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FIGURE 10 in New species and evolution of the foraminiferal family Janischewskinidae in the middle-upper Mississippian of South China
FIGURE 10. Illustrations of the new species Bibradya maxima sp. nov. and Bibradya subita sp. nov. A‒E. Bibradya maxima sp. nov. A. HPU-KC75-389, B. HPU-KC75-392, C. HPU-SDB155-529, D. HPU-KC87-4 (holotype), E. HPU-KC75-41. F‒I. Bibradya subita sp. nov., F. HPU-SDB182-33, G. HPU-SDB184-301 (holotype), H. HPU-KC81-7, I. HPU-SDB173-533. (Scale bar equals 1 mm).
FIGURE 4 in New species and evolution of the foraminiferal family Janischewskinidae in the middle-upper Mississippian of South China
FIGURE 4. Selected primitive Janischewskinidae with granular wall or with some agglutinated grains compared with a Mstiniidae. A. Bibradya grandis Strank, 1983, DPM-PC-TQ56-1250, Urswick Limestone Formation, Trowbarrow Quarry (N. England), late Asbian (late Viséan). Microgranular wall with rare agglutinated large grains in the third and sixth septa from the aperture. B. Bibradya moldensis (Strank in Somerville and Strank, 1984), HPU-SBD179-208, Shuidong section, Protvian (late Serpukhovian). Note the granular wall, rarely with small agglutinated grains. C. Holkeria avonensis (Conil and Longerstaey in Conil et al., 1980), DPM-PC-BS68-955, Park Limestone Formation, Barker Scar section (N. England), Holkerian (middle Viséan). Granular wall throughout the test with some large agglutinated grains in septa and outer wall. D. Cribrospira pansa Conil and Lys, 1965, DPM-PC-LF26-2162, Dalton Formation, Low Frith section (N. England), 'upper' Arundian (lower Viséan). Microgranular wall in the inner whorls with more granular aspect in the final whorls and with common small agglutinated grains. E. Cribrospira pansa, DPM-PC-WS36-1587, Dalton Formation, White Scar Quarry (N. England), 'top' Arundian (middle Viséan). Microgranular wall throughout the test, with large agglutinated grains in the wall of the final chambers. F. Bibradya inflata Strank, 1983, DPM-PC-TQ84- 1954, Urswick Limestone Formation, Trowbarrow Quarry (N. England), late Asbian (upper Viséan). Microgranular wall throughout the test with some small agglutinated grains. (Scale bar equals 0.5 mm). [DPM- corresponds to the Palaeontological Collection in the Palaeontology Department of the Universidad Complutense de Madrid, PC- to the P. Cózar's collection, the following number corresponds to the number of thin-section (e.g., TQ56, WS36, …), and the final number corresponds to the number of specimens].
FIGURE 9 in New species and evolution of the foraminiferal family Janischewskinidae in the middle-upper Mississippian of South China
FIGURE 9. Illustrations of the new species Bibradya primitiva sp. nov. A. HPU-KC81-399 (holotype). B. HPU-SDB179-291. C. HPU-SDB191-217. D. HPU-KC37-341. E. HPU-SDB176-6. F. HPU-SDB180-19. (Scale bar equals 0.5 mm).
FIGURE 8 in New species and evolution of the foraminiferal family Janischewskinidae in the middle-upper Mississippian of South China
FIGURE 8. Illustrations of Bibradya tenella (Ye et al., 1987) and the new species Bibradya densicamerata sp. nov. A‒F. Bibradya densicamerata sp. nov. A. HPU-KC90-406, B. HPU-KC75-488 (holotype), C. HPU-KC75-510, D. HPU-KC75-380, E. HPU-SDB155-188, F. HPU-KC75-503. G‒I. Bibradya tenella (Ye et al., 1987). G. HPU-SDB179-27, H. HPU-SDB182-7, I. HPU-SDB184-11. (Scale bar equals 1 mm).
FIGURE 7 in New species and evolution of the foraminiferal family Janischewskinidae in the middle-upper Mississippian of South China
FIGURE 7. Illustrations of the new species Cribrospira evoluta sp. nov. A. HPU-KC58-7 (holotype), B. HPU-KC77-1, C. HPU-SDB155-2, D. HPU-SDB181-4, E. HPU-SDB191-215. (Scale bar equals 1 mm).
Association between family income to poverty ratio and nocturia
<p>Data from the National Health and Nutrition Examination Survey (NHANES) in 2005-2010, including 6,662 adults aged 20 or older, were utilized for this cross-sectional study. The baseline data was used to display the distribution of each characteristic visually. Multiple linear regression and smooth curve fitting were used to study the linear and non-linear correlations between PIR and nocturia. Subgroup analysis and interaction tests were conducted to examine the stability of intergroup relationships.</p>
Figures 2–7. Habitus and aedeagi. 2-3 in Contributions to the systematics of the family Buprestidae (Coleoptera) by the first description of male external genital organ and illustrations of six species from Ankara province
Figures 2–7. Habitus and aedeagi. 2-3. Acmaeodera (s.str.) flavolineata, 4–5. Acmaeoderella (Euacmaeoderella) villosula, 6–7. A. (E.) gibbulosa. A–B) Dorsal photograph and drawing of aedeagus. C–D) Lateral photograph and drawing of aedeagus.
