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85 results for “valid name”
Figures 6–11 in Validation of some species- and genus-group names in Melitta (Hymenoptera: Melittidae)
Figures 6–11. Photographs of Melitta (Afromelitta) richtersveldensis, new subgenus and species, and M. (Plesiomelitta) avontuurensis, new subgenus and species. 6. Female of M. (A.) richtersveldensis in profile. 7. Detail of female metasomal apex and pygidial plate of M. (A.) richtersveldensis. 8. Male of M. (A.) richtersveldensis in profile. 9. Dorsal view of male metasoma of M. (A.) richtersveldensis, with genitalia extended. 10. Female of M. (P.) avontuurensis in profile. 11. Dorsal view of female metasomal apex of M. (P.) avontuurensis. Reproduced with permission from Dellicour et al. (2014).
Figures 1–5 in Validation of some species- and genus-group names in Melitta (Hymenoptera: Melittidae)
Figures 1–5. Male terminalia of Melitta (Afromelitta) richtersveldensis, new subgenus and species. 1. Ventral view of metasomal sternum VI. 2. Ventral view of sternum VII. 3. Ventral view of sternum VIII. 4. Lateral view of genital capsule. 5. Dorsal view of genital capsule. Reproduced with permission from Dellicour et al. (2014).
FIG. 1 in Revisiting the validation of the name Magnolia champacifolia J. E. Dandy ex F. Gagnepain, sp. nov. (Magnoliaceae)
FIG. 1. — Holotype of Magnolia champacifolia J. E. Dandy ex F. Gagnepain, sp. nov., Poilane 6472 (P00203965).
Linked collectors and determiners for: Validation of the name Euphorbia neorugosa (Euphorbiaceae).
Natural history specimen data linked to collectors and determiners held within, "Validation of the name Euphorbia neorugosa (Euphorbiaceae)". Claims or attributions were made on Bionomia by volunteer Scribes, <a href="https://bionomia.net/dataset/7b43498f-5c98-4b1a-af2a-466562e2f175">https://bionomia.net/dataset/7b43498f-5c98-4b1a-af2a-466562e2f175</a> using specimen data from the dataset aggregated by the Global Biodiversity Information Facility, <a href="https://gbif.org/dataset/7b43498f-5c98-4b1a-af2a-466562e2f175">https://gbif.org/dataset/7b43498f-5c98-4b1a-af2a-466562e2f175</a>. Formatted as a Frictionless Data package.
Fig. 7-9 in The valid name for Megachile leachella CURTIS 1828 (Hymenoptera: Apidae) and some comments
Fig. 7-9: Megachile leachella CURTIS,. Abdomen pilosity laterally: (7) Sweden), (8) France, (9) Italy [Sicily].
Fig. 4-6 in The valid name for Megachile leachella CURTIS 1828 (Hymenoptera: Apidae) and some comments
Fig. 4-6: Megachile leachella CURTIS,. Habitus laterally: (4) Sweden), (5) France, (6) Italy [Sicily].
Fig. 1-3 in The valid name for Megachile leachella CURTIS 1828 (Hymenoptera: Apidae) and some comments
Fig. 1-3: Megachile leachella CURTIS,. Habitus dorsally: (1) Sweden), (2) France, (3) Italy [Sicily].
Fig. 1 in Octopus sinensis d'Orbigny, 1841 (Cephalopoda: Octopodidae): Valid Species Name for the Commercially Valuable East Asian Common Octopus
Fig. 1. Ventral view of a mature male specimen of Octopus sinensis (NSMT Mo 85658), illustrating the paler ventral surface (cf. dorsal surface of the same specimen visible in Figs 2 and 3) and the size and shape of the funnel (F, held in place with a piece of white cord). A sample (S) of muscle tissue was removed prior to fixation, leaving a circular wound just anterior to the funnel. Fig. 2. Dorsal view of the specimen in Fig. 1, showing the difference in lengths of arms 2 and 3 (longer, ending within the region labelled 'Arms 2 and 3' bracketed to the leπ) versus 1 and 4 (clearly shorter, ending within the adjacent bracketed region labelled 'Arms 1 and 4'). The longer arms include arm R3 (the hectocotylus, H), which (typically much shorter than its counterpart, L3) is only just a little longer than arm pairs 1 and 4 (cf. Table 1, and OAI in Table 2). Note also the relative size and shape of the head, body and arms, and the rugose texture caused by the fixed appearance of the patch-and-groove topology of the skin. Fig. 3. View from the right side (body to leπ; arms to right) of the specimen in Figs 1 and 2. The funnel (F) was fixed in an unusual position (here seen pointing ventrally, perpendicular to the main body axis) as a result of damage following removal (before fixation) of a tissue sample (S) for molecular analysis (cf. Fig. 1). The broad extent of the mantle opening can be seen ventrally. Dorsally there is a large, contracted posterodorsal papilla (Ppd) above the right eye, with a smaller one anterodorsally (Pad). The anterodorsal papilla typically is not obvious except in well-fixed specimens. Fig. 4. An example of the appearance of the oral surface of a male Octopus sinensis to show the position of specially enlarged suckers on arms 2 and 3 of each side (most obvious on arms 2, as indicated: suckers #12 and 13 on the leπ, and #13 and 14 on the right). Anterior of animal (Ant.) is to the leπ, so the leπ arms are