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Figs 19–26. 19 in Calidolipeurus, new genus for Lipeurus megalops Piaget, 1880 (Phthiraptera: Ischnocera: Oxylipeurus-complex), with a redescription of the type species and a preliminary key to the Oxylipeurus-complex
Figs 19–26. 19. Outline of head and temporal macrosetae (cut off distally) of male Chelopistes meleagridis (Linnaeus, 1758), redrawn from Kéler (1939). 20. Outline of head and temporal macrosetae (cut off distally) of female Trichodomedea setosus Carriker, 1946, redrawn from original description. 21. Outline of head and dorsal preantennal suture of male Reticulipeurus mesopelios (Nitzsch, 1866), redrawn from Gustafsson et al. (2020). 22. Outline of head and dorsal preantennal suture of male Cataphractomimus junae Gustafsson et al., 2020, redrawn from original description. 23. Female terminalia of Reticulipeurus mesopelios (Nitzsch, 1866), redrawn from Gustafsson et al. (2020); vulval margin, lateral macrosetae, and subvulval plates not illustrated. 24. Ventral view of preantennal area in Gallancyra dentata (Sugimoto, 1934) (redrawn from Gustafsson & Zou 2020a). 25. Outline of stylus in Gallancyra dentata (Sugimoto, 1934) (redrawn from Gustafsson & Zou 2020a). 26. Outline of preantennal area and dorsal preantennal suture of Splendoroffula ampullaceal Kéler, 1955, redrawn from Kéler (1958). Antennae not included in any illustration. Abbreviations used: C = conus; CLS = clypeo-labral suture; DPS = dorsal preantennal suture; E = eye; ES = epistomal suture; HM = hyaline margin; mts3 = marginal temporal seta 3; os = ocular seta. Illustrations are not to scale.
Figs 1–2 in Calidolipeurus, new genus for Lipeurus megalops Piaget, 1880 (Phthiraptera: Ischnocera: Oxylipeurus-complex), with a redescription of the type species and a preliminary key to the Oxylipeurus-complex
Figs 1–2. Calidolipeurus megalops (Piaget, 1880) gen. et comb. nov., based on specimens on slide NHMUK010682491 (NHMUK). 1. Habitus, ♂, dorsal and ventral views. 2. Habitus, ♀, dorsal and ventral views.
Figs 13–18 in Calidolipeurus, new genus for Lipeurus megalops Piaget, 1880 (Phthiraptera: Ischnocera: Oxylipeurus-complex), with a redescription of the type species and a preliminary key to the Oxylipeurus-complex
Figs 13–18. Calidolipeurus megalops (Piaget, 1880) gen. et comb. nov., based on specimens on slide NHMUK010682494 (NHMUK). 13. Male leg I, dorsal view. 14. Male leg I, ventral view. 15. Male leg II, dorsal view. 16. Male leg II, ventral view. 17. Male leg III, dorsal view. 18. Male leg, III, ventral view.
Paternal effects in a wild-type zebrafish implicate a role of sperm-derived small RNAs
<p>While the importance of maternal effects has long been appreciated, a growing body of evidence now points to the paternal environment having an important influence on offspring phenotype. Indeed, research on rodent models suggests that paternal stress leaves an imprint on the behaviour and physiology of offspring via non-genetic information carried in the spermatozoa, however fish have been understudied with regard to these sperm-mediated effects. Here we investigated whether the zebrafish was subject to heritable influences of paternal stress by exposing males to stressors (conspecific-derived alarm cue, chasing, and bright light) before mating and assessing the behavioural and endocrine responses of their offspring, including their behavioural response to conspecific-derived alarm cue. We found that after males are exposed to stress, their larval offspring show weakened responses to stressors. Small RNA sequencing subsequently revealed that the levels of several small noncoding RNAs, including microRNAs, PIWI-interacting RNAs, and tRNA-derived small RNAs, were altered in the spermatozoa of stressed fathers, suggesting that stress-induced alterations to the spermatozoal RNA landscape may contribute to shaping offspring phenotype. The work demonstrates that paternal stress should not be overlooked as a source of phenotypic variation and that spermatozoal small RNAs may be important intergenerational messengers in fish.</p>
Fig. 8 in Type specimens of Andrena wollastoni C , 1922 (Hymenoptera, Anthophila): deposition, evaluation and designation of a lectotype
Fig. 8: Paratype of Andrena dourada KRATOCHWIL & SCHEUCHL, 2003, formerly type of A. wollastoni COCKERELL, 1922, collected by W. Porter Cockerell; (a) habitus lateral; (b) head frontal; (c) metasoma dorsal; (d) head dorsal; (e) paratype label (USNM) with type number; (f) barcode label; (g) locality label written by Cockerell (pencil); (h) label written by Wilmatte Porter Cockerell (pencil); (i) cotype label written by Cockerell (ink); photos by K. Darrow (USNM).
