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Gul Dent Rbr Text-fig. 6. Amblypterus latus AGASSIZ, 1833. Reconstruction of the skull in lateral view, x 2.1, original. Original. Cl – cleithrum; Dent – dentalosplenial; Dhy – dermohyal; Dpt – dermopterotic; Dsph – dermosphenotic; Extl – extrascapular lateral; Fr – frontal; Gul – gular lateral; Infp – infraorbital posterior; Infs – infraorbital superior; Ju – jugal; La – lacrimal; Mx – maxilla; Na – nasal; Op – operculum; Pa – parietal; Pmx – premaxillar; Pop – preoperculum; Pp – postparietal; Pt – posttemporal; Ptr – postrostral; Rbr – branchiostegal rays; Sbo – suborbital; Scl – supracleithrum; Soant – supraorbital anterior; Sop – suboperculum; Spi – spiracular; sr – sclerotical ring. in New Data On The Osteology Of The Actinopterygian Fish Amblypterus And The Relationship Between Amblypterus And Paramblypterus
Gul Dent Rbr Text-fig. 6. Amblypterus latus AGASSIZ, 1833. Reconstruction of the skull in lateral view, x 2.1, original. Original. Cl – cleithrum; Dent – dentalosplenial; Dhy – dermohyal; Dpt – dermopterotic; Dsph – dermosphenotic; Extl – extrascapular lateral; Fr – frontal; Gul – gular lateral; Infp – infraorbital posterior; Infs – infraorbital superior; Ju – jugal; La – lacrimal; Mx – maxilla; Na – nasal; Op – operculum; Pa – parietal; Pmx – premaxillar; Pop – preoperculum; Pp – postparietal; Pt – posttemporal; Ptr – postrostral; Rbr – branchiostegal rays; Sbo – suborbital; Scl – supracleithrum; Soant – supraorbital anterior; Sop – suboperculum; Spi – spiracular; sr – sclerotical ring.
Fig. 2 in There and back again - The return of the nasal mite Halarachne halichoeri to seals in German waters
Fig. 2. Dark field binocular image of Halarachne halichoeri adult ventral and dorsal view (A) from H.g. 2 in comparison with (B) CeNak museum specimen from 1890.
Fig. 4 in There and back again - The return of the nasal mite Halarachne halichoeri to seals in German waters
Fig. 4. Grey seal, nasal mucosa with severe, diffuse lympho-plasmacytic infiltration; HE; E = epithelium; bar = 100 μm.
Fig. 6. Polyp-like growths with adult mites present. Tissue extracted from H.g. 4 in There and back again - The return of the nasal mite Halarachne halichoeri to seals in German waters
Fig. 6. Polyp-like growths with adult mites present. Tissue extracted from H.g. 4's inferior nasal meatus adjacent to the hard palate.
Fig. 3 in There and back again - The return of the nasal mite Halarachne halichoeri to seals in German waters
Fig. 3. Dark field binocular image of Halarachne halichoeri larvae ventral and dorsal view (A) from H.g. 2 in comparison with (B) CeNak museum specimen from 1890.
Fig. 1 in First reports of nasal and traumatic myiasis infection in endangered Przewalski's horses (Equus ferus przewalskii)
Fig. 1. Photographs of the third larval stage of Wohlfahrtia magnifica (Schiner) in an injured Przewalski's horse in Xinjiang Research Centre for Breeding Przewalski's Horse, Xinjiang, China. A. The wound on the left stifle of the horse, restrained with rope. B. Wound after cleaning showing a cluster of larvae in situ. C. Lateral view. (Scale bar: 2 mm.) D. Ventral view of the anterior part. (Scale bar: 0.5 mm.) E. Ventral view. (Scale bar: 2 mm.) F. Posterior view. (Scale bar: 1 mm.)
Text-fig. 5. Cyclurus macrocephalus REUSS. Skull roof. Specimen N.M.P. Pc 2833. Dent: dentary; Dptot: dermopterotic; Fr: frontal; Iorb. 4: fourth infraorbital; Iorb. 5: fifth infraorbital; Na: nasal; Op: operculum; Pa: parietal; Pop: preoperculum; Scl: supracleithrum. [Photograph D. Serrette] in Complements To The Anatomical Knowledge Of Reuss (Pisces, Actinopterygii) From The Eocene Of Kučlín, Bohemia, Czech Republic
Text-fig. 5. Cyclurus macrocephalus REUSS. Skull roof. Specimen N.M.P. Pc 2833. Dent: dentary; Dptot: dermopterotic; Fr: frontal; Iorb. 4: fourth infraorbital; Iorb. 5: fifth infraorbital; Na: nasal; Op: operculum; Pa: parietal; Pop: preoperculum; Scl: supracleithrum. [Photograph D. Serrette]
(1) in Fused and vaulted nasals of tyrannosaurid dinosaurs: Implications for cranial strength and feeding mechanics
(1)
Fig. 43. Character 2 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 43. Character 2 (morphology of the caudalmost portion of the maxilloturbinal) optimized on the Meredith et al. (2009) topology. For character state 2.0, the caudal maxilloturbinal is simple in morphology and is attached to the nasal cavity wall or floor. For character state 2.1, the caudalmost portion of maxilloturbinal becomes an enclosed tube that tapirs into a cone that is unattached to the nasal cavity. States for this character are illustrated in figure 38.
