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Fig. 6 in Basicranial Anatomy of the Living Linsangs Prionodon and Poiana (Mammalia, Carnivora, Viverridae), with Comments on the Early Evolution of Aeluroid Carnivorans
Fig. 6. Basicrania of Prionodon (AMNH 163595, A) and Poiana (AMNH 51438, B) in ventral view. The bony floor of the posterior chamber of the auditory bulla has been removed on one side in each individual to show the ectotympanic resting on the petrosal promontorium, and the size of the posterior chamber formed by the caudal entotympanic. Note the more expanded or inflated posterior chamber in Poiana relative to Prionodon.
Fig. 2 in Basicranial Anatomy of the Living Linsangs Prionodon and Poiana (Mammalia, Carnivora, Viverridae), with Comments on the Early Evolution of Aeluroid Carnivorans
Fig. 2. Skulls of the Quercy Palaeoprionodon (MNHN Qu 9370), the Asian linsang Prionodon pardicolor (AMNH 163595), and the African linsang Poiana richardsoni (AMNH 51438), from left to right. (A) dorsal view; (B) ventral view. Scale bar in this and all subsequent figures is 1 cm.
Fig. 10 in Basicranial Anatomy of the Living Linsangs Prionodon and Poiana (Mammalia, Carnivora, Viverridae), with Comments on the Early Evolution of Aeluroid Carnivorans
Fig. 10. Final stage of the dissection of the auditory bulla of Prionodon (AMNH 163595, A) and Poiana (AMNH 51438, B) in ventral view. Note the robust ventral process of the promontorium in Prionodon, only incipiently modified as a flange appressed against the basioccipital, hence similar to the form of the ventral process in Palaeoprionodon (compare with fig. 4). In Poiana the flange has been further modified as a thin blade and has been extended fore and aft to a greater degree than in Prionodon. The caudal entotympanic is more inflated in Poiana, broadly contacting the paroccipital process, whereas in Prionodon the caudal entotympanic is not as expanded, and the process still retains a vestige of its primitive rodlike form.
Fig. 9 in Basicranial Anatomy of the Living Linsangs Prionodon and Poiana (Mammalia, Carnivora, Viverridae), with Comments on the Early Evolution of Aeluroid Carnivorans
Fig. 9. Dissection of the auditory region of Poiana richardsoni (AMNH 51438) in oblique lateral view (compare with fig. 7). The posterior chamber of the bulla has been opened (A), showing the inflected dorsal margin of the caudal entotympanic applied to the petrosal, and the ectotympanic resting on the promontorium anterior to the round window. Removal of the ectotympanic and rostral entotympanic (B) reveals the petrosal promontorium with ventral process produced as a flange buttressing the edge of the basioccipital. The flange is more developed in Poiana than in Prionodon, and the caudal entotympanic element is more inflated.
Fig. 1 in Basicranial Anatomy of the Living Linsangs Prionodon and Poiana (Mammalia, Carnivora, Viverridae), with Comments on the Early Evolution of Aeluroid Carnivorans
Fig. 1. Geographic distribution of the living Asian linsangs (Prionodon pardicolor, P. linsang) and African linsang (Poiana richardsoni), and the Eurasian localities that have produced fossils of the Oligocene aeluroid Palaeoprionodon. 1, Palaeoprionodon lamandini, Quercy fissures, France; 2, Hsanda Gol, Mongolia (?Palaeoprionodon); 3, Poiana richardsoni leightoni (western area), P. r. richardsoni (eastern area); 4, Prionodon pardicolor (northern area), Prionodon linsang (southern area).
Fig. 5 in Basicranial Anatomy of the Living Linsangs Prionodon and Poiana (Mammalia, Carnivora, Viverridae), with Comments on the Early Evolution of Aeluroid Carnivorans
Fig. 5. Basicranium and auditory region of the living African aeluroid Nandinia binotata. (A), juvenile female from Akenge, Zaire (AMNH 51450), ventral view; (B) medial view of AMNH 51450; (C) neonate, from Medje, Zaire (AMNH 51472). The ectotympanic is separated from the osseous rostral entotympanic by an intervening strip of connective tissue representing the anterior continuation of the caudal entotympanic.