Figs 1-10 in On the Aleochara subgenera Ceranota and Xenochara. IV. A revision of types, a new species, and additional records (Coleoptera: Staphylinidae: Aleocharinae)
Figs 1-10: Aleochara plicelytrata: (1) forebody; (2) median portion of head; (3) antenna; (4) medi- an portion of pronotum; (5) postero-median portion of elytra; (6) abdomen; (7) median lobe of aedeagus in lateral view; (8-9) apical portion of median lobe of aedeagus in ventral view; (10) spermatheca. Scale bars: 1, 6: 1.0 mm; 3: 0.5 mm; 2, 4-5, 7-10: 0.2 mm.
Monocyte class switch and hyperinflammation characterise severe COVID-19 in type 2 diabetes
<p>raw and source data for manuscript EMM-2020-13038 under revision and preprint doi: https://doi.org/10.1101/2020.06.02.20119909</p>
Figure 3 in Investigating the influence of habitat type and weather conditions on the population dynamics of land snails Vertigo angustior Jeffreys, 1830 and Vertigo moulinsiana (Dupuy, 1849). A case study from western Poland
Figure 3. Diagram of one-way analysis of covariance test comparing a logarithmized number of individuals of Vertigo angustior (F = 92.16; p <0.01) and Vertigo moulinsiana (F = 8.165; p <0.01) in the Ilanka and Pliszka sites in 2009. Middle line: mean; box range: standard error; whiskers: standard deviation.
Figure 2 in Investigating the influence of habitat type and weather conditions on the population dynamics of land snails Vertigo angustior Jeffreys, 1830 and Vertigo moulinsiana (Dupuy, 1849). A case study from western Poland
Figure 2. Precipitation in the studied sites in consecutive months of 2009; dashed bars – sampling months. (B) and (C) Abundance of individuals: juveniles (white bars) and adults (black bars) of Vertigo angustior (B) and Vertigo moulinsiana (C) in each sampling event in the Ilanka and Pliszka sites in 2009.
Figure 5 in The type specimens and type localities of the orangutans, genus Pongo Lacépède, 1799 (Primates: Hominidae)
Figure 5. The nomenclature and geographic distribution of the subspecies of Pongo pygmaeus, (A) following Groves (2001), and (B) as revised in this paper
Figs 11-19 in On the Aleochara subgenera Ceranota and Xenochara. IV. A revision of types, a new species, and additional records (Coleoptera: Staphylinidae: Aleocharinae)
Figs 11-19: Aleochara citellorum (15-16: lectotype; 14, 18: paralectotype): (11) forebody; (12) antenna; (13) abdomen; (14) tergite VIII; (15) male sternite VIII; (16-17) median lobe of aedeagus in lateral view; (18) female sternite VIII; (19) spermatheca. Scale bars: 13: 1.0 mm; 11-12: 0.5 mm; 14-18: 0.2 mm; 19: 0.1 mm.
