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1,287 results for “species identity”
FIGURE 2 in The true identity of Tectaria nesiotica Holttum (Tectariaceae), with comments on the species identification in Pleocnemia (Dryopteridaceae)
FIGURE 2. Type specimens of Pleocnemia nesiotica.—A. Holotype at K-000375362.—B. Isotype at LAE-236265.—C. Detail of B, showing sinus teeth between lobes of pinnules (arrows pointing).
FIGURE 1 in The true identity of Tectaria nesiotica Holttum (Tectariaceae), with comments on the species identification in Pleocnemia (Dryopteridaceae)
FIGURE 1. Comparison of venation pattern between Tectaria (A–D) and Pleocnemia (E). For Tectaria the basal basiscopic veins of pinna lobes (or pinnule lobes) arise from costae (or correspondingly costules) but not from the midrib of lobes (A–D); while for Pleocnemia the basal basiscopic veins arise from the midrib of lobes (E).—A. Tectaria sagenioides based on Dong 1599 (IBSC).—B. T. devexa based on Dong 1500 (IBSC).—C. T. multicaudata based on Clarke 18427 (holotype, K).—D. T. griffithii based on Griffithii s.n. (holotype, K).—E. Pleocnemia nesiotica based on Croft & Marsh LAE71234 (holotype, K) (Drawn by S.Y. Dong).
FIGURE 1 in Identity of Microtoena coreana (Lamiaceae), a doubtful species from Korea
FIGURE 1. The holotype of Microtoena coreana: A. the holotype U. Faurie 752 (E!); B. a corolla with five lobes, lobes marked by black arrows; C. a broadly campanulate calyx; D. the long-exserted stamens marked by a black arrow; E. the identification of L. A. Lauener, and F. the collection information noted by Faurie.
FIGURE 4 in Identity of Microtoena coreana (Lamiaceae), a doubtful species from Korea
FIGURE 4. The lectotype of Caryopteris divaricata Maxim. (C. I. Maximowicz s.n.: LE!): A. the lectotype specimen collected by Maximowicz from Japan; B. the Maximowicz's drawing of flower and fruit details of Caryopteris divaricata, and C. the collection records written by Maximowicz.
FIGURE 2 in Identity of Microtoena coreana (Lamiaceae), a doubtful species from Korea
FIGURE 2. Diagnostic characters of Microtoena and a representative species (photographed by Qiang Wang): A. Microtoena patchoulii, collected from Tengchong, Yunnan; B. a calyx and a bract of Microtoena; C. A flower of Microtoena; D. an upper and a lower corolla lips of Microtoena, and E. the recondite stamens of Microtoena.
FIGURE 3 in Identity of Microtoena coreana (Lamiaceae), a doubtful species from Korea
FIGURE 3. Principal coordinate analysis. The holotype of Microtoena coreana and samples of Tripora divaricata form an entity separated from representative species of Microtoena and Caryopteris.
FIGURE 2. A–D in Sisymbrium isatidifolium (Brassicaceae): a new species from southern Spain, and the identity of S. hispanicum Jacq.
FIGURE 2. A–D Photographs of Sisymbrium isatidifolium: A, Habit; B, detail of the basal leaves; C, detail of the raceme; D, siliques.
FIGURE 1. A–D in Sisymbrium isatidifolium (Brassicaceae): a new species from southern Spain, and the identity of S. hispanicum Jacq.
FIGURE 1. A–D Sisymbrium isatidifolium (from the holotype). A, Lower part; B, middle leaves; C, detail of the synflorescence; D, flower; E, silique.
FIGURE 2 in The identity of Polyalthia florulenta (Annonaceae): a second species of Wangia in China
FIGURE 2. Leaf, flower, fruit and seed morphology of Polyalthia florulenta (= Wangia florulenta). A, A branch, showing leaf-opposed inflorescence with only one flower; also showing the shorter outer petals (indicated by arrow) and the longer inner petals. B, A branch with a mature flower turning white, showing the shorter outer petals (reflexed; indicated by arrow) and the longer inner petals; also showing the eucamptodromous leaf venation with percurrent tertiary veins, the acuminate apex, and adaxially impressed secondary veins. C, Flower bud, showing two bracts at the base of the pedicel. D, Dissected flower bud, showing glandular tissue (indicated by arrow) at the inner petal base. E, Fruit with subglobose monocarps. F, Single monocarp, showing the verrucous surface (S. S. Zhou 11352, HITBC). G, Subglobose seed, showing longitudinal groove around circumference (S. S. Zhou 11352, HITBC). H, Transverse-section of a seed, showing the spiniform endosperm ruminations (S. S. Zhou 11352, HITBC).—Scale bars: D = 1 mm; E, F, G, H = 5 mm.—Photos: A, B, De-ping Ye; C, D, F, G, Bine Xue; E, Zheng-yu Zuo.