Fig. 41 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 41. Coronal CT images showing differences in the morphology of the ventralmost ectoturbinal (char. 20). (A) ventralmost ectoturbinal bifurcates (char. 20.0), Didelphis virginiana, C464 (TMM M-2517); (B) ventralmost ectoturbinal does not bifurcate (char. 20.1), Dendrolagus lumholtzi, C280 (AMNH 65254). Both scale bars equal 5 mm. Abbreviations: Ecto, ectoturbinal; Endo, endoturbinal; NPM, nasopharyngeal meatus; ONS, ossified nasal septum; SER, sphenethmoid recess.
Fig. 37 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 37. Digital rendering of the isolated right maxilloturbinal from Phascolarctos cinereus (TMM M- 2946) shown in (A) lateral, (B) rostral, (C) medial, and (D) caudal views. Labels indicate caudal and rostral ends of the maxilloturbinal for the lateral and medial views. Scale bar equals 1 cm.
Fig. 44. Character 16 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 44. Character 16 (presence or absence of rostral portion of endoturbinal I) optimized on Meredith et al. (2009) topology. For character state 16.0, the rostral portion of endoturbinal I is present. For character state 16.1, the rostral portion is absent. States for this character are illustrated in figure 39.
Fig. 46. Character 11 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 46. Character 11 (presence or absence of an uncinate process of nasoturbinal) optimized on Meredith et al. (2009) topology. Character state 11.0 is the presence of an uncinate process; 11.1 is the absence of the uncinate process. States for this character are illustrated in figure 14. Abbreviation: NA, not applicable.
Fig. 32 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 32. Coronal CT images showing caudalmost attachment of the maxilloturbinal (char. 3). (A) maxilloturbinal attaches to the floor of the nasal cavity (char. 3.0), Phalanger orientalis, C201 (AMNH 157211); (B) maxilloturbinal attaches to the lateral wall of the nasal cavity (char. 3.1), Macrotis lagotis, C370 (AMNH 74486). Both scale bars equal 5 mm. Abbreviations: Endo, endoturbinal; ONS, ossified nasal septum.
Fig. 10 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 10. Coronal CT images showing the morphology of the ossified rostral nasoturbinal (char. 6). (A) rostral nasoturbinal is well developed as a slender ventromedial directed process (char. 6.0), Dasyurus hallucatus, C160 (TMM M-6921), scale bar equals 5 mm; (B) rostral nasoturbinal is a small, robust bony process with a ventromedial inflection (char. 6.1), Dromiciops gliroides, C136 (FMNH 127463), scale bar equals 1 mm. Abbreviations: Endo, endoturbinal; ONS, ossified nasal septum.
Fig. 17 in Comparative Morphology Of The Internal Nasal Skeleton Of Adult Marsupials Based On X-Ray Computed Tomography
Fig. 17. Coronal CT slice through the nasal cavity of Didelphis virginiana, C432 (TMM M-2517) showing two different terminology schemes for naming ectoturbinals and endoturbinals. Left side of figure is labeled with terminology following Allen (1882), which is used in this paper. Right side of figure is labeled using terminology of Paulli (1900a). Scale bar equals 5 mm. Abbreviations: Ecto, ectoturbinal; Endo, endoturbinal.
