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FIGURE 4 in New Insights Into The Systematics Of Parasitiformes (Acarina) With New Species From South America
FIGURE 4: Pyrosejus verticis n. sp. Female. a – Venter; b – Tectum, 34 µm wide; c – Chelicera, 35 µm long.
FIGURE 2 in New Insights Into The Systematics Of Parasitiformes (Acarina) With New Species From South America
FIGURE 2: Cladogram of the subgroups of Trigynaspida Camin et Gorirossi, 1955, synapomorphies (1 – 4) and autapomorphies (5 – 9), characteristics for the Super-families of Trigynaspida; our present results confirm previous findings:
FIGURE 1 in New Insights Into The Systematics Of Parasitiformes (Acarina) With New Species From South America
FIGURE 1: Cladogram of the groups of Parasitiformes based on synapomorphies explained by Karg & Schorlemmer (2008); the subgroups of this taxon are added under the Uropodina: Uropodoidea, Polyaspidoidea and Thinozerconoidea.
FIGURE 7 in Reconstruction Of Stem Species Pattern As A Strategy Towards Integrated Phylogenetic Systematics And Taxonomy, Applied To Early-Derivative Poronota (Oribatida)
FIGURE 7: Cladogram with selected characters and species of Oribatellidae. – Explanations see figure 4.
FIGURE 6 in Reconstruction Of Stem Species Pattern As A Strategy Towards Integrated Phylogenetic Systematics And Taxonomy, Applied To Early-Derivative Poronota (Oribatida)
FIGURE 6: Cladogram with selected characters and species of Achipteriidae. – Explanations see figure 4.
FIGURE 4 in Reconstruction Of Stem Species Pattern As A Strategy Towards Integrated Phylogenetic Systematics And Taxonomy, Applied To Early-Derivative Poronota (Oribatida)
FIGURE 4: Cladogram with stem species (I-X) and their characteristic apomorphies, plesiomorphies and regressive plesiomorphies of the families of early derivative Poronota. – Explanation of codes in table 1; – 'div.': diverse more plesiomorphies listed in table 2.
FIGURE 5 in Reconstruction Of Stem Species Pattern As A Strategy Towards Integrated Phylogenetic Systematics And Taxonomy, Applied To Early-Derivative Poronota (Oribatida)
FIGURE 5: Cladogram with selected characters and species of Eupelops and Peloptulus. – Explanations see figure 4.
FIGURE 3 in Reconstruction Of Stem Species Pattern As A Strategy Towards Integrated Phylogenetic Systematics And Taxonomy, Applied To Early-Derivative Poronota (Oribatida)
FIGURE 3: Notogastral characters of Poronota. (a) – sacculus in transection and dorsal aspect, schematic; (b) – porose area in transection and dorsal aspect, schematic; (c) – setation pattern of the unideficient type (15 pairs); (d) – setation pattern of the multideficient type (10 pairs); (e) – porose areas (Aa, A1-A3) of the octotaxic system on a multideficient notogaster; (f) – pattern of porose areas and setae of the Eupelops type.
FIGURE 1 in Reconstruction Of Stem Species Pattern As A Strategy Towards Integrated Phylogenetic Systematics And Taxonomy, Applied To Early-Derivative Poronota (Oribatida)
FIGURE 1: Illustration on the stem lineage concept. A, B, C: related taxa; – y, z: hypothetical stem species; C1: plesiomorphic state of character 1; – C1a: apomorphic state of character 1.
FIGURE 2 in Reconstruction Of Stem Species Pattern As A Strategy Towards Integrated Phylogenetic Systematics And Taxonomy, Applied To Early-Derivative Poronota (Oribatida)
FIGURE 2: (a) – Habitus of an achipteriid nymph with plicate integument; (b-o) – different types of the lamellar complex: (b) – short basal type of a lamellar complex of Poronota, schematic; (c) – enlarged type, schematic; (d) – basal type in Austrachipteria, A. grandis; (e) – Achipteria type; (f) – Cerachipteria type; (g) – Oribatella reticulata, with translamella; (h) – Oribatella quadricornuta, with median dens; (i) – Anachipteria sacculifera; (k) – Unduloribates undulatus; (l) – Propelops canadensis; (m) – Peloptulus type; (n) – Eupelops type; (o) – Tegoribates type. (a: after Seniczak 1977; d: after Hammer 1967; i: after Root et al. 2008; l: after Norton and Behan-Pelletier 1986; f-h, k, m-o: after Weigmann 2006)
Fig. 62 in Postcranial Osteology Of Azendohsaurus Madagaskarensis (?Middle To Upper Triassic, Isalo Group, Madagascar) And Its Systematic Position Among Stem Archosaur Reptiles
Fig. 62. Right fibula of Azendohsaurus madagaskarensis (FMNH PR 3813) in (A) proximal, (B) lateral,
Fig. 74 in Postcranial Osteology Of Azendohsaurus Madagaskarensis (?Middle To Upper Triassic, Isalo Group, Madagascar) And Its Systematic Position Among Stem Archosaur Reptiles
Fig. 74. The relationships of Allokotosauria found in the analyses of this study.
Fig. 8 in Postcranial Osteology Of Azendohsaurus Madagaskarensis (?Middle To Upper Triassic, Isalo Group, Madagascar) And Its Systematic Position Among Stem Archosaur Reptiles
Fig. 8. The reconstructed vertebral column of Azendohsaurus madagaskarensis.
Fig. 6 in Postcranial Osteology Of Azendohsaurus Madagaskarensis (?Middle To Upper Triassic, Isalo Group, Madagascar) And Its Systematic Position Among Stem Archosaur Reptiles
Fig. 6. Elements present in the holotype of Azendohsaurus madagaskarensis (UA 7-20-99-653).
Fig. 2 in Postcranial Osteology Of Azendohsaurus Madagaskarensis (?Middle To Upper Triassic, Isalo Group, Madagascar) And Its Systematic Position Among Stem Archosaur Reptiles
Fig. 2. Map of the location of the holotype locality of Azendohsaurus madagaskarensis.
Fig. 1 in Postcranial Osteology Of Azendohsaurus Madagaskarensis (?Middle To Upper Triassic, Isalo Group, Madagascar) And Its Systematic Position Among Stem Archosaur Reptiles
Fig. 1. Skeletal reconstruction of Azendohsaurus madagaskarensis.
Fig. 25. Konetontli juxtlahuaca, n in Systematic Revision Of The North American Syntropine Vaejovid Scorpions With A Subaculear Tubercle, Konetontli González-Santillán And Prendini, 2013
Fig. 25. Konetontli juxtlahuaca, n. sp., habitus. A, B. Holotype ³ (CNAN T0889). C, D. Paratype ♀
Fig. 35 in Systematic Revision Of The North American Syntropine Vaejovid Scorpions With A Subaculear Tubercle, Konetontli González-Santillán And Prendini, 2013
Fig. 35. Konetontli zihuatanejensis (Baldazo-Monsivaiz, 2003), comb. nov., habitus. A, B. neotype ³
Fig. 4 in Systematic Revision Of The North American Syntropine Vaejovid Scorpions With A Subaculear Tubercle, Konetontli González-Santillán And Prendini, 2013
Fig. 4. Map of northwestern Mexico, plotting known locality records for Konetontli pattersoni
Fig. 33 in Systematic Revision Of The North American Syntropine Vaejovid Scorpions With A Subaculear Tubercle, Konetontli González-Santillán And Prendini, 2013
Fig. 33. Konetontli pattersoni (Williams and Haradon, 1980), habitus. A, B. ³ (AMNH). C, D. ♀
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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.