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3,878 results for “Molecular Data”
FIGURE 2 in Does Solidago litoralis (Asteraceae) merit specific rank? Insights from cytogenetic, molecular and ecological data
FIGURE 2. Chromomycin banding showing the GC-rich DNA regions. A. S. litoralis (partial metaphase); B. S. virgaurea (Livorno; partial metaphase); C. S. virgaurea (Monte Pisano); D. S. virgaurea (Tre Potenze). Scale bar: 10 μm.
FIGURE 1. Schiff stained metaphase plates. A. S in Does Solidago litoralis (Asteraceae) merit specific rank? Insights from cytogenetic, molecular and ecological data
FIGURE 1. Schiff stained metaphase plates. A. S. litoralis; B. S. virgaurea (Livorno); C. S. virgaurea (Monte Pisano); D. S. virgaurea (Tre Potenze). Scale bar: 10 μm.
FIGURE 3. FISH showing the chromosomes with 35S in Does Solidago litoralis (Asteraceae) merit specific rank? Insights from cytogenetic, molecular and ecological data
FIGURE 3. FISH showing the chromosomes with 35S (red) and 5S (green) signals. A. Partial metaphase of S. litoralis; B. Partial metaphase of S. virgaurea (Livorno); C. S. virgaurea (Monte Pisano); D. S. virgaurea (Tre Potenze). Scale bar: 10 μm.
FIGURE 5 in Does Solidago litoralis (Asteraceae) merit specific rank? Insights from cytogenetic, molecular and ecological data
FIGURE 5. Grime triangle showing CSR strategies calculated for each single individual. Empty dots: S. litoralis; diamonds: S. virgaurea (Livorno); filled squares: S. virgaurea (Monte Pisano); stars: S. virgaurea (Tre Potenze).
FIGURE 1 in Molecular data allow to elucidate the taxonomic placement of some Umbelliferae from Middle Asia and Afghanistan (Pinacantha, Ladyginia, Peucedanum mogoltavicum)
FIGURE 1. Photograph of the type of Pinacantha porandica (W; courtesy of the Naturhistorisches Museum Wien, Austria).
FIGURE 2 in Molecular data allow to elucidate the taxonomic placement of some Umbelliferae from Middle Asia and Afghanistan (Pinacantha, Ladyginia, Peucedanum mogoltavicum)
FIGURE 2. The Bayesian tree obtained from analysis of 126 nrITS sequences. GenBank accession numbers are provided after taxon names. Branch lengths are proportional to the number of the expected nucleotide substitutions. Bayesian posterior probabilities are indicated above nodes. Newly studied species are shown in bold and underlined.
FIGURE 1. Jackknife 50 in A new species of Melanoseris (Lactucinae, Cichorieae, Asteraceae) from SW Xizang, China, based on morphological and molecular data
FIGURE 1. Jackknife 50% majority-rule tree of Melanoseris based on the nrITS region. The BI posterior probabilities (PP) are given below the branches and the MP jackknife support (JK) values are shown above the branches.
FIGURE 3. Melanoseris jilongensis. A in A new species of Melanoseris (Lactucinae, Cichorieae, Asteraceae) from SW Xizang, China, based on morphological and molecular data
FIGURE 3. Melanoseris jilongensis. A. habit; B. taproot; C. capitulum; D. floret; E. style and stigma; F. involucre; G. leaf margin and indumentum; H. ovary and an outer layer of minute pappus; I. bristle pappus; J. achene; K. hairs of peduncle, K1 brownish arachnoid hair, K2 short coarse hair. D–F & H–I: photographed by M.X. Zhao, A–C & G & J–K: photographed by Z.H. Wang.
FIGURE 2. Jackknife 50 in A new species of Melanoseris (Lactucinae, Cichorieae, Asteraceae) from SW Xizang, China, based on morphological and molecular data
FIGURE 2. Jackknife 50% majority-rule tree of Melanoseris based on the combined plastid DNA dataset. The BI posterior probabilities (PP) are given below the branches and the MP jackknife support (JK) values are shown above the branches.
