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FIGURE 5 in Infestation Of Sphingidae (Lepidoptera) By Otopheidomenid Mites In Intertropical Continental Zones And Observation Of A Case Of Heavy Infestation By Prasadiseius Kayosiekeri (Acari: Otopheidomenidae)
FIGURE 5: Egg of a Prasadiseius species attached with moth hairs: note the oval shape and absence of sculpturing pattern of the integument.
FIGURE 3 in Infestation Of Sphingidae (Lepidoptera) By Otopheidomenid Mites In Intertropical Continental Zones And Observation Of A Case Of Heavy Infestation By Prasadiseius Kayosiekeri (Acari: Otopheidomenidae)
FIGURE 3: Sphingid sclerites in between the left wings-tympanic-metathoracic area, showing the sclerites where Prasadiseius species inhabit, reproduce and multiply.
FIGURE 4 in Infestation Of Sphingidae (Lepidoptera) By Otopheidomenid Mites In Intertropical Continental Zones And Observation Of A Case Of Heavy Infestation By Prasadiseius Kayosiekeri (Acari: Otopheidomenidae)
FIGURE 4: Movable chelicerae of a Prasadiseius species: the denticles possibly function as scrapers of the host tissue.
FIGURE 1 in Infestation Of Sphingidae (Lepidoptera) By Otopheidomenid Mites In Intertropical Continental Zones And Observation Of A Case Of Heavy Infestation By Prasadiseius Kayosiekeri (Acari: Otopheidomenidae)
FIGURE 1: Dorsum of a sphingid moth with rectangular infestation area of Prasadiseius mites (in between the wings-tympanicmetathoracic-first abdominal cavity area, low magnification).
FIGURE 6 in Infestation Of Sphingidae (Lepidoptera) By Otopheidomenid Mites In Intertropical Continental Zones And Observation Of A Case Of Heavy Infestation By Prasadiseius Kayosiekeri (Acari: Otopheidomenidae)
FIGURE 6: Egg of a Psocoptera: note both narrow ends and typical sculpturing pattern of the integument.
FIGURE 2 in Infestation Of Sphingidae (Lepidoptera) By Otopheidomenid Mites In Intertropical Continental Zones And Observation Of A Case Of Heavy Infestation By Prasadiseius Kayosiekeri (Acari: Otopheidomenidae)
FIGURE 2: Dorsum of a sphingid moth host with rectangular infestation area of Prasadiseius mites (arrows) (in between the wingstympanic-metathoracic-first abdominal cavity area, in high magnification).
FIGURE 5 in From Parataxonomy To Molecular Data: The Case Of Rhagidiidae (Acari) From Belgian Soils
FIGURE 5: Rhagidial organs I in dorsal (A, D) and lateral (B, E) views and rhagidial organs II in latero-dorsal view (C, F) of Brevipalpia minima (A-C) and Hammenia macrostella (D-F). Insert of famulus in C. Scale bar = 100 µm.
FIGURE 1 in From Parataxonomy To Molecular Data: The Case Of Rhagidiidae (Acari) From Belgian Soils
FIGURE 1: Dorsal aspect of different soil Rhagidiidae. A – Brevipalpia minima Zacharda, 1980; B – Coccorhagidia clavifrons (Canestrini, 1886); C – Hammenia macrostella Zacharda, 1980; D – Parallelorhagidia evansi (Strandtmann and Prasse, 1976); E – Crassocheles virgo Zacharda, 1980 (from Zacharda 1980).
FIGURE 4 in From Parataxonomy To Molecular Data: The Case Of Rhagidiidae (Acari) From Belgian Soils
FIGURE 4: Brevipalpia minima Zacharda, 1980: A – dorsum, B – venter, C – trichobothrium, D – palp, E – tarsus I in lateral aspect, F – chelicera, G – subcapitulum, H – rhagidial organ I (from Zacharda 1980).
FIGURE 7 in From Parataxonomy To Molecular Data: The Case Of Rhagidiidae (Acari) From Belgian Soils
FIGURE 7: Legs III and IV in antiaxial (A, B) and paraxial (C, D) views of Brevipalpia minima (A-B) and Hammenia macrostella (C-D). Insert showing the microsculpture in B and D. Scale bar = 100 µm.
FIGURE 6 in From Parataxonomy To Molecular Data: The Case Of Rhagidiidae (Acari) From Belgian Soils
FIGURE 6: Hammenia macrostella Zacharda, 1980: A – dorsum, B – venter, C – trichobothrium, D – palp, E – chelicera, F – subcapitulum, G – tarsus I in lateral aspect, H – rhagidial organ I (from Zacharda 1980).
