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Fig. 2 in Equal rights for parasites: Are we there yet?
Fig. 2. Proportion of empirical and non-empirical articles on the topic of parasites and conservation which treat parasites as a conservation target (orange) or a threat (blue), published in (A) International Journal for Parasitology: Parasites and Wildlife or (B) Biological Conservation and Conservation Biology.
FIGURE 16. Shiramine Morphotype B, right mandible SBEI 827. 1–2 in An assemblage of lizards from the Early Cretaceous of Japan
FIGURE 16. Shiramine Morphotype B, right mandible SBEI 827. 1–2, dentary in labial view; 3–4, dentary and associated splenial in lingual view; 5–11, postdentary bones in 5–6 dorsomedial view; 7, ventral view; 8, dorsal view; 9, medial view; and 10, posterior view of articular surface. For abbreviations, see Material and Methods.
FIGURE 16. Right manual ungual phm I-2 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 16. Right manual ungual phm I-2 of the Camarasaurus SMA 0002 in medial (left), dorsal, lateral, and palmar (right, top to bottom) views. Schematic drawing indicates location of the claw. The metal bar overlain with semi-transparent white in the photo of the lateral view functions as support for the mount. Abbreviation: mg, medial groove. Scale bar equals 5 cm.
FIGURE 3. Agerinia roselli from Les Saleres. IPS-82793, isolated right M1 in New dental material and redescription of Agerinia roselli (Primates, Adapiformes) from Les Saleres (early Eocene, NE Iberian Peninsula)
FIGURE 3. Agerinia roselli from Les Saleres. IPS-82793, isolated right M1 in occlusal (1), buccal (2) and lingual (3) views. IPS-82816, isolated right M1 in occlusal (4), buccal (5) and lingual (6) views. IPS-2542, left mandible fragment with M2 in occlusal (7), buccal (8) and lingual (9) views. IPS-82794, right mandible fragment with M2 in occlusal (10), buccal (11) and lingual (12) views. IPS-1981, holotype, left mandible fragment with M2 and M3 in occlusal (13), buccal (14) and lingual (15) views. IPS-2541, right mandible fragment with M2 and M3 in occlusal (16), buccal (17) and lingual (18) views. IPS-82795, right mandible fragment with M3 in occlusal (19), buccal (20) and lingual (21) views. IPS- 82790, left mandible fragment preserving part of the ramus mandibularis and a fragment of the M3 in occlusal (22), buccal (23) and lingual (24) views. Scale bar represents 3 mm.
FIGURE 10. 1, Beremendia fissidens from Popovo 1, right I1 in New data on Eulipotyphla (Insectivora, Mammalia) from the Late Miocene to the Middle Pleistocene of Ukraine
FIGURE 10. 1, Beremendia fissidens from Popovo 1, right I1, in anterior view (c.n. 29/I/12/1); 2, cf. Beremendia minor from Verkhnya Krynitsa 1, fragment of left mandible with proximal part of i1 in buccal view (c.n. 29/1/13/1); Petenyia dubia from Verkhnya Krynitsa 2 (3) and Lobkove (4): 3, left condyloid process, posterior view (c.n. 29/2/14/1); 4, left M1, occlusal view (c.n. 29/3/14/1). 5, Zelceina sp. from Verkhnya Krynitsa 2, fragment of left maxillae with M1-M2, occlusal view (c.n. 29/2/16/1).
