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Fig. 1 in Nest support plants and breeding season of two ibis (Theristicus) species in the Pantanal wetland, Brazil
Fig. 1. Municipalities in which records (photographs) with evidences of breeding activities of two ibis species (Theristicus caerulescens and T. caudatus) were obtained by us and citizens between 2007 and 2019 in the Brazilian Pantanal (gray area). Taquari river divides this Brazilian wetland in two portions: that of Mato Grosso state (where Poconé is located) and that of Mato Grosso do Sul state (where Corumbá, Miranda and Aquidauana are located).
Fig. 2 in Nest support plants and breeding season of two ibis (Theristicus) species in the Pantanal wetland, Brazil
Fig. 2. Seasonal occurrence of records of breeding activities of two ibis species (Theristicus caerulescens and T. caudatus) in the Brazilian Pantanal wetland, based on records (photographs) obtained during our field observations, and bY citizens, between 2007 and 2019. Data bY citizens was gathered in the WikiAves and eBird databases in March 2020. The horizontal bars in light and dark blue colors indicate the length of the dry and rainy seasons in the Pantanal, respectively.
Fig. 9 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 9. Phylogenetic relationships of Pliokogia apenninica gen. et sp. nov. with other physeteroids. A. Strict consensus tree. B. 50% majority-rule consensus tree. Acrophyseter sp. refers to MUSM 2182, a partial skull from the site of Cerro Los Quesos (upper Miocene, Pisco Formation, Peru); Scaphokogiinae sp. refers to MUSM 3291 and MUSM 3405, two partial skulls from the sites of Cerro Los Quesos and Cerro Blanco, respectively (upper Miocene, Pisco Formation, Peru), representing a new form of Kogiidae sharing similarities with Scaphokogia cochlearis (see the SOM file for further details). Extinct genera and species are marked by a dagger (†).
Fig. 7 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 7. Detached tooth of kogiid sperm whale Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603, holotype), from the lower Pliocene of Sant'Andrea Bagni (Northern Apennines, northern Italy), in four different views (A1–A4). The dashed line denotes the extent of the wear facet.
Fig. 8 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 8. Postcranial bones of the kogiid sperm whale Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603, holotype), from the lower Pliocene of Sant'Andrea Bagni (Northern Apennines, northern Italy). A. Fragmentary right rib in dorsal (A1), posterior (A2), and ventral (A3) views. B. Fragmentary thoracic vertebra in anterior (B1), posterior (B2), and dorsal (B3) views.
Fig. 5 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 5. Cranium of the kogiid sperm whale Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603, holotype), from the lower Pliocene of Sant'Andrea Bagni (Northern Apennines, northern Italy); in anterodorsal (A1) and right anterodorsolateral (A2) views.
Fig. 6 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 6. Close-up of the dorsal surface of the cranium of the kogiid sperm whale Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603, holotype), from the lower Pliocene of Sant'Andrea Bagni (Northern Apennines, northern Italy), showing the shark bite marks that affect the right maxilla (arrows).
Fig. 4 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 4. Cranium, in lateral view, of the kogiid sperm whale Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603, holotype), from the lower Pliocene of Sant'Andrea Bagni (Northern Apennines, northern Italy). Photograph (A1), explanatory drawing (A2). The grey vertical stripes denote abraded or broken areas. Dashed line for approximating the position of the frontal-lacrimojugal complex suture.
Fig. 3 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 3. Cranium, in ventral view, of the kogiid sperm whale Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603, holotype), from the lower Pliocene of Sant'Andrea Bagni (Northern Apennines, northern Italy). Photograph (A1), explanatory drawing (A2). The black-shaded areas correspond to openings in the skull. The grey vertical stripes denote abraded or broken areas. Dashed lines for approximating the position of several sutures and borders.
Fig. 2 in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 2. Cranium, in dorsal view, of the kogiid sperm whale Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603, holotype), from the lower Pliocene of Sant'Andrea Bagni (Northern Apennines, northern Italy). Photograph (A1), explanatory drawing (A2). The black areas correspond to openings in the skull. The grey vertical stripes denote abraded or broken areas. Dashed lines are for the sagittal vomerine sulcus and the approximate border of the supracranial basin, premaxillary fossa, and peripheral maxillary fossa.
Fig. 1. A in A new kogiid sperm whale from northern Italy supports psychrospheric conditions in the early Pliocene Mediterranean Sea
Fig. 1. A. Geographical position (star) of the lower Pliocene site of Sant'Andrea Bagni, Northern Apennines, northern Italy, where the holotype of Pliokogia apenninica gen. et sp. nov. (MSNUP I-17603) was discovered (image from Google Earth). B. Schematic stratigraphic section of the Pliocene succession exposed at Sant'Andrea Bagni (redrawn and modified after Channel et al. 1994).
Fig. 3 in New basal synapsid supports Laurasian origin for therapsids
Fig. 3. Phylogeny of Raranimus among basal therapsids. Tree (tree length = 169, consistency index = 0.54, retention index=0.75) is the strict consensus tree of four shortest trees resulting from our PAUP analysis (version 4.0b10, branch and bound search, with unordered multistate characters) of 71 cranial and dental characters. Numbers on tree indicate decay index of the respective clade. Shaded area indicates "Olson's Gap". Abbreviations: Ca, Capitanian; Ch, Changhsingian; Ma, Million years; PEN, Pennsylvanian; Ro, Roadian; W, Wordian; Wu, Wuchiapingian.