Intragenerational Social Mobility and Preventive Behaviors regarding COVID-19: A Case Study of the Slum and Non-Slum Peoples in Dhaka City
<p>Social Mobility and Preventive Behaviors regarding COVID-19 among the Slum and Non-Slum Peoples in Dhaka City</p>
Figure 12 in The Piltdown forgery: a re-statement of the case against Hinton
Figure 12. Diffractometer analysis of human canine.
Figure 4 in The Piltdown forgery: a re-statement of the case against Hinton
Figure 4. Arthur Smith Woodward (c. 1910).
Figure 11 in The Piltdown forgery: a re-statement of the case against Hinton
Figure 11. Martin Hinton working in the Keeper of Zoology's office (c. 1936).
Figure 8 in The Piltdown forgery: a re-statement of the case against Hinton
Figure 8. Martin Hinton (c.1912 taken in the NHM).
Figure 1 in The Piltdown forgery: a re-statement of the case against Hinton
Figure 1. Charles Dawson (c. 1902).
Building better conservation media for primates and people: A case study of orangutan rescue and rehabilitation YouTube videos
<p>1. Conservation organizations rely on social/internet media platforms to raise awareness and fundraise. Social media is a double-edged sword: it can be a wide-reaching and effective tool for education and fundraising, but can also have counter-productive impacts on public views toward wildlife and understanding of wildlife conservation.</p> <p>2. For example, depicting humans interacting with wildlife in media may increase video popularity, but animals shown in anthropogenic contexts are also viewed as appealing pets. We are interested in understanding whether this is true for social media posts (YouTube videos) by orangutan rescue and rehabilitation organizations, which rely on social media for fundraising and awareness-raising. Our goal is to provide data and recommendations to guide these organizations in building media with positive conservation impact while minimizing potential negative effects.</p> <p>3. Using YouTube analytics and sentiment analysis of comments on 118 videos, we ask how viewer responses to videos vary with 1) the amount of human-orangutan interaction depicted, 2) the ages of the orangutans featured, and 3) the mention of threats to orangutans.</p> <p>4. Videos with longer human-orangutan interaction time were viewed more, but comments on them were significantly more likely to be negative toward Indonesian/Malaysian people. Comments on orangutan rescue/rehabilitation videos were more likely to be categorized as negative for orangutan conservation compared to videos about orangutans generally, and within these, so were comments on videos featuring infant and juvenile orangutans.</p> <p>5. Based on our findings, we recommend that orangutan rescue and rehabilitation organizations feature adult and mixed age groups of orangutans rather than infants and juveniles, minimize the amount of human-orangutan interaction shown, and talk about conservation threats to orangutans in their videos. We also recommend that, as a precaution, other primate rescue and rehabilitation groups also abide by these suggestions.</p>
Figure 2 in Faecal case architecture in the gibbosus species group of Neochlamisus Karren, 1972 (Coleoptera: Chrysomelidae: Cryptocephalinae: Chlamisini)
Figure 2. Case-associated terminology for the description of cryptocephalinae cases.
Discovery of new Trichophyton members, T. persicum and T. spiraliforme spp. nov., as a cause of highly inflammatory tinea cases in Iran and Czechia
<p>Pathogens from the <i>Trichophyton benhamiae</i> complex are one of the most important causes of animal mycoses with significant zoonotic potential. In the light of the recently revised taxonomy of this complex, we retrospectively identified 38 <i>Trichophyton</i> isolates that could not be resolved in any of the existing species. These strains were isolated from Iranian and Czech patients during molecular epidemiological surveys on dermatophytosis and were predominantly associated with highly inflammatory tinea corporis cases suggesting possible zoonotic etiology. Subsequent phylogenetic (4 markers), population-genetic (10 markers) and phenotypic analyses supported recognition of two novel species. The first species, <i>T.</i> <i>persicum </i>sp. nov., was identified in 36 cases of human dermatophytosis and one case of feline dermatophytosis, mainly in Southern and Western Iran. The second species, <i>T. spiraliforme </i>sp. nov., is only known from a single case of tinea corporis in a Czech patient who probably contracted the infection from a dog. Although the zoonotic source of infections summarized in this study is very likely, little is known about the host spectrum of these pathogens. Awareness of these new pathogens among clinicians should refine our knowledge about their poorly explored geographic distribution.</p>
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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.