in the upper half of the figure and the right arms in the lower half. (Neotype specimen NSMT Mo 85659). Fig. 5. End of arm R3 of the specimen in Figs 1–3, showing the robust spermatophore groove (SGr; cf. Fig. 2, H) and small ligula (L). Fig. 6. Diagram of the tip of arm R3 of Octopus sinensis (lot NSMT Mo 85660 specimen IGG 318, ML 168 mm), illustrating the form of the ligula in more detail. Note modest calamus (Cal.) nestled in the hilum at the base of the ligula, and protuberance (Pr.) on the anterior side closely apposed to the region at the end of the spermatophore groove (SGr), covering the base of both ligula and calamus. (Line drawing by Aki Hamamoto). Fig. 7. Diagram of the tip of arm R3 of Octopus vulgaris specimen BMNH 98.5.21.346 (ML 96 mm), showing that the form and size of the ligula are similar to those of the ligula of O. sinensis (as shown in Figs 5 and 6). (Line drawing by Aki Hamamoto)
Validated names for experimental studies on race and ethnicity
<p>A large and fast-growing number of studies across the social sciences use experiments to better understand the role of race in human interactions, particularly in the American context. Researchers often use names to signal the race of individuals portrayed in these experiments. However, those names might also signal other attributes, such as socioeconomic status (e.g., education and income) and citizenship. If they do, researchers need pre-tested names with data on perceptions of these attributes. Such data would permit researchers to draw correct inferences about the causal effect of race in their experiments. In this paper, we provide the largest dataset of validated name perceptions based on three different surveys conducted in the United States. In total, our data include over 44,170 name evaluations from 4,026 respondents for 600 names. In addition to respondent perceptions of race, income, education, and citizenship from names, our data also include respondent characteristics. Our data will be broadly helpful for researchers conducting experiments on the manifold ways in which race shapes American life.</p> <p>License: CC-By Attribution 4.0 International</p> <p> </p>
FIGURE 3 in Systematics of the Podarcis hispanicus - complex (Sauria, Lacertidae) II: the valid name of the north-eastern Spanish form
FIGURE 3. First and second components of the discriminant analyses performed with 16 morphological variables on specimens of the Podacis hispanicus complex. Specimens from liolepis syntypes from the town of Valencia (filled squares) were treated as non-active individuals. We did not include more than three reference lineages in a single analysis to maximise the plot scattering. A. TYP3 (triangles), TYP2 (crosses) and P. hispanicus (circles) were active reference specimens. B. TYP3 (triangles), TYP1 (crosses) and P. v a u c h e r i (circles) were active reference specimens. C. northern TYP3 (triangles), southern TYP3 (crosses) and P. va uch eri (circles) were active reference specimens.
FIGURE 2 in Systematics of the Podarcis hispanicus - complex (Sauria, Lacertidae) II: the valid name of the north-eastern Spanish form
FIGURE 2. Latero-dorsal views of Podarcis liolepis (Boulenger, 1905). A. Specimen BMNH 86.12.29.3, lectotype of Lacerta muralis var. liolepis Boulenger, 1905, Valencia, Spain. Photo C. McCarthy. B. Specimen BEV 9853 with "Valencia" mitochondrial lineage (mtDNA), male, collected in Rafelbuñol, north of Valencia, Spain. Photo PGe. C. Specimen BEV 9815 with "Type 3" mtDNA, male, collected 3 km NW of Miami-Platja along the national road 340, province Tarragone, Spain. Photo PAC. Note the great morphological resemblance of both Podarcis liolepis (BEV 9853 and BEV 9815) showing however a deep mitochondrial divergence
FIGURE 1 in Systematics of the Podarcis hispanicus - complex (Sauria, Lacertidae) II: the valid name of the north-eastern Spanish form
FIGURE 1. Distribution of evolutionary units (modified from Renoult et al. 2009) and mitochondrial lineages (modified from Pinho et al. 2006; Renoult et al. 2009 and unpublished data) of the Podarcis hispanicus species complex in southeastern Spain (inside the box). Four evolutionary units defined by morphology and nuclear data occur in the region (delimited by dashed lines), each one with its own mitochondrial lineage (mtDNA): TYP3 with the "Type 3" mtDNA to the north, TYP2 with the "Type 2" mtDNA to the centre, and P. hispanicus sensu stricto (sensu Geniez et al. 2007) with the "P. hispanicus Galera mtDNA" (sensu Pinho et al. 2006) to the south, and an introduced population of P. vaucheri with "Vaucheri" mtDNA (Renoult et al. 2010) inside the distribution of P. hispanicus sensu stricto (horizontal hatching). A fifth mitochondrial lineage ("P. hispanica sensu stricto" in Pinho et al. 2006 and "Valencia" in Renoult et al. 2009; vertical hatching) has introgressed both P. hispanicus sensu stricto and TYP3.
