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Figures 9–16. Pompilid wasps and host spiders. 9 in Additional new and unusual host records for Western Hemisphere spider wasps (Hymenoptera: Pompilidae)
Figures 9–16. Pompilid wasps and host spiders. 9) Pepsis martini Vardy, female, with immobilized Diplura nigra (F. O. Pickard- Cambridge) (Dipluridae), adult or subadult female, Cristalino Lodge, Alto Floresta, Mato Grosso State, Brazil. Photograph © Sidnei Dantas. 10) Pepsis plutus Erichson, female, with immobilized Phoneutria fera Perty (Ctenidae), adult or subadult female, Saül, French Guiana. Photograph © Wouter Knaepen. 11) Priocnessus hurdi Dreisbach, female, with immobilized Euagrus?mexicanus (Ausserer) (Euagridae), adult or subadult female, Jantetelco, Morelas State, Mexico. Photograph © Paula Montserrat Crespo Barrera. 12) Priocnemella hexagona (Fox), female, with immobilized Phoneutria?fera Perty (Ctenidae), juvenile, National Forest of Jamari, Rondônia State, Brazil. Photograph © Pedro Paulo Machado Nascimento. 13) Sphictostethus striatulus Roig-Alsina, female, with immobilized?Grammostola sp. (Theraphosidae), juvenile, Altos de Cantillana Reserve, 12 km W Paine, Santiago Metropolitan Region, Chile. Photograph © Bernardo Segura. 14) Herbstellus pachylopus (Kohl), female, with immobilized Lycinus sp. (Nemesiidae), adult or subadult female, La Serena, Elqui Province, Coquimbo Region, Chile. Photograph © Simon Torres. 15) Caliadurgus maculatellus (Taschenberg), female, with immobilized Larinia sp. (Araneidae), adult or subadult female, Punilla, Córdoba Province, Argentina. Photograph © Andrea A. Coccuci. 16) Entypus magnus (Cresson), female, with immobilized Tigrosa georgicola (Walckenaer) (Lycosidae), adult or subadult female, Princeton, Collin County, Texas, USA. Photograph © Manda Bell.
Plant–insect interactions from the mid-Cretaceous at Puy-Puy (Aquitaine Basin, western France) indicates preferential herbivory for angiosperms amid a forest of ferns, gymnosperms, and angiosperms
<p>The nine in-text figures and table below (Appendices S1–S10), and the additional text and excel files attached, provide the raw data, summaries of the raw data, rarefaction analyses, and nonmetric multidimensional scale analyses (NMDS) that support the discussions of the main text. The raw data and their summaries of provide for each plant species or morphotype values important for assessment of their herbivory: percentage of specimens herbivorized, damage type (DT) richness, DT frequency, DT host-plant specificity, herbivorized surface area as a proportion of total surface area, and feeding event occurrences. The rarefaction analyses furnished evaluations of whether the number of samples was sufficient, given the surface area covered by those samples. For comparison, the number of samples was rarified to the number of DTs in those samples. Lastly, two NMDS analyses produced the relationships between the plant orders present in the plant assemblage and their interactive functional feeding groups (FFGs). A separate NMDS analysis shows the association between the three most herbivorized species and their FFGs.</p>
Figures 2-3 in Millipeds from the eastern Dakotas and western Minnesota, USA, with an account of Pseudopolydesmus serratus (Say, 1821) (Polydesmida: Polydesmidae); first published records from six states and the District of Columbia
Figures 2-3. Acropodite of left gonopod of Pseudopolydesmus serratus male from Fargo, Cass Co., North Dakota. 2) Mesal view. 3) Ectal view. en, endomerite; e2, e4, m1, m2, ectal and mesal processes as defined by Hoffman (1974). Scale line = 0.50 mm.
