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1,202 results for “interests”
FIGURES 10–15 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 10–15. Plusiocampa (Plusiocampa) tinoamorei sp. nov. 10) Metathoracic leg, holotype. 11) End of the tarsus and pretarsus, paratype. 12) Detail end of tibia with one calcar indicated with a red arrow, paratype. 13) Claw and lateral processes, lateral side, paratype. 14) Pretarsus, dorsal view, paratype. 15) Detail posterior claw, lateral side, paratype.
FIGURES 43–48 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 43–48. Campodea (Campodea) majorica sicula Condé, 1957. Specimens from Abisso della Pietra Selvaggia. 43. First urosternite of female, left side. 44. Distal portion of the left appendage from the first urosternite of female. 45. Reticulated surface of first urosternite. 46. Latero-ventral view of the seventh abdominal segment; lateral anterior (la) and lateral posterior (lp) urotergal macrosetae. 47. Lateral anterior macroseta on sixth urotergite. 48. Lateral posterior (lp) macroseta on the sixth urotergite.
FIGURES 37–42 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 37–42. Campodea (Campodea) majorica sicula Condé, 1957. Specimens from Abisso della Pietra Selvaggia. 37. Metathoracic leg; scale bar = 0.5 mm. 38. Pretarsus and apical portion of tarsus. 39. Medial portion of tarsus. 40. Tibio-tarsal joint with calcar, indicated by red arrow. 41. Tibial macroseta. 42. Femur surface.
FIGURES 7–9 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 7–9. Plusiocampa (Plusiocampa) tinoamorei sp. nov. 7) Epicuticle surface on mesonotum, paratype. 8) Epicuticle surfaces on metanotum including the mp macrosetae, paratype. 9) Pro-, meso- and metanotum, right side, holotype.
FIGURES 5–6 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 5–6. Plusiocampa (Plusiocampa) tinoamorei sp. nov., paratype. 5) Frontal process. 6) Closeup of frontal process.
FIGURES 1–4 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 1–4. Plusiocampa (Plusiocampa) tinoamorei sp. nov., paratype. 1) Distal antennomeres. 2) Olfactory chemoreceptors within the cupuliform organ. 3) Gouge sensilla from the distal whorl of a medial antennomere. 4) Closeup of portion of gouge sensillum.
FIGURES 19–23 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 19–23. Plusiocampa (Plusiocampa) tinoamorei sp. nov. male paratype. 19. Posterior end of abdomen, ventral view, including proximal parts of cerci. 20. Fourth primary cercal article. 21. Apical cercal article. 22. Distal portion of the fourth primary article. 23. Stylus of the sixth urosternite.
FIGURES 17–18 in Subterranean Campodeidae fauna from Sicily (Diplura): its biogeographical interest with the description of a new species of Plusiocampa
FIGURES 17–18. Plusiocampa (Plusiocampa) tinoamorei sp. nov., ♂ paratype. 17. First urosternite of male. 18. Closeup of male first urosternite with g1-glandular.
Automated Evolution of Feature Logging Statement Levels Using Git Histories and Degree of Interest
<p>Logging—used for system events and security breaches to more informational yet essential aspects of software features—is pervasive. Given the high transactionality of today's software, logging effectiveness can be reduced by information overload. Log levels help alleviate this problem by correlating a priority to logs that can be later filtered. As software evolves, however, levels of logs documenting surrounding feature implementations may also require modification as features once deemed important may have decreased in urgency and vice-versa. We present an automated approach that assists developers in evolving levels of such (feature) logs. The approach, based on mining Git histories and manipulating a degree of interest (DOI) model, transforms source code to revitalize feature log levels based on the "interestingness" of the surrounding code. Built upon JGit and Mylyn, the approach is implemented as an Eclipse IDE plug-in and evaluated on 18 Java projects with ~3 million lines of code and ~4K log statements. Our tool successfully analyzes 99.26% of logging statements, increases log level distributions by ~20%, identifies logs manually modified with a recall of ~80% and a level-direction match rate of ~87%, and increases the focus of logs in bug fix contexts ~83% of the time. Moreover, pull (patch) requests were integrated into large and popular open-source projects. The results indicate that the approach is promising in assisting developers in evolving feature log levels.</p>
Do Ethnicity and Sex of Employers Affect Applicants' Job Interest? An Experimental Exploration
<p>Data and do-file supporting the results presented in the manuscript "Do Ethnicity and Sex of Employers Affect Applicants’ Job Interest? An Experimental Exploration."</p>
