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FIGURES 79. Balkanopetalum beskovi Strasser. Figs. 78 in Systematics, phylogeny and biogeography of genus Balkanopetalum Verhoeff, 1926 (Diplopoda: Callipodida: Schizopetalidae)
FIGURES 79. Balkanopetalum beskovi Strasser. Figs. 78. Male gonopods, mesal (Fig. 7) and lateral (Fig. 8) views. Cx Coxa; ACxPr Anterior coxal process; PCxPr Posterior coxal process; Fe Femoroid; BT Basal tooth; DPr Distal process; OP Ovoid plate; ST Solenomerite; SG Seminal groove. Fig. 9. Coxa, trochanter, prefemur and femur of male 7th legpair. Cx Coxa; PFe Prefemur; Fe Femur.
FIGURES 1012 in Systematics, phylogeny and biogeography of genus Balkanopetalum Verhoeff, 1926 (Diplopoda: Callipodida: Schizopetalidae)
FIGURES 1012. Balkanopetalum petrovi sp.n. Figs. 1011. Male gonopods, mesal (Fig. 10) and lateral (Fig. 11) views. Cx Coxa; ACxPr Anterior coxal process; PCxPr Posterior coxal process; Fe Femoroid; FePr Femoroidal process; DPr Distal process; OP Ovoid plate; ST Solenomerite; SG Seminal groove. Fig. 12. Coxa, trochanter, prefemur and femur of male 7th legpair. Cx Coxa; PFe Prefemur; Fe Femur.
FIGURES 46. Balkanopetalum rhodopinum Verhoeff. Figs. 45 in Systematics, phylogeny and biogeography of genus Balkanopetalum Verhoeff, 1926 (Diplopoda: Callipodida: Schizopetalidae)
FIGURES 46. Balkanopetalum rhodopinum Verhoeff. Figs. 45. Male gonopods, mesal (Fig. 4) and lateral (Fig. 5) views. Cx Coxa; ACxPr Anterior coxal process; PCxPr Posterior coxal process; Fe Femoroid; SubDPr Subdistal process; DPr Distal process; OP Ovoid plate; ST Solenomerite; SG Seminal groove. Fig. 6. Coxa, trochanter, prefemur and femur of male 7th legpair. Cx Coxa; PFe Prefemur; Fe Femur; PS Posterior swelling of prefemur.
FIGURES 1315 in Systematics, phylogeny and biogeography of genus Balkanopetalum Verhoeff, 1926 (Diplopoda: Callipodida: Schizopetalidae)
FIGURES 1315. Balkanopetalum bulgaricum sp.n. Figs. 1314. Male gonopods, mesal (Fig. 13) and lateral (Fig. 14) view. Cx Coxa; ACxPr Anterior coxal processes; SubACxPr Subanterior coxal process; PCxPr Posterior coxal process; Fe Femoroid; FePr Femoroidal process; DPr Distal process; OP Ovoid plate; ST Solenomerite; SG Seminal groove; DProm Distal prominence of solenomerite. Fig. 15. Coxa, trochanter, prefemur and femur of male 7th legpair. Cx Coxa; CxMP Coxal mesal prominence; Tr Trochanter; PFe Prefemur; Fe Femur.
FIGURES 1619 in Systematics, phylogeny and biogeography of genus Balkanopetalum Verhoeff, 1926 (Diplopoda: Callipodida: Schizopetalidae)
FIGURES 1619. Balkanopetalum graecum sp.n. Figs. 1617. Male gonopods, mesal (Fig. 16) and lateral (Fig. 17) views. Cx Coxa; ACxPr Anterior coxal process; PCxPr Posterior coxal process; Fe Femoroid; DPr Distal process; OP Ovoid plate; ST Solenomerite; SG Seminal groove. Fig. 18. Apical part of the gonopod (solenomerite and the distal process). DPr Distal process; T Tooth; ST Solenomerite; SG Seminal groove. Fig. 19. Coxa, trochanter, prefemur and femur of male 7th legpair. Cx Coxa; Tr Trochanter; PFe Prefemur; Fe Femur.