Figure 2 in Two new species of Bonnetina tarantulas (Theraphosidae: Theraphosinae) from Mexico: contributions to morphological nomenclature and molecular characterization of types
Figure 2. Bonnetina tenuiverpis sp. n. Male holotype. (A) Carapace; (B) posterior margin of carapace, showing thick erect setae; (C) ocular area, lateral view; (D) ocular area, dorsal view; (E) sternum; (F) labium and maxillae; (G) left pedipalp, dorsal view, showing retrolateral tibia nodule. Scale lines: 1 mm.
Figure 3 in Two new species of Bonnetina tarantulas (Theraphosidae: Theraphosinae) from Mexico: contributions to morphological nomenclature and molecular characterization of types
Figure 3. Bonnetina tenuiverpis sp. n. Male holotype, left pedipalpal bulb, stereomicroscope images. (A) Prolateral view; (B) retrolateral view; (C) dorsal view; (D) ventral view. Scale line: 1 mm.
Figs 7-8 in Ibizella asilahica nov.sp. (Astigmata, Canestriniidae) from Morocco with type species designation for the genus Ibizella H & Š , 2018
Figs 7-8. Ibizella asilahica nov.sp. protonymph (7) idiosoma, dorsal view; (8) idiosoma, ventral view.
Figure 1 in Bombus rubriventris: type locality, different histories of bumblebees in the New World, and a likely invertebrate extinction
Figure 1. Dorsal aspect of the holotype female of Bombus rubriventris showing the 'St. Domingue.' label (photo: NHM photo unit). Scale divisions in mm.
Accounting for New Types of Resource Consumption in a Federated Cloud
<p>As infrastructures and cloud services evolve, resource consumption is more flexible and users are often allowed to reserve resources without actual consumption. Relevant standardization bodies have developed new types of accounting record specifications, and new or updated tools are required to keep track of resource usage. The reaction to this is the development of a new accounting tool – GOAT.</p> <p>GOAT – GO Accounting Tool – is a service running in the background and waiting for a connection from a compatible client. The client connects to a cloud management framework, extracts computing data about projects, servers, networks, and storages, filters them accordingly, and sends them to a server for further processing. Multiple clients can use the server at once. When the server receives accounting data, it is transformed into the configured format and writes them to the destination file. The consumer collects data into a central accounting database where it is processed to generate statistical summaries.<br> For now, the GOAT project supports two cloud computing platforms on the client side – OpenNebula and Openstack. Thanks to its use of standard accounting record formats it can work with different consumers. The ones used in the real world are APEL and Prometheus.</p> <p>This Demonstration shows how the GOAT client extracts accounting data from a cloud management platform, sends them to the GOAT server where they are transformed, and how Prometheus and Grafana process them and present various views of resource usage.</p>
Figure 1 in Notes on types of Australian Chartocerus Motschulsky (Hymenoptera: Signiphoridae)
Figure 1. Chartocerus australiensis (Ashmead), holotype ♀, USNM Type 4771. (a) head; (b) antenna, mesobasitarsus and mesotibial spur; (c) fore wing; (d) fore wing venation; (e) mesosoma; (f) metasoma.
Figure 11 in Notes on types of Australian Chartocerus Motschulsky (Hymenoptera: Signiphoridae)
Figure 11. Chartocerus thusanoides (Girault), holotype ♀, Queensland Museum Type Hy 4415. (a) body; (b) fragments of head; (c) wings and legs; (d) wings and legs; (e) mesosoma and base of metasoma; (f) metasoma.
Figure 9 in Notes on types of Australian Chartocerus Motschulsky (Hymenoptera: Signiphoridae)
Figure 9. Chartocerus reticulatus (Girault), holotype ♀, Queensland Museum Type Hy 1281. (a) habitus; (b) mesosoma; (c) fore wing, mid and hind legs; (d) metasoma.
Figure 7 in Notes on types of Australian Chartocerus Motschulsky (Hymenoptera: Signiphoridae)
Figure 7. Chartocerus funeralis (Girault), holotype ♀, Queensland Museum Type Hy 771. (a) habitus; (b) head and antennae; (c) fore and hind wings; (d) antenna; (e) head and mesosoma; (f) metasoma.
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.