Figure 4 in Millipeds from the eastern Dakotas and western Minnesota, USA, with an account of Pseudopolydesmus serratus (Say, 1821) (Polydesmida: Polydesmidae); first published records from six states and the District of Columbia
Figure 4. Distribution of Pseudopolydesmus serratus showing peripheral localities. Upper star, type locality of Polydesmus canadensis Newport, 1844, type-species of Pseudopolydesmus; Lower Star, denoted by the arrow, approximate type locality of Polydesmus serratus Say, 1821, on the Eastern Shore of Virginia.
Fig. 4 in Review of the genus Caucaseuma Strasser, 1970, with the description of a new cavernicolous species from the Western Caucasus and an updated key and distribution (Diplopoda, Chordeumatida, Anthroleucosomatidae)
Fig. 4. Caucaseuma strasseri Antić sp. nov., paratype, ♂ (IZB). Legs in anterior view. A. Leg-pair 1. B. Leg-pair 2. C. Leg-pair 3. D. Leg-pair 4. E. Leg-pair 5. F. Leg-pair 6. G. Leg-pair 7. H. Leg-pair 10. I. Leg-pair 11. Scale bars = 0.5 mm.
Fig. 3 in Review of the genus Caucaseuma Strasser, 1970, with the description of a new cavernicolous species from the Western Caucasus and an updated key and distribution (Diplopoda, Chordeumatida, Anthroleucosomatidae)
Fig. 3. Caucaseuma strasseri Antić sp. nov., paratype, ♂ (NHMW MY10260). SEM images of some habitual structures. A. Anterior part of the body, anterolateral view. B. Head, anterior view. C. Head, right side, lateral view. D. Left antennomeres 6 and 7, detail. E. Tip of right antenna. F. Right legs 1 and 2, anteroventral view. G. Ring 15, dorsal view. H. Posterior macrochaeta. Scale bars: A–B, G = 0.2 mm; C, E–F = 0.1 mm; D = 0.02 mm; H = 0.05 mm.
Fig. 7 in Review of the genus Caucaseuma Strasser, 1970, with the description of a new cavernicolous species from the Western Caucasus and an updated key and distribution (Diplopoda, Chordeumatida, Anthroleucosomatidae)
Fig. 7. Anterior gonopods in the genus Caucaseuma Strasser, 1970, anterior views. A. C. elephantum Antić & Makarov, 2016. B. C. fanagoriyskaya Antić & Makarov, 2016. C. C. minellii Antić & Makarov, 2016. D. C. glabroscutum Antić & Makarov, 2016. E. C. kelasuri Antić & Makarov, 2016. F. C. lohmanderi Strasser, 1970. G. C. variabile Antić & Makarov, 2016. H. C. strasseri Antić sp. nov., paratype, ♂ (IZB). A–E, G after Antić & Makarov (2016), F after Strasser (1970). Scale bar = 0.3 mm for all, except for F (not to scale).
Fig. 6 in Review of the genus Caucaseuma Strasser, 1970, with the description of a new cavernicolous species from the Western Caucasus and an updated key and distribution (Diplopoda, Chordeumatida, Anthroleucosomatidae)
Fig. 6. Caucaseuma strasseri Antić sp. nov., paratype, ♂ (NHMW MY10260). SEM images of gonopods. A–F. Anterior gonopods, anterior, posterolateral, anterodistolateral, posterior, lateral and distal views, respectively. G–I. Posterior gonopods, anterior, lateral and posterior views, respectively. Abbreviations: A = angiocoxite; aA = anterior part of angiocoxite; bp = bone-like process of angiocoxite; Cv = coxal vesicle; Cx = coxite; pA = posterior part of angiocoxite; pp = posterior projection of angiocoxite; S = gonopodal sternum; Sp = sternal process; T = telopodite; tp = triangular process of angiocoxite. Scale bars = 0.1 mm.