Fig. 2 in New basal synapsid supports Laurasian origin for therapsids
Fig. 2. Partial skull of the basal therapsid Raranimus dashankouensis gen. et sp. nov., IVPP V15424 (holotype) from Middle Permian Xidagou Formation, Dashankou, Xumen, Gansu, China in right lateral (A) and left lateral (B) views.. Photographs (A1, B1) and explanatory drawings (A2, B2). Abbreviations: c1–2, canine 1–2; ch, choana; en, external naris; i1–6, incisor 1–6; M, maxilla; N, nasal; p1–3, postcanine 1–3; Pf, prefrontal; Pl, palatine; Pm, premaxilla; Pt, pterygoid; rc, replacement canine; ri, replacement incisor; Sm, septomaxilla; sp, small precanine maxillary tooth; V, vomer.
Fig. 1 in New basal synapsid supports Laurasian origin for therapsids
Fig. 1. Partial skull of the basal therapsid Raranimus dashankouensis gen. et sp. nov., IVPP V15424 (holotype) from Middle Permian Xidagou Formation, Dashankou, Xumen, Gansu, China, in dorsal (A) and ventral (B) views. Photographs (A1, B1) and explanatory drawings (A2, B2). Abbreviations: c1–2, canine 1–2; ch, choana; en, external naris; i1–6, incisor 1–6; M, maxilla; N, nasal; p1–3, postcanine 1–3; Pf, prefrontal; Pl, palatine; Pm, premaxilla; Pt, pterygoid; rc, replacement canine; ri, replacement incisor; Sm, septomaxilla; sp, small precanine maxillary tooth; V, vomer.
Figure 2 in Paratylenchus ilicis n. sp. (Nematoda: Paratylenchinae) Associated with Holly from the Netherlands and New Taxonomical and Phylogenetic Support for the Synonymization of Cacopaurus with Paratylenchus
Figure 2: Light and SEM images of PaRatyleNChUS iliCiS n. sp. paratype juveniles (J2) and males. A, E: eN FaCe of J2; B–D: Anterior regions showing stylet and pharynx of J2; F–I: Tail regions showing characteristic finger-like tip of J2; J: Total bodies of J2; K: Total bodies of males; L–M: Anterior regions of males showing absence of stylet; N–O: Tail regions showing spicules. SEM: scanning electron microscopy.
Figure 1 in Paratylenchus ilicis n. sp. (Nematoda: Paratylenchinae) Associated with Holly from the Netherlands and New Taxonomical and Phylogenetic Support for the Synonymization of Cacopaurus with Paratylenchus
Figure 1: Light and SEM images of PaRatyleNChUS iliCiS n. sp. paratype females. A: EN FaCe; B, C, F: Anterior regions showing cuticular ornamentation, stylet, pharynx, and SE pore position; D–E: Total body of (slightly) obese bodies showing major internal structures; G–M: Tail regions showing lateral field, vulva, and tail termini. SE pore: secretory-excretory pore; SEM: scanning electron microscopy.
Figure 4 in Paratylenchus ilicis n. sp. (Nematoda: Paratylenchinae) Associated with Holly from the Netherlands and New Taxonomical and Phylogenetic Support for the Synonymization of Cacopaurus with Paratylenchus
Figure 4: Phylogenetic tree generated using BI based on alignment of D2–D3 of 28S rRNA gene sequences of PaRatyleNChUS species using the GTR + G + I nucleotide substitution model. Bayesian posterior probabilities (in percentage) are given next to each node and sequences of PaRatyleNChUS iliCiS n. sp. are highlighted. BI: Bayesian inference.
Figure 6 in Paratylenchus ilicis n. sp. (Nematoda: Paratylenchinae) Associated with Holly from the Netherlands and New Taxonomical and Phylogenetic Support for the Synonymization of Cacopaurus with Paratylenchus
Figure 6: Phylogenetic tree generated using BI based on alignment of COX1 gene sequences of PaRatyleNChUS species using the GTR + G + I nucleotide substitution model. Bayesian posterior probabilities (in percentage) are given next to each node and sequences of PaRatyleNChUS iliCiS n. sp. are highlighted. BI: Bayesian inference.
Figure 3 in Paratylenchus ilicis n. sp. (Nematoda: Paratylenchinae) Associated with Holly from the Netherlands and New Taxonomical and Phylogenetic Support for the Synonymization of Cacopaurus with Paratylenchus
Figure 3: Line illustrations of PaRatyleNChUS iliCiS n. sp. paratypes. A, B, D: Total bodies showing developmental stages from juvenile (J2) to slightly obese to fully obese females; C: Anterior region of female showing stylet, pharynx, and SE pore position; E–G: Tail regions showing vulva, lateral field differentiation, tail shape, and tips of females; H: Tails of J2; I: Anterior region of J2; J: Anterior region of male; K: Posterior region of male. SE pore: secretory-excretory pore.
Figure 5 in Paratylenchus ilicis n. sp. (Nematoda: Paratylenchinae) Associated with Holly from the Netherlands and New Taxonomical and Phylogenetic Support for the Synonymization of Cacopaurus with Paratylenchus
Figure 5: Phylogenetic tree generated using BI based on alignment of ITS rRNA gene sequences of PaRatyleNChUS species using the GTR + G + I nucleotide substitution model. Bayesian posterior probabilities (in percentage) are given next to each node and sequences of PaRatyleNChUS iliCiS n. sp. are highlighted. BI: Bayesian inference.
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.