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634 results for “KING”
FIG. 12 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 12. — South America (west coast) Paralomis White,1856 species:A, P. aspera Faxon,1893, š CL 53 mm (BMNH), Coquimbo,560 m, VI.1971; B, P. phrixa, Macpherson, 1992, holotype ♀ CL 64.6 mm (USNM-259380); C, P. arae Macpherson, 2001, holotype š CL 74.5 mm (MNHN Pg 5945); D, P. otsuae Wilson, 1990, ♀ 73.4 mm (USNM-259219); E, Glyptolithodes cristatipes Faxon, 1893, ♀ CL 71.2 mm (USNM-259216); A, B, mid-branchial spines, postero-lateral view; C-E, mid-branchial region, dorsal view. Scale bars: 1 mm.
FIG. 9 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 9. — Paralomis stella Macpherson, 1988: A, B, š CL 24.5 mm (MNHN Pg-4257), Réunion Island, 350-750 m, 28.VIII.1982; C, D, holotype š 71.3 mm (MNHN Pg-4255); A, carapace, dorsal view; B, mid-branchial spines, left lateral view; C, carapace, dorsal view; D, mid-branchial tubercle, dorsal view. Scale bars: A, C, 5 mm; B, 0.5 mm; D, 1 mm.
FIG. 14 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 14. — Central Pacific Paralomis White,1856 species: A, P. seagranti Eldredge,1976, š CL 74.7 mm (MNHN Pg-4265); B, P. dawsoni Macpherson, 2001, ♀ CL 57.3 mm (MNHN Pg-4279); C, P. haigae Eldredge, 1976, š CL 49.9 mm (MNHN Pg-4276); D, P. hirtella de Saint-Laurent & Macpherson, 1997, š CL 47 mm (MNHN Pg-4662); A-D mid-branchial tubercles, dorsal view. Scale bars: 1 mm.
FIG. 1 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 1. — Terminology for describing carapace ornamentation in species of Paralomis White, 1856: spines (A) are structures which measure more than 1.5 times as high as wide at the base; tubercles (B-E) are any structures measuring less than 1.5 times high as wide at the base; within this system, tubercles can be conical (B), rounded (C), pedunculate (D) or flattened (E), and have regular (smooth) or irregular surfaces. Conical tubercles differ from rounded tubercles in that they taper towards an acute apex. Flattened tubercles are lower than 0.2 times as high as wide at the base. Numbers represent ratios.
FIG. 13 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 13. — Japan and North Pacific species of Paralomis White, 1856: A, B, P. histrix De Haan, 1844; A, ♀ CL 63.2 mm (BMNH 1985.140); B, š CL 34.9 mm (MNHN Pg 2212); C, P. japonica Balss, 1911, š CL 46.7 mm (MNHN); D, P. makarovi Hall & Thatje, 2009, š CL 23 mm (USNM-1122582); E, P. cristata Takeda & Ohta, 1979, ♀ 76.4 mm (USNM-229721); F, P. verrilli (Benedict, 1894), holotype š CL 78 mm (USNM-18537); A, B, D, mid-branchial spines, lateral view; C, E, F, mid-branchial tubercles, dorsal view. Scale bars: A, 3 mm; B, E, 2 mm; C, D, F, 1 mm.
FIG. 8 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 8. — Paralomis spinosissima Birstein & Vinogradov, 1972: A, B, ♀ CL 17.1 mm (USNM-154634), Drake's Passage, 384-394 m, IX.1963; C, D, ♀ CL 55.6 mm (USNM-231422), South Georgia, 563-598 m, V.1975; A, carapace, dorsal view; B, mid-branchial spines, dorsal view; C, carapace, dorsal view; D, branchial spines, dorso-lateral view. Scale bars: A, C, 5 mm; B, D, 1 mm.
FIG. 10 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 10. — Northern and Eastern Atlantic Paralomis White, 1856 species: A, B, P. cristulata Macpherson, 1988, holotype ♀ CL 55 mm (MNHN Pg-3427), Senegal, 650 m; C, P. bouvieri Hansen 1909, š CL 17.7 mm (USNM-231209); D, P. africana Macpherson, 1982, š CL 68.4 mm (USNM-213153); E, P. grossmani Macpherson, 1988, holotype ♀ CL 93.4 mm (USNM-228832); F, P. pectinata Macpherson, 1988, holotype ♀ CL 96.4 mm (USNM-233599); A, B, D-F, mid-branchial tubercles, dorsal view; C, carapace spines, lateral view. Scale bars: 1 mm.
FIG. 5 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 5. — Paralomis inca Haig, 1974: A, B, š CL 69 mm (image of paratype from Haig 1974), 12 miles SW of Banco de Mancora, Peru, 620 m, III.1971; C, D, ♀ CL 96 mm (USNM-259223), 7°49'00''S, 80°38'00''W, 705-735 m; A, carapace, dorsal view; B, carapace spine, lateral view; C, carapace, dorsal view; D, mid-branchial tubercle, lateral view. Scale bars: A, C, 10 mm; B, D, 1 mm.
