. E, F. Orychophragmus violaceus. G, H. O. diffusus. I, J. O. taibaiensis. K, L. O. hupehensis. A, C, E, G, I, K: Seed shape, B, D, F, H, J, L: Sexine ornamentation. Scale bars: 0.75 mm in A, C, E, G, I, K, 120 μm in B, D, F, H, J, L.
FIGURE 1 in Sinalliaria, a new genus of Brassicaceae from eastern China, based on morphological and molecular data
FIGURE 1. Photographs of Alliaria grandifolia, Cardamine limprichtiana and four species of Orychophragmus. A. Alliaria grandifolia, natural habit. B. Flower of A. grandifolia, frontal view. C. Flower of A. grandifolia, lateral view. D. Cardamine limprichtiana, natural habit. E. Orychophragmus violaceus, natural habit. F. Flower of O. violaceus. G. O. diffusus, natural habit. H. Flower of O. hupehensis. I. Flower of O. taibaiensis. Scale bars: 5 cm in A, D, E, G, 1 cm in B. C. F, H, I.
Figure 1 in New dietary data from Compsophis and Alluaudina species (Squamata: Lamprophiidae: Pseudoxyrhophiinae), and implications for their dietary complexity and evolution
Figure 1. Specimens of Compsophis laphystius with dietary records from Marojejy. (a) An adult specimen (MSZC 0251), which had ingested an adult Mantella laevigata. (b) An adult specimen (MSTIS 00084) photographed beside (i.e. to scale with) its regurgitated prey item, Gephyromantis cf. granulatus (MSTIS 00085).
Figure 5 in New dietary data from Compsophis and Alluaudina species (Squamata: Lamprophiidae: Pseudoxyrhophiinae), and implications for their dietary complexity and evolution
Figure 5. An adult Compsophis sp. aff. laphystius (MSTIS 01010) (a) before and (b) after regurgitating an adult female Calumma ambreense (MSTIS 00999) and an adult Uroplatus alluaudi (MSTIS 01000), to scale.
Figure 4 in New dietary data from Compsophis and Alluaudina species (Squamata: Lamprophiidae: Pseudoxyrhophiinae), and implications for their dietary complexity and evolution
Figure 4. Two Compsophis sp. aff. laphystius diet records. (a) An adult specimen (MSZC 0783) after regurgitating a large specimen of Platypelis grandis (MSZC 0755). (b, c) A juvenile specimen (MSZC 0657) (b) before and (c) after regurgitation beside (i.e. to scale with) the Lygodactylus sp. specimen (MSZC 0650) it had eaten.
Figure 6 in New dietary data from Compsophis and Alluaudina species (Squamata: Lamprophiidae: Pseudoxyrhophiinae), and implications for their dietary complexity and evolution
Figure 6. Two specimens of Alluaudina bellyi. (a) ZSM 383/2016 (ZCMV 15092) after regurgitation of its meal. (b) KU 347513 (CRH 1663) curled up in a ball during photography of the specimen. Note that its snout is poking out and at least one of its eyes is not completely occluded by coils.
Figure 3 in New dietary data from Compsophis and Alluaudina species (Squamata: Lamprophiidae: Pseudoxyrhophiinae), and implications for their dietary complexity and evolution
Figure 3. Compsophis laphystius photographed about one minute after observing it eat the eggs of Spinomantis perracae. The snake was startled and began to flee after we arrived at the event.
Figure 2 in New dietary data from Compsophis and Alluaudina species (Squamata: Lamprophiidae: Pseudoxyrhophiinae), and implications for their dietary complexity and evolution
Figure 2. Time series of Compsophis laphystius ingesting an adult Boophis entingae. The time series begins (a) with the head and torso of the frog already consumed, and ends (h) 22 minutes later with the disappearance of the toes (note the degree of swelling visible in the inset of g), and the lateral undulation of the body involved in swallowing.
Figs 1-3 in New data on the oriental Xantholinini. 36. Description of the male of Thyreocephalus elegantissimus BORDONI, 2012 and new records (Coleoptera, Staphylinidae) 253° contribution to the knowledge of the Staphylinidae
Figs 1-3: tergite, sternite of the male genital segment and aedeagus (1-3) of Thyreocephalus elegantissimus BORDONI (bar scale:1 mm).
Figure 5 in The genus Grammostola Simon 1892 (Araneae: Theraphosidae): a new species from western Argentina, new synonymy and distributional data
Figure 5. Distribution maps; white dots = previous distributional and black dots = new distributional data. Grammostola chalcothrix (A, B): (A) distributional records; (B) distribution according to the eco-regions proposed for Argentina. Grammostola inermis (C, D): (C) distributional records; (D) distribution according to the eco-regions proposed for Argentina. Grammostola pulchripes (E, F): (E) distributional records; (F) distribution according to the eco-regions proposed for Argentina.
Figure 4 in The genus Grammostola Simon 1892 (Araneae: Theraphosidae): a new species from western Argentina, new synonymy and distributional data
Figure 4. Grammostola chalcothrix (A, B): (A) Male (MCZ 41), palpal bulb, retrolateral; (B) male (MCZ 41), palpal bulb, prolateral. Grammostola inermis (C, D): (C) Male (MLP 14605), palpal bulb, retrolateral; (D) male (MLP 14605), palpal bulb prolateral.
Figure 3 in The genus Grammostola Simon 1892 (Araneae: Theraphosidae): a new species from western Argentina, new synonymy and distributional data
Figure 3. Grammostola vachoni. (A) Male (MACN-Ar 7152), palpal bulb, retrolateral; (B) male (MACN-Ar 7152), palpal bulb, prolateral; (C) distribution map; white dots = previous distributional data from Ferretti et al. (2011) and black dots = new distributional data; black cross = type locality of Grammostola fossor; (D) live habitus of adult male Grammostola vachoni. Scale bar = 1 cm. (E) Habitat of G. vachoni in Río Negro Province, Argentina, area next to the type locality of G. fossor. Photo: M. Sotelo.
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.