Optical images of comets C/2021 A1 (Leonard) (left) and C/2022 E3 (ZTF) (right)
<p>Optical images of comets C/2021~A1 (Leonard) (left) and C/2022~E3 (ZTF) (right), (c) N. Biver.<br> Left panel: telescopic image of comet C/2021~A1 (Leonard) on 29 November 2021 at 4:41 UTC (94~s exposure).<br> Right panel: telescopic image of comet C/2022~E3 (ZTF) on 31 January 2023 at 4:53 UTC (126~s exposure).<br> Images were taken at the focus of a 40.7-cm telescope at F/D=4.3 from Eure-et-Loir (France).<br> Field of view is 45x45 arcmin, North is up.</p>
Fig. 6. A. Peraiocynodon major, attributed right upper molar BMNH J. 576 in Docodonts from the British Mesozoic
Fig. 6. A. Peraiocynodon major, attributed right upper molar BMNH J. 576, in labial (A1), lingual (A2), anterior (A3), posterior (A4), and two occlusal (A5, A6) views (one shaded). B. Peraiocynodon major sp. nov., attributed left upper canine BMNH J.212, in labial (B1), lingual (B2), and occlusal (B3) views. Scale bar 1 mm.
Fig. 4. A. Borealestes serendipitus, attributed right upper molar BMNH J. 580 in Docodonts from the British Mesozoic
Fig. 4. A. Borealestes serendipitus, attributed right upper molar BMNH J. 580, in labial (A1), lingual (A2), anterior (A3), posterior (A4), and occlusal (A5) views. B. Borealestes mussetti sp. nov., attributed left upper molar BMNH J.404, in lingual (B1), anterior (B2), posterior (B3), and occlusal (B4) views. C. Borealestes sp., left upper molar BMNH J.455, in labial (C1), lingual (C2), anterior (C3), posterior (C4), and occlusal (C5) views. Scale bar 1 mm.
Fig. 6. Sahnitherium rangapurensis. Right M1 in New Late Cretaceous mammals from the Intertrappean beds of Rangapur, India and paleobiogeographic framework
Fig. 6. Sahnitherium rangapurensis. Right M1 or M2 (ITV/R/Mm−1), holotype in occlusal (A, B), labial (C), anterior (D), and posterior (E) views. Scale bar 0.5 mm.
FIGURE 3. Apatemyid first molars from Raben Ranch. 1 and 2, right m1s in Apatemyids (Mammalia, Apatotheria) from the middle Chadronian (late Eocene) of Sioux County, Nebraska, US
FIGURE 3. Apatemyid first molars from Raben Ranch. 1 and 2, right m1s of Sinclairella dakotensis (SDSM 10241) and 3, right m1 of Apatemys sp. (SDSM 10242). Teeth are shown in occlusal view. Scale is approximately 1 mm.
FIGURE 11. Samotherium major from Samos. 1, Right metacarpal NHMBe 711 in First comprehensive morphological analysis on the metapodials of Giraffidae
FIGURE 11. Samotherium major from Samos. 1, Right metacarpal NHMBe 711; 2, Right metatarsal AMNH 22967.
FIGURE 8. Bramatherium megacephalum from the Upper Siwaliks. 1, Right metacarpal AMNH 29820 in First comprehensive morphological analysis on the metapodials of Giraffidae
FIGURE 8. Bramatherium megacephalum from the Upper Siwaliks. 1, Right metacarpal AMNH 29820; 2, Right metatarsal AMNH 19688.
FIGURE 13. Bohlinia attica from Pikermi. 1, Right metacarpal MNHN 52780 in First comprehensive morphological analysis on the metapodials of Giraffidae
FIGURE 13. Bohlinia attica from Pikermi. 1, Right metacarpal MNHN 52780; 2, Right metatarsal MNHN 1639.
Fig. 7. Talpa minuta, Petersbuch 6. A. Right dentary with p1–m3, NHMA P6−1058B1 in Moles (Talpidae) from the late Middle Miocene of South Germany
Fig. 7. Talpa minuta, Petersbuch 6. A. Right dentary with p1–m3, NHMA P6−1058B1 in occlusal (A1) and buccal (A2) views; ca. × 5. B. Right maxillary fragment with M1–M3, NHMA P6−1059/6, occlusal view; ca. × 10. C. Right P4, NHMA P6−1059/4, occlusal view; ca. × 10. D. Left humerus, NHMA P6−1060/1, in anterior (D1) and posterior (D2) views; ca. × 5. E. Left ulna, NHMA P6−1062/3, anterior view; ca. × 5. F. Left ulna, NHMA P6−1062/2, lateral view; ca. × 5.