FIGURE 3. Wangia florulenta. A, Flowering branch. B, Flower. C, Sepal. D, Outer petal. E, Inner petal. F, Carpel. G, Stamen. H in The identity of Polyalthia florulenta (Annonaceae): a second species of Wangia in China
FIGURE 3. Wangia florulenta. A, Flowering branch. B, Flower. C, Sepal. D, Outer petal. E, Inner petal. F, Carpel. G, Stamen. H, Fruit with subglobose monocarps. Drawn by Zheng-meng Yang. (A–G from Y.H. Tan & D.P. Ye 9352, HITBC; H from T. P. Zhu 0465, KUN)
FIGURE 1. Bayesian 50 in The identity of Polyalthia florulenta (Annonaceae): a second species of Wangia in China
FIGURE 1. Bayesian 50% majority-rule consensus tree under partitioned models (cpDNA data: matK, ndhF, ndhF-rpl32, psbA-trnH, rbcL, rpl32-trnL, and trnL-F; 66 taxa). Numbers at the nodes indicate Bayesian posterior probabilities, maximum parsimony bootstrap values (> 50%) in that order.
FIGURE 1. Orchidantha yunnanensis P.Zou, C.F in Orchidantha yunnanensis (Lowiaceae), a new species from China, and notes on the identity of Orchidantha laotica
FIGURE 1. Orchidantha yunnanensis P.Zou, C.F.Xiao & Škorničk. A. Habit; B. Detail of flowers; C. Old inflorescences showing the dense branching (scale 10 cm); D. Detail of the part of the inflorescence (scale 5 cm); E. Dissection (from left): prophyll, first bract, second bract, floral bract, two lateral sepals, dorsal sepal, labellum, and the rest of the flower (peduncle, ovary and ovary extension with petals, anthers and stigma attached) (scale 5 cm); F. Detail of anthers and stigma (front and back views), two petals (back and front view), crossection and longitudinal section of ovary. All based on P. Zou, C. F. Xiao, C. J. Cui & K. Xu ZP54. (Photo by P. Zou)
FIGURE 2. Orchidantha yunnanensis P.Zou, C.F in Orchidantha yunnanensis (Lowiaceae), a new species from China, and notes on the identity of Orchidantha laotica
FIGURE 2. Orchidantha yunnanensis P.Zou, C.F.Xiao & Škorničk. A. Habit; B. Flower (side view); C. Lateral petal (ventral and dorsal view); D. Stamens and style (ventral and dorsal view); E. Ovary (longitudinal section); F. Prophyl G. Second bract; H. Floral bract; I. Lateral sepal (ventral view); J. Lateral sepal (dorsal view); K. Dorsal sepal (dorsal view); L. Labellum; M. stem with pedicel and ovary extension (side view). Scales: B (5 cm); C–E (1 cm); F–M (5 cm). All from P. Zou, C. F. Xiao, C. J. Cui & K. Xu ZP54 (IBSC) and living material of XTBG 20013005. (Drawn by Ms. Yun-Xiao Liu)
FIGURE 3. Orchidantha laotica K.Larsen. A in Orchidantha yunnanensis (Lowiaceae), a new species from China, and notes on the identity of Orchidantha laotica
FIGURE 3. Orchidantha laotica K.Larsen. A. Habit; B. Ripe open capsule (without seeds); C. Detail of flower with dorsal sepal removed; D. Flower (front view); E. Flower (side view); F. Laterals sepals, dorsal sepal and labellum (scale 1 cm); G. Detail of stigma and stamens enveloped in petals (in side and ventral views) and two petals removed (scale 5 mm); H. Stigma and anthers (petals removed) from ventral, dorsal and side view. All based on Leong-Škorničková et al. JLS-1800. (Photo by J. Leong-Škorničková)
FIGURES 7–18 in New Arcuatasigma species (Bacillariophyta, Pleurosigmataceae) from Guam and Belize, and the taxonomic identities of Toxonidea challengeriensis and its variety
FIGURES 7–18. Arcuatasigma arenicolum Lobban, sp. nov. Figs 7–12 DIC, Figs 14–18 SEM. Figs 7, 8. Live cell in valve and girdle view, showing plastids. Fig. 9. Holotype. Fig. 10. Another cell; arrowhead indicates position of twist in the frustule. Fig. 11. Detail of central part of cell in valve view. Fig. 12. Detail of apex in girdle view. Fig. 13. Portion of frustule showing exterior and interior of valve and the non-rotated apex. Fig. 14. Detail of central area showing overlapping raphe pores. Fig. 15. Detail of valve surface showing smooth surface and V-shaped openings of paired areolae (arrows). Fig. 16. Apex of frustule. Fig. 17. Detail of internal central area. Fig. 18. Internal aspect of apex showing helictoglossa. Scale bars: 10 μm (Figs 7–13), 2 μm (Figs 16–18), 500 nm (Figs 14, 15).