Data from: Disparate patterns of movements and visits to points of interest located in urban hotspots across U.S. metropolitan cities during COVID-19
<p>We examined the effect of social distancing on changes in visits to urban hotspot points of interest. In a pandemic situation, urban hotspots could be potential superspreader areas as visits to urban hotspots can increase the risk of contact and transmission of a disease among a population. We mapped origin-destination networks from census block groups to points of interest (POIs), such as restaurants, museums, and schools, in sixteen cities in the United States. We adopted a coarse-grain approach to examine patterns of visits to POIs among hotspots and non-hotspots from January to May 2020. Also, we conducted chi-square tests to identify POIs with significant flux-in changes during the analysis period. The results showed disparate patterns across cities in terms of reduction in hotspot POI visits. Sixteen cities are divided into two categories. In one category, which includes the cities of, San Francisco, Seattle, and Chicago, we observe a considerable decrease in hotspot POI visits, while in another category, including the cites of, Austin, Houston, and San Diego, the visits to hotspots did not greatly decrease. While all the cities exhibited overall decreasing visits to POIs, one category maintained the proportion of visits to hotspot POIs. The proportion of visits to some POIs (e.g., Restaurants) remained stable during the social distancing period, while some POIs had an increased proportion of visits (e.g., Grocery Stores). We also identified POIs with significant flux-in changes, showing that related businesses were greatly affected by social distancing.</p>
Data for National interest may require distributing COVID-19 vaccines to other countries
<p>Countries Groups contains information on which countries are considered as part of COVAX. </p> <p>Population contains information on population. </p>
FIGURE 11 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 11. Prokoenenia sarcodactylica sp. n. Leg I. A, left trochanter; B, left femur; C, left patella; D, left tibia; E, left basitarsus 1–2; F, right basitarsus 3—tarsus 2; G, left tarsus 3. Scale bars: 50 μm.
FIGURE 10 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 10. Prokoenenia sarcodactylica sp. n. A, coxa of right leg II; B, coxa of right leg III; C, coxa of right leg IV; D, trochanter of left palp; E, femur of left palp; F, tibia of left palp; G, basitarsus 1–2 of left palp; H, tarsus 1–3 of left palp. Arrows indicate thick setae. Scale bars: 50 μm.
FIGURE 6 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 6. Koeneniodes tibetanus sp. n. A, tarsus 3, right leg I; B, basitarsus of leg IV. Scale bars: 20 μm.
FIGURE 5 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 5. Koeneniodes tibetanus sp. n., leg I, right side. A, trochanter; B, femur and patella; C, tibia–basitarsus 2; D, basitarsus 3–tarsus 2. Scale bars: 20 μm.
FIGURE 8 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 8. Prokoenenia sarcodactylica sp. n. A, hand of chelicera; B, immature B, genitalia; C, immature B, detail genital lobes; D, tergites VII–XI; E, sternites VII–XI; F, coxae III and IV. Arrows show thick setae. Scale bars 50 μm.
FIGURE 7 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 7. Prokoenenia sarcodactylica sp. n. A, lateral and frontal organ; B, lateral organ, detail; C, deuto–tritosternal setae; D, distal setae (d1–d3) on basal segment of chelicera; E, proximal setae (p1–p6) on basal segment of chelicera; F, coxae II–IV, left side, arrows indicate thick setae; G, sternites IV–VI; H, sternite IV, sac and setae; I, sternite V, sac and setae; J, sternite VI, sac and setae. Scale bars: 20 μm (A–C), 50 μm (D–J).
FIGURE 3 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 3. Koeneniodes tibetanus sp. n. A, frontal organ; B, lateral organ; C, distal setae (d1–d3) on basal segment of chelicera; D, proximal setae (p1–p6) on basal segment of chelicera; E, coxa of left pedipalp; F, coxa of right leg I; G, coxa of left leg II; H, coxa of left leg III; I, coxa of right leg IV. Arrows indicate thick setae. Scale bars: 20 μm.
FIGURE 4 in New and interesting palpigrades (Arachnida, Palpigradi) of the genera Koeneniodes Silvestri, 1913 and Prokoenenia Börner, 1901 from Asia
FIGURE 4. Koeneniodes tibetanus sp. n. A, trochanter, left palp; B, femur, right palp; C, tibia, right palp; D, basitarsus 1–2, right palp; E, tarsus 1–3, right palp; F, patella and tibia, right leg II; G, tibia, right leg IV; H, basitarsus and tarsus, right leg II. Arrows indicate thick seate. Scale bars: 20 μm.
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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.