FIGURE 10 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 10. Pollen of putative aneuploid and nonaploid Caltha, determined by morphology and molecular data (Wefferling & Hoot, unpublished data). ††ploidy level determined by chromosome counts (Wefferling et al. 2015); †ploidy level estimated by flow cytometry (Wefferling et al. 2017). A. Hybrid with morphology of C. biflora, with larger genome size (aneuploid?) than any other sampled C. biflora (Wefferling et al. 2017); U.S.A.: Washington, Hunter, G. LR5† (UWM). B. Non-hybrid with morphology of C. chionophila, with larger genome size (aneuploid?) than any other C. chionophila (Wefferling et al. 2017); U.S.A.: Colorado, Townesmith, A., G. Gust, and L. Nye 202† (UWM). C. Allononaploid (9x) C. leptosepala; U.S.A.: Idaho, Wefferling, K.M. 212rotA†† (UWM).
FIGURE 9 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 9. Pollen of 12x Caltha leptosepala, determined by morphology and molecular data (i.e., two ribotypes were retrieved from each specimen; Wefferling & Hoot, unpublished data). ††ploidy level determined by chromosome counts (Wefferling et al. 2015); †ploidy level estimated by flow cytometry (Wefferling et al. 2017). A. U.S.A.: Washington, Rodman, S., D. Tank, C. Spurgeon, and K. Ardern 909 (WTU). B. Canada: British Columbia, Marr, K., R. Hebda, and W. MacKenzie 06-0013† (RBCM). C. U.S.A.: Alaska, Parker, C.L., A.R. Batten, and D. Blank 9523 (UWM). D. U.S.A.: Alaska, Wefferling, K.M. 63† (UWM). E. U.S.A.: Oregon, Wefferling, K.M. CR5†† (UWM). F. U.S.A.: California, Bartolomew, B. 4327 and B. Anderson (NYBG). G. U.S.A.: Idaho, Parks, M., L. Stratford, and R. McNeill 620† (ID). H. U.S.A.: Oregon, Wefferling, K.M. and L. Woo 62† (UWM). I. Canada: British Columbia, Marr, K., R. Hebda, L. Kennedy, and White 02-48 (RBCM). Size bars = 6 μm.
FIGURE 8 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 8. Pollen of Caltha chionophila, determined by morphology and molecular data (Wefferling & Hoot, unpublished data). †ploidy level estimated by flow cytometry (Wefferling et al. 2017). A. U.S.A.: New Mexico, Holmgren, N.H., and P.K. Holmgren 7330 (NYBG). B. U.S.A.: Colorado, Hall, C., B. Jacobs, and A. Morgan 1565† (NYBG). C. U.S.A.: Nevada, Tiehm, A. and M. Williams 9675 (ID). D. U.S.A.: Utah, Holmgren, N.H., and P.K. Holmgren 15424† (NYBG). E. U.S.A.: Idaho, Errter, B., B. Corbin, C. Scott, J. Irwin, and W. Irwin 20192 (SRP). F. U.S.A.: Wyoming, Wefferling, K.M. 19† (UWM). G. U.S.A.: Oregon, Johanson, J. 07-10 (WTU). H. U.S.A.: Arizona, Rink, G. and L. Stevens s.n. (ASC). I. U.S.A.: Idaho, Wefferling, K.M. 212lepto† (UWM). Size bars = 6 μm.
FIGURE 11 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 11. Close-up photographs of Caltha flowers. A. C. biflora. U.S.A.: Washington, Alpine Lakes Wilderness. Photo by L. Wefferling. B. C. chionophila. U.S.A.: Wyoming, Medicine Bow National Forest. C. C. leptosepala. U.S.A.: Alaska, Chugach National Forest.