Figures 8–13. Habitus and aedeagi. 8–9. Capnodis carbonaria, 10–11. Perotis cuprata, 12–13 in Contributions to the systematics of the family Buprestidae (Coleoptera) by the first description of male external genital organ and illustrations of six species from Ankara province
Figures 8–13. Habitus and aedeagi. 8–9. Capnodis carbonaria, 10–11. Perotis cuprata, 12–13. Anthaxia (Cratomerus) eugeniae. A–B) Dorsal photograph and drawing of aedeagus. C–D) Lateral photograph and drawing of aedeagus.
Figure 1 in Contributions to the systematics of the family Buprestidae (Coleoptera) by the first description of male external genital organ and illustrations of six species from Ankara province
Figure 1. The localities of the examined species collected in Ankara province (the map designed with ArcGIS Pro v.2.2).
F I G U R E 1 in Sharks checking in to the sponge hotel: First internal use of sponges of the genus Agelas and family Irciniidae by banded sand catsharks Atelomycterus fasciatus
F I G U R E 1 Location of Gascoyne Marine Park (MP) (orange boundary), Ningaloo MP (white boundary), Dampier MP (blue boundary), Montebello MP (yellow boundary), and Eighty Mile Beach MP (black boundary) off Western Australia.
Fig. 4 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 4. Forewing of anthracoptilid insect Mesoptilus carpenteri sp. nov. from Artinskian of Elmo, Oklahoma, USA, holotype MCZ 11253, photograph (A), line drawing (B).
Fig. 7 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 7. Anthracoptilid insect Westphaloptilus gallicus sp. nov. from Bashkirian of Bruay-en-Artois, Department of North, France, holotype Bruay F.5 BR27–28, photograph of imprint (A), photograph of counterimprint (B). 1A, first anal vein; CuA/P, cubitus anterior/posterior; M, indistinguishable polarity of median vein; RA/P, radius anterior/posterior; ScA/P, subcosta anterior/posterior.
Fig. 2 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 2. Forewing of anthracoptilid insect Strephocladus permianus sp. nov. from Guadalupian of Lodève Basin, France, holotype Ld LAP 310A, B, photographs of imprint and couterimprint (A, B), line drawing (C).
Fig. 3 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 3. Forewing of anthracoptilid insect Mesoptilus dolloi (Lameere, 1917) from Stephanian of Commentry Basin, France, holotype R51159, photograph A), line drawing (B).
Fig. 9 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 9. Blaberid blattoid Pilema thoracica (Walker, 1868) Recent, specimen MNHN, Paris coll., Steynsburg, South Africa, R. Ellenberger leg, habitus (A), forewing basal part (B) with marked c.f., claval furrow; CuA/P, cubitus anterior/posterior.
Fig. 1 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 1. Forewing of anthracoptilid insect Anthracoptilus perrieri (Meunier, 1909) from Stephanian of Commentry Basin, France, holotype R51112, photograph (A), line drawing (B).
Fig. 8 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 8. Position of claval furrow on forewing (marked by arrows). A. Homocladus grandis Carpenter, 1966 from Artinskian of Elmo, Kansas, USA, paratype MCZ 5875. B. Paracladus retardus Carpenter, 1966 from Artinskian of Elmo, Kansas, USA, holotype MCZ 5877. CuA/P, cubitus anterior/posterior.
Fig. 6 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 6. Forewing of anthracoptilid insect Westphaloptilus gallicus sp. nov. from Westphalian of Bruay-en-Artois, Department of North, France, holotype Bruay F.5 BR27–28.
Fig. 5 in Revision of the enigmatic insect family Anthracoptilidae enlightens the evolution of Palaeozoic stem-dictyopterans
Fig. 5. Forewing of anthracoptilid insect Pseudomesoptilus sellardsi (Lameere, 1917) comb. nov. from Stephanian of Commentry Basin, France, holotype R51350, photograph (A), line drawing (B).
FIGURE 5 in New species and evolution of the foraminiferal family Janischewskinidae in the middle-upper Mississippian of South China
FIGURE 5. Typical representatives of the genus Janischewskina recorded in South China. A‒B. Janischewskina minuscularia? (Ganelina, 1956), HPU-SDB160-278, DPM-PC-SDB143-181. C. Janischewskina rovnensis (Ganelina, 1956), HPU-KC45-7. D. Janischewskina typica Mikhailov, 1939, HPU-KC107-3. E. Janischewskina isotovae Lebedeva in Grozdilova et al., 1975, HPU-KCT4-5. F. Janischewskina calceus (Ganelina, 1956), HPU-SDB160-277. G. Janischewskina delicata (Malakhova, 1956), HPU-KC75-378. H. Janischewskina gibshmanae Cózar et al. 2016, HPU-KC104-3. I. Janischewskina adtarusia Gibshman, Zaytseva and Stepanova in Gibshman et al., 2020, HPU-SDB283-1. (Scale bar equals 1 mm). [HPU- corresponds to the Henan polytechnic University collections in the School of Resources and Environment, KC or SDB to the Kacai or Shuidong sections, respectively, followed by the number of the thin-section, and the final number corresponds to the number of specimens].
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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.