Gestational and Peri-conceptional Exposure to Intra-nasal Instilled Air Pollutants Epigenetically Perturb Metabolic, Placental and Embryonic Phenotypes
<p><strong>Supplementary Figure legends</strong></p> <p> </p> <p><strong>Figure 1: </strong>Gestational study: Bar plots of plasma metabolites</p> <p> </p> <p><strong>Figure 2:</strong> Gestational study: Bar graph depicting gestational day 19 (GD19) maternal (left) and fetal (right) blood glucose concentrations presented as mean ± SEM. Air pollutant exposed group (AP) versus controls (CON), *p < 0.05 AP versus CON.</p> <p> </p> <p><strong>Figure 3: </strong>Gestational study: <strong>(A)</strong> GO term enrichment analysis of expressed genes between the AP group versus the CON group (n=6 each). Significant enrichment of pathways represented as q-values have been presented in a color-coded key. NES = normalized enrichment score. <strong>(B)</strong> Category cnet plot depicting the linkage of genes and biological concepts (hallmark pathways) as a network illustrating which genes are involved in enriched pathways, and genes that may belong to multiple annotation categories.</p> <p><strong>Figure 4: </strong>Gestational study:<strong> (A) </strong>Representative Western blots of various glucose and lipid transporter proteins and TNFα protein, with vinculin serving as an internal loading control, obtained from CON and AP GD19 placentas<strong>. (B) </strong>Bar plot showing densitometric analysis of Western blots of the various glucose and lipid transporters and TNFα (n=8 for each protein in each group). Data are depicted as Mean ± SEM. While trends are seen, statistical significance was not achieved.</p> <p><strong>Figure 5: </strong>Periconceptional study: <strong>(A)</strong> Bar plots demonstrating fasting blood glucose concentrations (left panel), Glucose tolerance tests (GTTs) (middle panel) and the area under the curves (AUCs) for GTTs (right panel) in non-pregnant (NP), pregnant (P), omega-3 diet exposed (P<em>n-3</em>) pregnant C57/BL6 (BL6) and CD1 pregnant mice are shown. <strong>(B)</strong> Bar plots demonstrating basal fed-state blood glucose concentrations (left panel), Insulin tolerance tests (ITTs) (middle panel) and AUCs for ITTs (right panel) in non-pregnant (NP), pregnant (P), omega-3 diet exposed (P<em>n-3</em>) pregnant C57/BL6 (BL6) and CD1 pregnant mice are shown (n=4-6 each). Data are presented as Mean ± SEM. Significance is shown as <sup>#</sup>compared to BL6-NP, *compared to BL6-P, and <sup>!</sup>compared to BL6-Pn-3 at a p< 0.05.</p> <p><strong>Figure 6: </strong>Periconceptional study:<strong> (A) </strong>Representative Western blots demonstrate various GD19 placental glucose and lipid transporter proteins, with vinculin serving as the internal loading control. <strong>(B) </strong>Bar plots show densitometric analysis of the Western blots of the various glucose and lipid transporters (n=8 for each protein in each group). Data are presented as Mean ± SEM.</p> <p><strong>Figure 7</strong>: Periconceptional study: Category cnet plot depicting the linkage of genes and biological concepts (hallmark pathways) as a network illustrating which genes are involved in enriched pathways, and the genes that may belong to multiple annotation categories between <strong>(A)</strong> AP and CON,<strong> (B)</strong> AP-<em>n-3</em> and AP, <strong>(C) </strong>AP-<em>n-3</em> and CON.</p> <p><strong>Figure 8: </strong>Periconceptional study:<strong> (A)</strong> Bar plots showing coverage of the 5’-hydroxymethylation DNA marks and genomic annotations in GD19 placentas from CON, AP, <em>n-3</em> and AP<em>-n-3</em> experimental groups (n=4 each). <strong>(B)</strong> Pie charts showing the distribution and genomic annotation of differentially methylated regions (DMRs) between the AP and CON groups. Upper panel depicts the distribution of DMRs across CpG-islands and associated regions, while the lower panel depicts the distribution of DMRs around different genomic regions. <strong>(C)</strong> Pie charts showing the distribution and genomic annotation of differentially methylated regions (DMRs) between AP<em>-n-3</em> and CON (left panel), <em>n-3</em> versus CON (middle panel) and AP<em>-n-3</em> versus AP (right panel).</p> <p><strong>Figure 9:</strong> Periconceptional study: <strong>(A-D) </strong>Volcano plots demonstrating the DNA methylation profiles of GD19 placentas from <strong>(A)</strong> AP versus CON, <strong>(B)</strong> AP<em>n-3</em> vs CON, <strong>(C)</strong> <em>n-3</em> vs CON, and <strong>(D)</strong> AP-<em>n-3</em> vs AP groups. Red and blue dots represent hypomethylated and hypermethylated loci respectively (n=4 each group). </p> <p> </p> <p> </p> <p> </p> <p> </p>
Study schema: Kathleen Buchheit. (2023). Dupilumab and daily high-dose aspirin therapy synergistically reduce nasal eosinophil markers in NSAID-exacerbated respiratory disease.
<p>Study schema</p>
FIGURE 3 in Rhinonyssus nenecoi sp. nov. (Mesostigmata: Rhinonyssidae); a new nasal mite from Daption capense (Procellariiformes: Procellariidae)
FIGURE 3. Ventral view of Rhinonyssus nenecoi sp. nov. female.
FIGURE 2 in Rhinonyssus nenecoi sp. nov. (Mesostigmata: Rhinonyssidae); a new nasal mite from Daption capense (Procellariiformes: Procellariidae)
FIGURE 2. Dorsal view of Rhinonyssus nenecoi sp. nov. female.
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.