FIGURE 6 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 6. Bayesian MCMC phylogram of Caltha species based on nuclear ribosomal DNA (ITS1, 5.8S, and ITS2). Posterior probability (PP) and bootstrap (BS) support is given for each node: PP/MLBS/MPBS.—indicates branch was not found. Dashed branches indicate less than moderate support for at least one approach (PP ≤ 0.95, BS ≤ 70). Dashed lines connect ribotypes from a single allododecaploid individual. Psychrophila group and Caltha leptosepala complex indicated with vertical bars to right. Ploidy level (x = 8) and collection site is given for each ingroup sample. AK = Alaska, CO = Colorado, ID = Idaho, OR = Oregon, WA = Washington (all U.S.A.).
FIGURE 7 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 7. Pollen of Caltha biflora, determined by morphology and molecular data (Wefferling & Hoot, unpublished data). ††ploidy level determined by chromosome counts (Wefferling et al. 2015); †ploidy level estimated by flow cytometry (Wefferling et al. 2017). A. U.S.A.: Alaska, Koval, V.L. 5 (ALA). B. U.S.A.: Nevada, Johnson, J.M. 097 (NYBG). C. U.S.A.: California, Janeway, L.P. 7564 (CSU). D. U.S.A.: California, Wefferling, K.M. and L. Woo 21 (UWM). E. U.S.A.: California, Wefferling, K.M. and L. Woo 30† (UWM). F. U.S.A.: Washington, Wefferling, K.M. 50† (UWM). G. Canada: British Columbia, Calder, J.A., D.B.O. Savile, and R.L. Taylor 21584 (V). H. U.S.A.: Oregon, Wefferling, K.M. 69† (UWM). I. U.S.A.: Washington, Wefferling, K.M. CR1†† (UWM). Size bars = 6 μm.
FIGURE 4 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 4. Isolectotype of Caltha chionophila, collected by C.F. Baker, 1899. "Near Pagosa Peak, 11,000 ft., Colorado" (U.S.A.). Housed at the Greene-Nieuwland Herbarium, Notre Dame, U.S.A. (NDG17369). Inset photo shows broad filaments; magnified 5×.
FIGURE 2 in Species circumscription of the Caltha leptosepala polyploid complex (Ranunculaceae) based on molecular and morphological data
FIGURE 2. Holotype of Caltha leptosepala, collected by A. Menzies, 1792. "Northwest Coast of America, Prince William Sound." (coastal Alaska, U.S.A.). Housed at The Natural History Museum, London, England (BM565602). Inset photo shows narrow filaments; magnified 5×.
FIGURE 5 in Aster oliganthus (Asteraceae, Astereae), a new species from western Sichuan, China, based on morphological and molecular data
FIGURE 5. Aster oliganthus (from the holotype). A, Habit; B, Apex of a middle cauline leaf; C. A ray floret; D. A disc floret; E–I. Phyllarie (outer surface) in 5 series from the outermost to the inmost; J. Opened synantherous stamens (inside surface) of a disc floret; K. Stigma branches and style of a disc floret. Drawn by Gen-Shen Yin.
FIGURE 4 in Aster oliganthus (Asteraceae, Astereae), a new species from western Sichuan, China, based on morphological and molecular data
FIGURE 4. Phylogenetic relationships among Aster oliganthus and other sampled Aster species based on nrDNA ITS-ETS sequence data. Bootstrap support values (1,000 replicates) for maximum parsimony (MP≥50 %, right) and Bayesian posterior probabilities (PP≥0.90, left) are provided above the branches. The tree is rooted to Callistephus chinensis and Myriactis nepalensis.
FIGURE 3 in Aster oliganthus (Asteraceae, Astereae), a new species from western Sichuan, China, based on morphological and molecular data
FIGURE 3. Micrographs of somatic metaphase chromosomes (A) and the karyotype (B) of Aster oliganthus (Scale bar = 10 μm).
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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)
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.