Fig. 5 in Review of the genus Caucaseuma Strasser, 1970, with the description of a new cavernicolous species from the Western Caucasus and an updated key and distribution (Diplopoda, Chordeumatida, Anthroleucosomatidae)
Fig. 5. Caucaseuma strasseri Antić sp. nov., paratype, ♂ (IZB). Gonopods. A–C. Anterior gonopods, anterior, posterior and lateral views, respectively. D. Posterior gonopods, posterior view. Abbreviations: A = angiocoxite; aA = anterior part of angiocoxite; bp = bone-like process of angiocoxite; Cv = coxal vesicle; Cx = coxite; pA = posterior part of angiocoxite; pp = posterior projection of angiocoxite; S = gonopodal sternum; Sp = sternal process; T = telopodite; tp = triangular process of angiocoxite. Scale bar = 0.3 mm.
Fig. 12. Skylonia sandbergi Sandberg, 1962 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 12. Skylonia sandbergi Sandberg, 1962 (GIS/B 0549). A. General view of the colony showing autozooids and well-developed knobs bordering the aperture. B. Close-up of the colony showing autozooids and well-developed knobs (arrows).
Fig. 11 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 11. Labioporella hariparensis Guha & Gopikrishna, 2007 (GIS/B 0533). A. General view of the colony showing autozooids. B. Enlargement of an autozooid showing cryptocyst and polypide tube. C. Close-up of the colony showing autozooid with proximal tubercles. D. Enlargement of the colony showing ancestrula and interzooecial avicularia.
Fig. 10 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 10.?Tretosina gen. et sp. indet. (GIS/B 0522). A. General view of the colony showing hexagonal autozooid arranged in longitudinal rows. B. Close-up of a single autozooid showing oval opesia and tuberculated cryptocysts.
Fig. 8 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 8. Cellaria sp. (GIS/B 0515). A. General view of the colony showing hexagonal autozooids. B. Close-up of a single autozooid showing semicircular orifice with a pair of strong denticles, depressed proximal cryptocyst and distally placed ooecial cavity.
Fig. 9 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 9. Micropora vredenburgi Guha & Gopikrishna, 2005 (GIS/B 0516). A. General view of the colony showing subhexagonal autozooid. B. Close-up of an autozooids showing orifices opesia, opesiules, thick mural rims and ooecia.
Fig. 7 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 7. Crepis gurjarensis Guha & Gopikrishna, 2005 (GIS/B 0504). A. General view of the colony encrusting an echinoid test showing uniserial chains with branching on both sides. B. Close-up of an autozooid showing oval opesia, cryptocyst and well-developed gymnocyst.
Fig. 6 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 6. Cupuladria sp. (GIS/B 0471). A. General view of the colony showing autozooids and vibracula on the distal periphery. B. Basal view of the colony showing more or less irregular inconspicuous tangential grooves with basal kenozooidal pores in the form tubercles. C. Close-up of the colony showing autozooids and vibracula.
Fig. 4 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 4. Antropora ramaniaensis sp. nov., holotype (GIS/B 0440). A. General view of the colony showing rhomboidal to oval autozooids. B. Enlargement of the colony showing autozooids with extensive cryptocyst and interzooecial avicularia. C. Close-up of autozooids with cap like, endozooecial ovicells (arrow) and interzooecial avicularia. D. Close-up of autozooids with the endozooecial ovicells.
Fig. 3 in Newly discovered species of cheilostomatid Bryozoa from the Miocene of western Kachchh, Gujarat, India
Fig. 3.?Licornia sp. 1 (GIS/B 0539). A. Frontal view of the colony autozooids, ooecium and avicularia. B. Enlargement of the colony showing autozooids and ooecium. C. Close-up of a single autozooid with ooecium having the ectooecium perforated by unequal sized pores.
Saxton & Rine 2022 Raw data for western blots
<p>Western blots in Saxton & Rine "Distinct silencer states generate epigenetic states of heterochromatin", corresponding to data in Figure S3B and Figure 2D</p>
Data for: Holocene history of the landscape at the biogeographical and cultural crossroads between Central and Eastern Europe (Western Podillia, Ukraine)
<p><strong>Here, we publish the working data sheets for individual proxies (pollen, plant macrofossils, mollusc and geochemical composition), which was used for paleoecological diagrams in the paper Hájková et al. in Quaternary Science Reviews. </strong></p>
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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.