Fig. 11. Right second lower molars. A. BMNH M46763 in New teeth of allotherian mammals from the English Bathonian, including the earliest multituberculates
Fig. 11. Right second lower molars. A. BMNH M46763, referred to Hahnotherium antiquum gen. et sp. nov. B. Kuehneodon sp. (based on Hahn 1969: fig. 36). C. Pinheirodon vastus (based on Hahn and Hahn 1999: fig. 4b). D. Bolodon osborni (based on Kielan−Jaworowska and Ensom 1992: pl. 3: 5). Mesial end upwards.
Fig. 9. BMNH M46640, right P3 in New teeth of allotherian mammals from the English Bathonian, including the earliest multituberculates
Fig. 9. BMNH M46640, right P3/4, referred to Kermackodon multicuspis gen. et sp. nov. A. Occlusal view, mesial to right. B. Basal view, mesial to left. C. Lingual view. D. Buccal view, crown upwards in C and D.
Fig. 3. A. Right P4 in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 3. A. Right P4 to M3 of Dissacus zanabazari sp. nov., holotype, MAE−BU−97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene. B. Explanantory drawing of the same. Hatched areas in B indicate crushed and distorted enamel, and shading denotes missing enamel, with features reconstructed from left dentition.
Figure 18. Rakomeryx sinclairi. A. Left and right p4, JODA 7195. B. Left p4-m3, JODA 2362 in The fauna and chronostratigraphy of the middle Miocene Mascall type area, John Day Basin, Oregon, USA
Figure 18. Rakomeryx sinclairi. A. Left and right p4, JODA 7195. B. Left p4-m3, JODA 2362. Scale bars=1cm.
Figure 20. Camelidae right partial dentary with p3 in The fauna and chronostratigraphy of the middle Miocene Mascall type area, John Day Basin, Oregon, USA
Figure 20. Camelidae right partial dentary with p3 (?), JODA 15560. A. Occlusal view. B. Lateral view. Scale bar=1cm.
Comparative analysis of a geometric and an adhesive righting strategy against toppling in inclined hexapedal locomotion
<p>Animals are known to exhibit different walking behaviors in hilly habitats. For instance, cats, rats, squirrels, tree frogs, desert iguana, stick insects and desert ants were observed to lower their body height in traversing slopes, whereas mound-dwelling iguanas and wood ants tend to maintain constant walking kinematics regardless of the slope.</p> <p></p><p>This paper aims to understand and classify these distinct behaviors into two different strategies against toppling for climbing animals by looking into two factors, (i) the torque of the center of gravity (CoG) with respect to the critical tipping axis, and (ii) the torques of the legs, which have the potential to counterbalance the CoG-torque. Our comparative locomotion analysis on level locomotion and inclined locomotion exhibited that primarily only one of the proposed two strategies was chosen for each of our sample species, despite the fact that a combined strategy could have reduced the animal's risk to topple over even more. We found that desert ants of Cataglyphis fortis maintained their upright posture primarily through the adjustment of their CoG-torque (geometric strategy), and wood ants of the Formica rufa species group controlled their posture primarily by exerting leg-torques (adhesive strategy). We further provide hints that the geometric strategy employed by Cataglyphis could increase the risk for slipping on slopes since the leg-impulse substrate angle of Cataglyphis' hind legs were lower compared to Formica's. In contrast, the adhesion strategy employed by Formica's front legs not only decreased the risk for toppling. It also explained the steeper leg-impulse substrate angle of Formica's hind legs which should relate to more bending of the tarsal structures and therefore to more microscopic contact points potentially reducing the risk for hind leg slipping.</p><p></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.