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FIGURE 4 in The genus Zelentia is an amphi-boreal taxon expanded to include three new species from the North Pacific and Atlantic oceans (Gastropoda: Nudibranchia: Trinchesiidae)
FIGURE 4. Zelentia nepunicea sp. nov., A, C, D–F Holotype ZMMU Op-626, living animal, 12 mm length, British Columbia, Galiano Island, 20 m depth. B, G–L Paratype ZMMU Op-627, living animal, 10 mm length, Washington, Port Orchard, 14 m depth. A. Dorsal view (holotype); B. Dorsal view (paratype); C. Jaws (holotype); D. Masticatory processes of jaws (holotype); E. Radular teeth, posterior part, general view (holotype). F. Radular teeth, posterior part, details (holotype). G. Jaws (paratype); H. Masticatory process of jaws (paratype); I. Radular teeth, posterior part (paratype); J. Radular teeth, posterior part towards middle part (paratype); K. Penis with stylet, close up (paratype). L. Penis with stylet (paratype). Scale bars: C, L—100 µm, D, K—10 µm, E—50 µm, G—200 µm, F, H—20 µm, I, J—30 µm, L—100 µm. Photos: (A–B) Karin Fletcher, SEM: Alexander Martynov (C–L).
FIGURE 3 in The genus Zelentia is an amphi-boreal taxon expanded to include three new species from the North Pacific and Atlantic oceans (Gastropoda: Nudibranchia: Trinchesiidae)
FIGURE 3. Zelentia willowsi sp. nov., A, I Holotype ZMMU Op-628, living animal, 7.5 mm length, Port Orchard, 10 m depth and radula. B, D. Paratype, ZMMU Op-631, living animal, 7 mm length (live), same locality. C, E. Paratype, ZMMU Op-629, living animal, 6.5 mm length, same locality. F, G, H, J. Paratype, ZMMU Op-632, same locality, 7.5 mm length (live), details of internal morphology. A. Living specimen; B. Ventral view; C. Dorsal view; D. Anterior view; E. Living specimen on hydroids with egg mass; F. Jaws, SEM; G. Masticatory processes of jaws, light microscopy; H. Radular teeth, posterior part; I. Radular teeth, anterior part towards middle part, SEM; J. Penis with slightly curved stylet (SEM) with inserted smaller light microscopy image (indicated by arrow). Scale bars: F—100 µm, H, J—20 µm, I—10 µm. Photos: Karin Fletcher (A–E); G, Alexander Martynov. SEM: Alexander Martynov (F, H–J).
FIGURE 2 in The genus Zelentia is an amphi-boreal taxon expanded to include three new species from the North Pacific and Atlantic oceans (Gastropoda: Nudibranchia: Trinchesiidae)
FIGURE 2. The haplotype network based on concatenated molecular data (COI + 16S) showing genetic mutations occurring within Zelentia species.
FIGURE 1 in The genus Zelentia is an amphi-boreal taxon expanded to include three new species from the North Pacific and Atlantic oceans (Gastropoda: Nudibranchia: Trinchesiidae)
FIGURE 1. Phylogenetic relationships of Zelentia based on COI + 16S + H3 concatenated dataset inferred by Bayesian inference. Numbers above branches represent posterior probabilities from BI; numbers below branches indicate bootstrap values for Maximum Likelihood. Abbreviations: CPO, Canada, Pacific Ocean; BS, Barents Sea; IS, Irish Sea; MAO, Maine, Atlantic Ocean; NEAO, Northeastern Atlantic Ocean; UPO, USA, Pacific Ocean; WS, White Sea.
FIGURE 4 in Bazzania calypogeoides (Marchantiophyta)-a peculiar new taxon from Eastern Hengduan (China)
FIGURE 4. Bazzania calypogeoides Bakalin, Maltseva & Klimova sp. nov.: A— part of mat; B—part of mat; C—cells with oil bodies in leaf apex; D, E— shoot, fragment, dorsal view; F, G— leaves (torn under the cover glass in the slide); H— midleaf cells with oil bodies; I— cells with oil bodies in underleaf apex; F, G— underleaves. Scales: 5 mm, for A, B; 2 mm for D, E; 100 µm, for C, H, I; 500 µm, for F, G, J, K. A, C, D, F, G, J, K from C-74-1-18; B, I from C-41-5-17, E, H from C-44-9-17 (VBGI). (Photos by V. Bakalin, 2018, 2019.
FIGURE 3 in Bazzania calypogeoides (Marchantiophyta)-a peculiar new taxon from Eastern Hengduan (China)
FIGURE 3. Bazzania calypogeoides Bakalin, Maltseva & Klimova sp. nov.: A—Shoot, fragment, ventral view; B–E—leaves; F—I— underleaves; J—stem cross-section; K—plant habit, fragment, ventral view. Scales: a—2 mm, for A; b—1 mm for B–I; c—100 µm for J; d—4 mm, for K. All from C-77-29-18 (VBGI) Illustrations by M. Bakalin.
FIGURE 2. Phylogram obtained from a in Bazzania calypogeoides (Marchantiophyta)-a peculiar new taxon from Eastern Hengduan (China)
FIGURE 2. Phylogram obtained from a Bayesian analysis of the genus Bazzania based on trnT‒trnF dataset. Newly obtained specimens are provided with voucher numbers. Bootstrap support values> 50% in ML analysis and Bayesian posterior probabilities (PP)> 0.50 are indicated. Scale bar denotes the number of nucleotide substitutions per site. Bazzania subtilis in the tree is in "sensu Meagher" is kept for B. helgana U. Schwarz, Schäf.-Verw. & Shevock by Schwarz et al. (2023: 11).
