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FIGURE 11 in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 11. Scatter plot of scores derived from the functions produced by stepwise discriminant analysis of 12 morphometric ratios from populations of Zamia splendens, Z. loddigesii and Z. katzeriana
FIGURE 15. A–B in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 15. A–B, Zamia katzeriana TS leaflet at margin showing variation in hypodermal fibre layers; C, Z. splendens TS leaflet at margin showing single layer of hypodermal fibres; D, Z. loddigesii TS leaflet at margin showing up to three layers of hypodermal fibres and a continuous layer extending along adaxial portion. Stain Safranin O and Fast Green FCF. All scale bars = 50 μm.
FIGURE 4 in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 4. Variation of median leaflet of leaves: A, Zamia splendens; B, Z. katzeriana; C, Z. loddigesii.
FIGURE 3 in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 3. Comparison of leaflets between species: A, Zamia splendens; B, Z. katzeriana; C, Z. loddigesii. Scale Bar = 2 cm.
FIGURE 2 in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 2. Comparison of leaves between species: A, Zamia splendens; B, Z. katzeriana; C, Z. loddigesii.
FIGURE 10 in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 10. Principal components analysis on morphological data between populations of Zamia splendens, Z. loddigesii and Z. katzeriana: S = Z. splendens, K = Z. katzeriana, L = Z. loddigesii.
FIGURE 6 in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 6. Megastrobili of Zamia katzeriana, showing apiculate to rounded apex and short erect peduncles.
FIGURE 13 in Anatomy and morphology suggest a hybrid origin of Zamia katzeriana (Zamiaceae)
FIGURE 13. Discriminant analysis on 9 leaflet anatomical variables of Zamia splendens, Z. loddigesii and Z. katzeriana.
FIGURE 5 in Stipa ×fallax (Poaceae: Pooideae: Stipeae), a new natural hybrid from Tajikistan, and a new combination in Stipa drobovii
FIGURE 5. High mountain feather grass steppes near Iskanderkul Lake (Zeravshan Mts, Tajikistan), a habitat of Stipa ×fallax: (A) association of Stipetum drobovii, (B) association of Stipetum lipskyi, (C) Stipa ×fallax. Photos by M. Nobis, 30 May 2015.
FIGURE 3 in Stipa ×fallax (Poaceae: Pooideae: Stipeae), a new natural hybrid from Tajikistan, and a new combination in Stipa drobovii
FIGURE 3. Micromorphology of Stipa drobovii (A–D), S.×fallax (E–H) and S. macroglossa subsp. macroglossa (I–L). (A, E, I) lemma surface - lateral view, (B, F, J) lemma apex, (C, G, K) callus, (D, H, L) adaxial surface of vegetative leaves. Abbreviations: h = hook, lc = long cell, sb = silica body, cc—cork cell, pr—prickle, mh—macrohair. Scale bars: C, G, K: 1 mm. Examined specimens of S. drobovii, S.×fallax and S. macroglossa were collected in Tajikistan (near Iskanderkul Lake) and are preserved at KRA.
FIGURE 2 in Stipa ×fallax (Poaceae: Pooideae: Stipeae), a new natural hybrid from Tajikistan, and a new combination in Stipa drobovii
FIGURE 2. Pollen grains of Stipa taxa stained with Alexander's dye: (A) S. ×fallax, (B) S. macroglossa subsp. macroglossa, (C) S. drobovii. Scale bar 50 μm.
FIGURE 4 in Spontaneous hybridization among Allium tulipifolium and A. robustum (Allium subg. Melanocrommyum, Amaryllidaceae) under cultivation
FIGURE 4. Unrooted phylogenetic trees based: a) on ITS, and b) on a combined plastid DNA data set. Bayesian posterior probabilities (PP) are given above branches, bootstrap support (BS) values over 50% from maximum parsimony analysis below branches.
FIGURE 2 in Spontaneous hybridization among Allium tulipifolium and A. robustum (Allium subg. Melanocrommyum, Amaryllidaceae) under cultivation
FIGURE 2. Metaphase chromosomes of A) Allium tulipifolium, 2n = 16; B) A. robustum, 2n = 16; C) A. tulipifolium× A. robustum hybrid.
FIGURE 1 in Spontaneous hybridization among Allium tulipifolium and A. robustum (Allium subg. Melanocrommyum, Amaryllidaceae) under cultivation
FIGURE 1. Inflorescences of a—A. tulipifolium, b—the hybrid A. tulipifolium × A. robustum; c—A. robustum. (Photos S. Smirnov, 2014, shot in Living Collection of South Siberian Botanical Garden, Altai State University, Barnaul, Russia).
FIGURE 4 in Stipa ×fallax (Poaceae: Pooideae: Stipeae), a new natural hybrid from Tajikistan, and a new combination in Stipa drobovii
FIGURE 4. Stipa ×fallax: (A) vegetative shoots, (B) awns, (C) anthecia, (D) panicle, (E) lower part of awns (columns) with anthecia. Scale bar: (A), (B), (D), (E) = 1 cm, (C) = 0.5 cm.
FIGURE 1 in Stipa ×fallax (Poaceae: Pooideae: Stipeae), a new natural hybrid from Tajikistan, and a new combination in Stipa drobovii
FIGURE 1. Biplot of principal component analysis (PCA) performed on 10 quantitative characters; ellipses indicate 95% confidence interval. For character abbreviations see Methods.
FIGURE 3 in The nomenclature of two hybrid taxa in Carex sect. Vesicariae (Cyperaceae) currently assigned as Carex rostrata var. borealis and Carex stenolepis
FIGURE 3. Lectotype of Carex grahamii Boott, designated here, from Great Britain: Scotland, Clova. From the Royal Botanic Gardens, Kew (K). The priority name for the hybrid species from C. saxatilis × vesicaria, © of the Board of Trustees of the Royal Botanic Gardens, Kew.
FIGURE 1 in The nomenclature of two hybrid taxa in Carex sect. Vesicariae (Cyperaceae) currently assigned as Carex rostrata var. borealis and Carex stenolepis
FIGURE 1. Lectotype of Carex rostrata var. borealis (Hartman) Kükenthal, from Sweden: Jämtland. From Uppsala Herbarium (UPS). Here referred to C. ×saamica T.M.Pedersen & Elven nom. nov. (= C. rostrata Stokes × C. rotundata Wahlenb.). A, habit; B, pistillate spike. © Museum of Evolution, Uppsala University (UPS).
FIGURE 2 in The nomenclature of two hybrid taxa in Carex sect. Vesicariae (Cyperaceae) currently assigned as Carex rostrata var. borealis and Carex stenolepis
FIGURE 2. Lectoype of Carex stenolepis Lessing, designated here, from Norway: Nord-Trøndelag, Meråker. From Oslo Herbarium (O). The plants belong to a short grown form of C. rostrata. A, habit; B, pistillate spike; C, utricle.
FIGURE 1 in The Origin of New Natural hybrid, Goodyera maximo-velutina (Orchidaceae) from Jeju Island, Korea
FIGURE 1. The morphological comparison of Goodyera × maximo-velutina and their putative parental taxa. The habitus images from type locality (A, D, G), photographic images of ovary (B, E, H) and leaf venation (C, F, I). G. × maximo-velutina (A–C), G. maximowicziana (D–F), G. velutina (G–I).
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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.