YAKS' LIVES ON THE MOUNTAINS
<p><span>YAKS' LIVES ON THE MOUNTAINS</span></p> <p><span>Filmed by Bkra shis rab rgyas, 7 July 2024, in Thang skyid Village, 'Ba' dgon Township, Chu dmar leb County, Yul shul Tibetan Autonomous Prefecture, Mtsho sngon (Qinghai) Province, China. This film shows female and male yaks and their life in the mountains through the four seasons and the landscape.</span></p>
FIGURES 18‑20 in New Nicoletiidae (Zygentoma: Insecta) from Brazil living in fire-ant (Hymenoptera: Insecta) nests
FIGURES 18‑20: Allotrichotriura saevissima gen. nov. sp. nov., female. 18. Posterior abdomen, ventral (ovipositor outlined). 19. Gonapophyses VIII, distal divisions. 20. Gonapophyses IX, distal divisions. Scale bars: 0.1 mm.
FIGURES 14‑17 in New Nicoletiidae (Zygentoma: Insecta) from Brazil living in fire-ant (Hymenoptera: Insecta) nests
FIGURES 14‑17: Allotrichotriura saevissima gen. nov. sp. nov., female. 14. Urosternites I-III. 15. Urosternite V. 16. Urosternite VI. 17. Urosternite VII and subgenital plate. Scale bars: 0.1 mm.
FIGURES 7‑13 in New Nicoletiidae (Zygentoma: Insecta) from Brazil living in fire-ant (Hymenoptera: Insecta) nests
FIGURES 7‑13: Allotrichotriura saevissima gen. nov. sp. nov., female. 7. Antero-lateral area of pronotum. 8. P I. 9. P III. 10. Praetarsus and empodium. 11. Urotergite III. 12. Urotergite IX. 13. Urotergite X. Scale bars: 0.1 mm.
FIGURES 1‑6 in New Nicoletiidae (Zygentoma: Insecta) from Brazil living in fire-ant (Hymenoptera: Insecta) nests
FIGURES 1‑6: Allotrichotriura saevissima gen. nov. sp. nov., female. 1. Head. 2. Mandible. 3. Maxilla. 4. Maxillary palp. 5. Id, detail of the distal article. 6. Labial palp. Scale bars: 0.1 mm.
Atlas of Living Australia: Bugs for Bugs, Atlas of Living Australia
<p></p>https://bugsforbugs.com.au/
Atlas of Living Australia: Wolf Spiders of Australia, Atlas of Living Australia
The Wolf Spiders (Araneae, Lycosidae) of Australia.
FIGURE 6. a Live male X in Morphology, biology and phylogeny of Xenos gadagkari sp.nov. (Strepsiptera: Xenidae): an endoparasite of Polistes wattii (Hymenoptera: Vespidae)
FIGURE 6. a Live male X. gadagkari taken out of puparium. b. Illustration of a male X. gadagkari. PRN—Pronotum, AC— Acrotergite, MN—Mesonotum, PC—Prescutum, SL—Scutellum, POL—Postlumbium, PN—Postnotum, FW—Forewing, HW—Hindwing.
Key SOILL actions to consider for proposals when setting up Soil Health Living Labs (SHLLs) & Lighthouses (LHs)
<p>The infographic "Key SOILL Actions to Consider for Proposals When Setting Up Soil Health Living Labs (SHLLs) & Lighthouses (LHs)" provides a strategic overview for potential applicants to the Horizon Europe topics funding the establishement of the Soil Health Living Labs on the essential activities and commitments required for effective participation in the SOILL, the EU-funded Support Structure for the Soil Health Living Labs and Lighthouses. Designed in response to a need highlighted by the key stakeholders, this visual guide ensures that applicants consider the necessary time and budget for involvement in SOILL events, training, and collaborative efforts. The infographic categorises actions into in-person, in-person/online, and online-only engagements, offering a clear understanding for integrating these elements into the proposals. This tool has been realised with aim to fulfil the SOILL and NATI00NS project's missions, aiding in the preparation and alignment of SHLL/LH proposals with SOILL's overarching goals.</p>
FIGURES 26–31 in Chelonicola and Poulinea, two new gomphonemoid diatom genera (Bacillariophyta) living on marine turtles from Costa Rica
FIGURES 26–31. Poulinea lepidochelicola. SEM pictures taken from the holotype population from the olive ridley sea turtle carapace collected on Ostional Beach, Costa Rica. 26. External oblique view of an entire valve showing the shape of the mantle. 27. Internal view of two entire valves without girdle elements showing the raphe sternum and the covered areolae. 28. Internal detail of the headpole showing the helictoglossae and a few areolae surrounding the headpole. 29. Internal detail of the footpole with the helictoglossae and several rows of areolae surrounding the footpole. 30. Internal detail of the central area with the siliceous covering of the proximal raphe endings. 31. Internal detail of the central area. The siliceous flap covering the proximal raphe endings has been removed showing the raphe endings. Scale bar represents 1 μm except for Fig. 27 where scale bar = 5 μm.