0.0 0.5 1.0 1.5 uncorrected p in Increased taxon sampling provides new insights into the phylogeny and evolution of the subclass Calcaronea (Porifera, Calcarea)
0.0 0.5 1.0 1.5 uncorrected p-distances (%) Fig. 3 Distribution of intra- and interspecific divergences (uncorrected pdistances) of 18S rRNA in Calcaronea
Fig. 2 in Increased taxon sampling provides new insights into the phylogeny and evolution of the subclass Calcaronea (Porifera, Calcarea)
Fig. 2 Phylogenetic reconstruction using Bayesian inference (PHASE-3, HKY85/ RNA16D + G) of the C-region of 28S rDNA for the subclass Calcaronea. Outgroup taxa not shown. Posterior probability values are shown as the upper half of circles, and the lower half represents bootstrap values (ML). Support values are color-coded
Fig. 1 in Increased taxon sampling provides new insights into the phylogeny and evolution of the subclass Calcaronea (Porifera, Calcarea)
Fig. 1 Phylogenetic reconstruction using Bayesian inference (PHASE-3, REV + G/ RNA16D + G) of 18S rRNA for the subclass Calcaronea. Outgroup taxa not shown. Posterior probabilities values are shown as the upper half of circles, and the lower half represents bootstrap values (ML). Support values are color-coded. Gray branches in the tree represent those without support
Fig. 4 in Increased taxon sampling provides new insights into the phylogeny and evolution of the subclass Calcaronea (Porifera, Calcarea)
Fig. 4 Distribution of intra- and interspecific divergences (uncorrected p- distances) of the C-region of 28S rDNA in Calcaronea
FIGURE 3. Androsace halleri subsp. nuria. a in Androsace halleri subsp. nuria Schönsw. & Schneew. (Primulaceae), a new taxon from the eastern Pyrenees (Spain, France)
FIGURE 3. Androsace halleri subsp. nuria. a, habit; b, bract; c, young capsule; d, flower; e, scape; f, leaf apex (upper side); g, hooked hairs on leaf margin; h, rosette leaves. Drawing by M. Magauer.
FIGURE 2 in Androsace halleri subsp. nuria Schönsw. & Schneew. (Primulaceae), a new taxon from the eastern Pyrenees (Spain, France)
FIGURE 2. Comparison of morphological variation between populations of Androsace halleri from Massif Central and Vosges (France) and populations from the Pyrenees. Boxes define 25 and 75 percentiles; horizontal lines indicate medians, whiskers are from 5 to 95 percentiles, and circles indicate extreme values. The groups are different at p <0.001 (T-test) for both characters. Left, ratio between leaf length and leaf width. Right, length of scapes during anthesis in mm.
FIGURE 1 in Androsace halleri subsp. nuria Schönsw. & Schneew. (Primulaceae), a new taxon from the eastern Pyrenees (Spain, France)
FIGURE 1. Phylogenetic relationships of A. halleri and its closest relatives. Shown is a neighbour joining analysis based on Nei-Li distances of the dataset presented in Dixon & al. (2008; the distantly related A. adfinis s. l. and A. cantabrica (Losa & P.Monts.) Kress (1981: 2) were excluded). The tree was rooted with A. hedraeantha Grisebach (1844: 3). A triangle's height reflects the intra-taxon genetic differentiation, a triangle's width is proportional to the number of individuals analysed.
FIGURE 5 in Clinopodium serpyllifolium subsp. sirnakense (Lamiaceae), a new taxon from south-eastern Anatolia, Turkey
FIGURE 5. Morphological characters of Clinopodium serpyllifolium subsp. brachycalyx (a,b: Stem, c,d: Leaf, e,f: Calyx, g,h: Mericarp, i,j: Pollen).
FIGURE 4 in Clinopodium serpyllifolium subsp. sirnakense (Lamiaceae), a new taxon from south-eastern Anatolia, Turkey
FIGURE 4. Morphological characters of Clinopodium serpyllifolium subsp. sirnakense (a,b: Stem, c,d: Leaf, e,f: Calyx, g,h: Mericarp, i,j: Pollen).
FIGURE 1 in Clinopodium serpyllifolium subsp. sirnakense (Lamiaceae), a new taxon from south-eastern Anatolia, Turkey
FIGURE 1. Geographical distribution of Clinopodium serpyllifolium subsp. sirnakense (■), subsp. barbatum (●), subsp. serpyllifolium (▲), subsp. giresunicum (◘) and subsp. brachycalyx (♦) in Turkey.
FIGURE 2 Oreocharis brachypodus J.M. Li & Z.M.Li in Oreocharis brachypodus (Gesneriaceae), a new taxon from Guizhou, China
FIGURE 2 Oreocharis brachypodus J.M. Li & Z.M.Li sp. nov. A, habit; B, adaxial and abaxial leaves; C, opened corolla showing two stamens and a pistil with a few ditches before flowering; D, corolla limbs; E, calyx and pistil with disc; F, corolla tube.
FIGURE 3 in Oreocharis brachypodus (Gesneriaceae), a new taxon from Guizhou, China
FIGURE 3 Oreocharis villosa (photos from the holotype vouchered in PE). A, habit; B, adaxial and abaxial leaves; C, cymes. D, calyx and pistil (left), opened corolla showing stamens and staminodes (right).
FIGURE 21 in Persepolium (Polygoneae): A new genus in Polygonaceae based on conventional Maximum Parsimony and Three-taxon statement analyses of a comprehensive morphological dataset
FIGURE 21. (I)—Most parsimonious optimizations (Maddison & Maddison, 2011) of the selected morphological traits using topology resulted from the standard MP analysis of the 27 characters' morphological matrix of Atraphaxis s.l. (Fig. 18A, Appendix 3). All character states were treated as "unordered" Image: E. Mavrodiev.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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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.