FIGURE 13. Balkanopetalum armatum Verhoeff. Figs. 12 in Systematics, phylogeny and biogeography of genus Balkanopetalum Verhoeff, 1926 (Diplopoda: Callipodida: Schizopetalidae)
FIGURE 13. Balkanopetalum armatum Verhoeff. Figs. 12. Male gonopods, mesal (Fig. 1) and lateral (Fig. 2) views. Cx Coxa; ACxPr Anterior coxal process; SubACxPr Subanterior coxal process; PCxPr Posterior coxal process; Fe Femoroid; FePr Femoroidal process; OP Ovoid plate; DPr Distal process; ST Solenomerite; SG Seminal groove. Fig. 3. Coxa, trochanter, prefemur and femur of male 7th legpair. Cx Coxa; CxMInc Coxal mesal incision; PFe Prefemur; Fe Femur.
Data from: Systematic revision of the pocket gopher genus Orthogeomys
Pocket gophers of the genus Orthogeomys show unusually high morphological and ecological diversity compared to other genera in the family Geomyidae. Whereas this diverse group once was divided into 3 genera (Merriam 1895), a revision by Russell (1968) recognized only Orthogeomys, with Merriam's original genera relegated to subgeneric status as Heterogeomys, Macrogeomys, and Orthogeomys. Recent studies have called into question the monophyly of Orthogeomys, as well as the validity of 4 currently recognized Orthogeomys species. To date, the taxonomic validity of only 1 of these species has been verified (Hafner et al. 2014). In this analysis, the first to include all 11 recognized species of the genus, we examine 3 mitochondrial and 2 nuclear gene sequences (4,352 base pairs) and analyze cranial morphology to explore relationships within the genus. Our data support a taxonomic revision that restricts the genus Orthogeomys to a single species (O. grandis) and combines the subgenera Heterogeomys and Macrogeomys into the resurrected genus, Heterogeomys (7 species). In addition, 3 currently recognized species of Orthogeomys are synonymized as follows: O. cuniculus with O. grandis; H. thaeleri with H. dariensis; and H. matagalpae with H. cherriei. A synonymy and a key to the species of the genera Orthogeomys and Heterogeomys are provided.
Data from: Early Triassic benthic invertebrates from the Great Bank of Guizhou, South China: systematic palaeontology and palaeobiology
To further our understanding on the evolution, selectivity, and ecological composition of marine communities following the latest Permian mass extinction, new collections from underrepresented regions in the immediate extinction aftermath are required. Here, we provide new systematic data and the first palaeobiological account of the benthic invertebrate community from the Great Bank of Guizhou, South China. We systematically describe 3 brachiopod species, 26 bivalve species, 11 gastropod species, 1 microconchid, and 1 crinoid species. The descriptions include five new species; two bivalve species (Hoernesia? danisae, Atomodesma? hautmanni) and three gastropod species (Donaldina erwini, Cossmannina alfischeri, and Vernelia samae). This is the most species-rich benthic community known so far from the extinction aftermath, which is typically characterised by a high proportion of Permian holdover genera and cosmopolitan taxa. Taxonomically, this community is different from coeval faunas with dissimilarity values > 60%. Ecologically, however, this fauna is similar to faunas from the Dolomites (Italy), and East Greenland. This new data, therefore, suggests that the lower Griesbachian invertebrate faunas were taxonomically heterogeneous, whereas ecologically they were relatively homogenous. The marine community on the Great Bank of Guizhou records genera that survived the mass extinction event with some, but not all, recording a size reduction, i.e., the Lilliput effect. The absence of large body fossils and the preferential survival of small species suggest that the mass extinction event was size-selective.
Data from: Patagonian Eocene Archaeopithecidae Ameghino, 1897 (Notoungulata): systematic revision, phylogeny and biostratigraphy
The Archaeopithecidae is a very poorly known group of native ungulates from the Eocene of Patagonia (Argentina), whose alpha taxonomy has remained obscure since Ameghino's times. It is traditionally considered as a family representative of the Casamayoran (middle Eocene) South American Land Mammal Age and it is thought to be morphologically close to the notopithecids. After studying more than 200 specimens from several institutions, including all the type specimens, a taxonomic overestimation is established. Out of the six species considered originally as archaeopithecids, Archaeopithecus rogeri is here recognized as the only valid name and species; subsequent synonymies are proposed and previous taxonomic hypotheses discarded. This exhaustive revision has permitted improving the knowledge of A. rogeri and, for the first time, it has revealed many craniodental characters which allow amending its diagnosis and differentiating this taxon from other Eocene notoungulates. Archaeopithecus rogeri is a small-sized taxon characterized by its complete and rooted dentition, which is relatively higher than that of other contemporaneous short-crowned notoungulates and shows ontogenetic variation in size and morphology. The body mass range of A. rogeri (1.4–2.5 kg) is comparable to those of notopithecids and some small hegetotheriids. The phylogenetic analysis shows A. rogeri is not directly related to any family within Notoungulata, appearing into a polytomy, as a basal taxon of typotherians. The biochronological range of A. rogeri is adjusted to Vacan (middle Eocene) through the Barrancan subages (late middle Eocene); older (Riochican, late early Eocene) and younger (Mustersan, late Eocene) records remain to be confirmed.