FIGURES 1–6 in New Arcuatasigma species (Bacillariophyta, Pleurosigmataceae) from Guam and Belize, and the taxonomic identities of Toxonidea challengeriensis and its variety
FIGURES 1–6. Arcuatasigma marginale Lobban, sp. nov. Figs 1, 2. Holotype in LM (differential interference contrast). Fig. 3. Twisted pole in SEM. The raphe on the valve face can be seen rolling around to the lower side, while the valve surface at the apex has rolled up from below. Fig. 4. Central portion of valve and valvocopula, oriented with poles curved to left (inset). Showing the non-overlapping raphe branches, areolae in the proximal rows joined apically (arrowheads) vs. those in the distal rows joined transapically (arrows). Also showing the longitudinal striae parallel to the sternum on the left, slightly angled on the right. Fig. 5. Detail of valve showing areola slit orientation trends in different rows (double-headed arrows) and joined areolae in the marginal rows (arrows). Fig. 6. Detail of frustule at apex. Scale bars: 10 μm (Figs 1–3), 2 μm Figs 4, 6), 1 μm (Fig. 5).
FIGURE 6 in The taxonomic revision of Asian Aristolochia (Aristolochiaceae) II: Identities of Aristolochia austroyunnanensis and A. dabieshanensis, and A. hyperxantha-a new species from Zhejiang, China
FIGURE 6. The comparison of leaves. A. Aristolochia kaempferi; B. A. tanzawana; C. A. dabieshanensis. (A–B: quoted from Ohi-Toma et al. 2014; C: photographed by X.X.Zhu from Dabie Mountains; scale bars: 5 cm)
FIGURE 1. Aristolochia austroyunnanensis. A in The taxonomic revision of Asian Aristolochia (Aristolochiaceae) II: Identities of Aristolochia austroyunnanensis and A. dabieshanensis, and A. hyperxantha-a new species from Zhejiang, China
FIGURE 1. Aristolochia austroyunnanensis. A. Habitat; B. Leaves; C. Flowers in frontal view; D. Longitudinal-section of flower (showing inside structure); E. Anthers and gynostemium. (photographed by J.Cai from Pingbian County, Yunnan)
FIGURE 3. Aristolochia dabieshanensis. A in The taxonomic revision of Asian Aristolochia (Aristolochiaceae) II: Identities of Aristolochia austroyunnanensis and A. dabieshanensis, and A. hyperxantha-a new species from Zhejiang, China
FIGURE 3. Aristolochia dabieshanensis. A. Habitat; B. Leaves; C. Longitudinal-section of flower (showing inside structure); D. Anthers and gynostemium; E–H. Flower. (A–E: photographed by X.X.Zhu from Dabie Mountains, Jinzhai County, Anhui; F: photographed by P.Li from Dabie Mountains, Jinzhai County, Anhui; G: photographed by B.Chen from Dabie Mountains, Luotian County, Hubei; H: photographed by Z.W.Wang from Dabie Mountains, Yingshan County, Hubei)
FIGURE 2. A–C in The taxonomic revision of Asian Aristolochia (Aristolochiaceae) II: Identities of Aristolochia austroyunnanensis and A. dabieshanensis, and A. hyperxantha-a new species from Zhejiang, China
FIGURE 2. A–C: Aristolochia austroyunnanensis. A. Leaf; B. Flower in frontal view; C. Flower in dorsal view. D–F: A. petelotii. D. Leaf; E. Flower in frontal view; F. Flower in dorsal view. G–I: A. fangchi. G. Leaf; H. Flower in frontal view; I. Flower in dorsal view. (A–C: photographed by J.Cai from Pingbian County, Yunnan; D–F: photographed by Y.H.Tong from Malipo County, Yunnan; G–I: photographed by X.X.Zhu from Dinghu District, Guangdong)
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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)
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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.