FIGURES 9–13 in Pterostichus (Anilloferonia) diana LaBonte (Coleoptera: Carabidae: Pterostichini), a replacement name for P. (A.) lanei (Hatch, 1935), and validity and redescription of P. (A.) malkini (Hatch, 1953)
FIGURES 9–13. Last abdominal ventrite of species of Pterostichus (Anilloferonia). Figure 9, lateral view, male P. malkini. Figure 10, ventral view, male P. malkini. Figure 11, female P. malkini. Figure 12, male P. d i a n a. Figure 13, male P. testacea.
FIGURES 20–22 in Pterostichus (Anilloferonia) diana LaBonte (Coleoptera: Carabidae: Pterostichini), a replacement name for P. (A.) lanei (Hatch, 1935), and validity and redescription of P. (A.) malkini (Hatch, 1953)
FIGURES 20–22. Dorsal views of median lobe of aedeagus of species of Pterostichus (Anilloferonia). Figure 20, P. malkini. Figure 21, P. d i a n a. Figure 22, P. testacea.
FIGURES 5–8 in Pterostichus (Anilloferonia) diana LaBonte (Coleoptera: Carabidae: Pterostichini), a replacement name for P. (A.) lanei (Hatch, 1935), and validity and redescription of P. (A.) malkini (Hatch, 1953)
FIGURES 5–8. Metafemora of species of Pterostichus (Anilloferonia). Figure 5, male P. malkini. Figure 6, female P. malkini. Figure 7, male P. d i a n a. Figure 8, male P. testacea.
FIGURES 17–19 in Pterostichus (Anilloferonia) diana LaBonte (Coleoptera: Carabidae: Pterostichini), a replacement name for P. (A.) lanei (Hatch, 1935), and validity and redescription of P. (A.) malkini (Hatch, 1953)
FIGURES 17–19. Right lateral views of median lobe of aedeagus of species of Pterostichus (Anilloferonia). Figure 17, P. malkini. Figure 18, P. d i a n a. Figure 19, P. t e s t a c e a.
FIGURES 2–4 in Pterostichus (Anilloferonia) diana LaBonte (Coleoptera: Carabidae: Pterostichini), a replacement name for P. (A.) lanei (Hatch, 1935), and validity and redescription of P. (A.) malkini (Hatch, 1953)
FIGURES 2–4. Supraorbital setae of species of Pterostichus (Anilloferonia). Figure 2, P. malkini. Figure 3, P. d i a n a. Figure 4, P. t e s t a c e a.
FIGURES 23-25 in Pterostichus (Anilloferonia) diana LaBonte (Coleoptera: Carabidae: Pterostichini), a replacement name for P. (A.) lanei (Hatch, 1935), and validity and redescription of P. (A.) malkini (Hatch, 1953)
FIGURES 23-25. Dorsal views of apex of median lobe of aedeagus of species of Pterostichus (Anilloferonia). Figure 23, P. malkini. Figure 24, P. d i a n a. Figure 25, P. t e s t a c e a.
FIGURES 14–16 in Pterostichus (Anilloferonia) diana LaBonte (Coleoptera: Carabidae: Pterostichini), a replacement name for P. (A.) lanei (Hatch, 1935), and validity and redescription of P. (A.) malkini (Hatch, 1953)
FIGURES 14–16. Left lateral views of median lobe of aedeagus of species of Pterostichus (Anilloferonia). Figure 14, P. malkini. Figure 15, P. d i a n a. Figure 16, P. t e s t a c e a.
FIGURES 5–6 in On the validity of some species names of South American longhorn beetles (Coleoptera, Cerambycidae)
FIGURES 5–6. Caciomorpha genalis (Aurivillius, 1908) (Lamiinae, Anisocerini): 5) Ordinary specimen of C. genalis. 6) Holotype of Tetrasarus lineatus Bréthes, 1920, junior synonym of C. genalis.
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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.