FIGURES 21–25 in Chelonicola and Poulinea, two new gomphonemoid diatom genera (Bacillariophyta) living on marine turtles from Costa Rica
FIGURES 21–25. Poulinea lepidochelicola. SEM pictures taken from the holotype population from the olive ridley sea turtle carapace collected on Ostional Beach, Costa Rica. 21. External view of an entire valve showing the raphe structure, the striae composed of two enlarged areolae and the fascia with only one reduced stria. 22. External detail of a headpole with the siliceous covering of the distal raphe fissure and the lack of an apical pore field. 23. External detail of a footpole with the thickened siliceous covering of the distal raphe fissure and the presence of several areolae surrounding the apex. 24. External detail of the central area showing the spatulate proximal raphe endings. 25. External detail of the striae. Note the hymenate coverings in the areolae canals. Scale bar represents 1 μm except for Fig. 21 where scale bar = 10 μm.
FIGURES 13–20 in Chelonicola and Poulinea, two new gomphonemoid diatom genera (Bacillariophyta) living on marine turtles from Costa Rica
FIGURES 13–20. Poulinea lepidochelicola. SEM pictures taken from the holotype population from the olive ridley sea turtle carapace collected on Ostional Beach, Costa Rica. 13. Several frustules attached to the substrate showing how the population is organised. 14. Five frustules attached to the substrate showing the headpoles and the girdle bands. 15. External girdle view of an entire frustule showing the girdle bands and the mantle. 16. External girdle view of an entire valve showing the mantle, the distal raphe fissures and the doubling of the perforation of the girdle bands near the footpole. 17. External detail of the footpole. The arrow shows the doubling of the poroids. 18. External detail of the headpole. 19. Internal view of an entire valve showing the raphe sternum, the septate girdle bands and the covered areolae. 20. Second copula with the typical septum at the footpole. Scale bar represents 10 μm, except for Figs 17, 18 where scale bar = 1 μm.
FIGURES 7–12 in Chelonicola and Poulinea, two new gomphonemoid diatom genera (Bacillariophyta) living on marine turtles from Costa Rica
FIGURES 7–12. Chelonicola costaricensis. SEM pictures taken from the holotype population from the olive ridley sea turtle carapace collected on Ostional Beach, Costa Rica. 7. External valve face view showing the mantle and the areolae. 8. External detail of a footpole showing the absence of an apical pore field and the distal raphe fissure continuing onto the mantle. 9 & 10. Internal views of an entire valve showing the raphe sternum, the septate girdle bands and the covered areolae. 11. Internal detail of the central area. 12. Internal detail of the footpole with helictoglossa. Scale bar represents 1 μm.
FIGURES 1–6 in Chelonicola and Poulinea, two new gomphonemoid diatom genera (Bacillariophyta) living on marine turtles from Costa Rica
FIGURES 1–6. Chelonicola costaricensis. SEM pictures taken from the holotype population from the olive ridley sea turtle carapace collected on Ostional Beach, Costa Rica. 1. Three frustules of Chelonicola attached to the substrate together with one frustule (upper one) of Poulinea. 2. Several valves of Chelonicola attached to the substrate showing their valve face and the girdle composition. 3. One frustule attached to the substrate by a mucilaginous stalk. The girdle structure composed of at least 10 bands is shown. 4. Valve face view showing the head pole with the distal raphe fissure continuing onto the mantle. 5. External detail of the central area showing the lack of fascia and the stria structure. 6. External detail of a head pole showing the distal raphe fissure. Scale bar represents 10 μm except for Figs 5, 6 where scale bar = 1 μm.
ScienceDex guides
Understand access before you commit
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.