FIGURE 1 in Rhinocricidae Systematics II: A species catalog of the Rhinocricidae (Diplopoda: Spirobolida) with synonymies
FIGURE 1. Acladocricus sp. Philippines: Negro, Negros Oriental, Danao Lake, Barangay Danay, Mt. Mahilum N 9° 21' 34" E 123° 10' 47" (Gerdeman & Garcia, coll, 1 Jul 2000) deposited in the FMNH collection. A, Lateral view of head, segment 1 (collum), and segments 2–8; B, Posterior view of posterior gonopod (cxpd, coxopodite; tlpd, telopodite); C, Posterior view of anterior gonopod; D, Anterior view of anterior gonopod.
Obesity and the Receipt of Influenza and Pneumococcal Vaccination: a Systematic Review and Meta-analysis dataset
<p>Meta-analysis dataset from <strong>Obesity and the Receipt of Influenza and Pneumococcal Vaccination: a Systematic Review and Meta-analysis</strong>, in press at BMC Obesity</p>
FIGURE 39 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 39. Map of South America, showing collecting sites for the Neotropical Styringomyia specimens examined in this work. Points may refer to more than one site in close proximity.
FIGURE 38 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 38. Phylogenetic relationships of Neotropical Styringomyia species obtained from analysis of the data matrix in Table III. The number refers to the characters and their states (in parenthesis). Autapomorphic and ambiguously optimized characters omitted (see text for details).
FIGURE 37 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 37. Styringomyia manauara sp. n., male paratype. Threedimensional structure of terminalia. Abbreviations: aed, aedeagus; goncx, gonocoxite; gonst, gonostylus; S9, ninth sternite; T10, tenth tergite.
FIGURE 36 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 36. Styringomyia amazonica sp. n., holotype. Threedimensional structure of terminalia. Abbreviations: aed, aedeagus; goncx, gonocoxite; gonst, gonostylus; S9, ninth sternite.
FIGURE 35 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 35. Styringomyia amazonica sp. n., male specimen from Ecuador (Francisco de Orellana). Aspect of part of terminalia. Specimen on slide. Abbreviations: goncx, gonocoxite; gonst, gonostylus.
FIGURE 27 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 27. Styringomyia mystica, male specimen from Peru (Madre de Dios). Threedimensional structure of terminalia, lateral view. The arrow indicates the short and curved hair at the small protuberance near apex of ventral margin of gonocoxite. Abbreviations: aed sh, aedeagal sheath; goncx, gonocoxite; gonst, gonostylus; S9, ninth sternite; T10, tenth tergite.
FIGURE 34 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 34. Styringomyia maya sp. n., holotype. Threedimensional structure of terminalia, dorsolateral view. Abbreviations: aed, aedeagus; goncx, gonocoxite; gonst, gonostylus; S9, ninth sternite, vb, ventral branches of aedeagal sheath.
FIGURE 32 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURE 32. Styringomyia simplex, male specimen from Brazil (Mato Grosso, Diamantino). Threedimensional structure of terminalia, dorsolateral view. Abbreviations: aed, aedeagus; aed sh, aedeagal sheath; goncx, gonocoxite; gonst, gonostylus; S9, ninth sternite, vb, ventral branches of aedeagal sheath.
FIGURES 1013 in Systematics of the Neotropical species of Styringomyia Loew (Diptera: Tipulomorpha: Limoniidae)
FIGURES 1013. Gonostylus of Neotropical Styringomyia species. Lateral and medial faces, respectively, on left and right sides of each figure. 10. S. mystica, holotype. 11. S. youngi sp. n., paratype. 12. S. atlantica sp. n., holotype. 13. S. paulista, holotype. The numbers refers to the homology system applied to the extensions of the gonostylus.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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OpenNeuro
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