FIG. 11 in King crabs up-close: ontogenetic changes in ornamentation in the family Lithodidae (Crustacea, Decapoda, Anomura), with a focus on the genus Paralomis
FIG. 11. — Southern Ocean Paralomis White, 1856 species: A, B, P. aculeata Henderson, 1888, holotype š CL 41 mm (BMNH 88.33), Prince Edward Islands; C, P. elongata Spiridonov, Türkay, Arntz & Thatje, 2006, ♀ CL 65 mm (collection S. Thatje, NOCS), Bouvet Island; D, P. anamerae Macpherson, 1988, ♀ CL 72 mm, MD24 Crozet Island, 655-700 m, IX.1980; E, F, P. formosa Henderson, 1888; E, paratype šCL 16.4 mm (BMNH 88.33), Rio Plata; F, š CL 72.6 mm (collection S. Thatje, NOCS), South Georgia groundfish survey; G, H, P. birsteini Macpherson, 1988, holotype ♀ CL 54.7 mm (USNM-228830); A, mid-branchial region, dorsal view; B, antero-lateral carapace, dorsal view; C, mid-branchial region, depicting significant intermoult wear on the tubercles, dorsal view; D, mid-branchial region, dorsal view; E, base of a lateral spine, showing secondary tubercles in juvenile specimen, dorsal view; F, mid-branchial region, not showing main spines, which are up to 10 mm in length, dorsal view; G, mid branchial region, dorsal view; H, mid-branchial tubercle, lateral view. Scale bars: A, C, E, G, H, 1 mm; B, 3 mm; D, F, 2 mm.
Figure 6 in First record of the hyperparasite Liriopsis pygmaea (Cryptoniscidae, Isopoda) from a rhizocephalan parasite of the false king crab Paralomis granulosa from the Beagle Channel (Argentina), with a redescription
Figure 6. Liriopsis pygmaea. (a, b) Habitus of early subadult female; (c) ventral habitus of advanced subadult female; (d, e) dorsal and ventral habitus of adult female; (f, g) adult female, details of anterior and posterior ends of the slit. Scale bars: 5 mm (a–e); 0.5 mm (f); 1 mm (g).
Figure 5 in First record of the hyperparasite Liriopsis pygmaea (Cryptoniscidae, Isopoda) from a rhizocephalan parasite of the false king crab Paralomis granulosa from the Beagle Channel (Argentina), with a redescription
Figure 5. Liriopsis pygmaea. Cryptoniscus larva. (a) Third pereopod; (b) sixth pereopod; (c) seventh pereopod, merus and carpus only; (d) first pleopod, (e) uropods. Scale bars: 0.1 mm (b and c, same scale).
Figure 3 in First record of the hyperparasite Liriopsis pygmaea (Cryptoniscidae, Isopoda) from a rhizocephalan parasite of the false king crab Paralomis granulosa from the Beagle Channel (Argentina), with a redescription
Figure 3. Liriopsis pygmaea. SEM photographs of the cryptoniscus larva. (a, b) Dorsal and ventral habitus; (c) ventral view of head, arrow shows the median plate partially covering the rostral teeth of the first antenna; (d) anterior part of first and second antennular articles, arrows show the first article with a rostral tooth completely exposed and the second article with a single median tooth; (e) ventral view showing the sixth (foreground) and seventh styliform pereopods; arrow indicates seventh coxal plate. Photographs (b) and (c) belong to the same specimen, the others to different specimens. Scale bars in mm.
Figure 1 in First record of the hyperparasite Liriopsis pygmaea (Cryptoniscidae, Isopoda) from a rhizocephalan parasite of the false king crab Paralomis granulosa from the Beagle Channel (Argentina), with a redescription
Figure 1. Liriopsis pygmaea. SEM photographs of the epicaridium larva. (a) Ventral habitus; (b) ventral view of abdomen; (c) detail of anal tube. All photographs belong to the same specimen.
Figure 2 in First record of the hyperparasite Liriopsis pygmaea (Cryptoniscidae, Isopoda) from a rhizocephalan parasite of the false king crab Paralomis granulosa from the Beagle Channel (Argentina), with a redescription
Figure 2. Liriopsis pygmaea. Epicaridium larva. (a) Second antenna; (b) sixth pereopod; (c) fourth pleopod; (d) uropods. Scale bars: 0.05 mm.
Figure 4 in First record of the hyperparasite Liriopsis pygmaea (Cryptoniscidae, Isopoda) from a rhizocephalan parasite of the false king crab Paralomis granulosa from the Beagle Channel (Argentina), with a redescription
Figure 4. Liriopsis pygmaea. Cryptoniscus larva. (a) Dorsal habitus; (b) first antenna; (c) second antenna; (d) first pereopod, with detail of distal process of propodus. Scale bars: 0.5 mm (a); 0.1 mm (b–d).
Thermal regimes and hatching success related data for wild king cobra nests from the Western Himalayas, Uttarakhand, India
<p>This dataset, collected between 2009-2020, describes the thermal regimes of wild king cobra nests from the foothills of the Western Himalayas of Uttarakhand, northern India. Nest and ambient temperatures at nest sites were recorded every hour via automatic data loggers during, mostly, the latter part of incubation period (post natural nest-abandonment by female king cobras). Nest attributes (e.g. size, weight etc.) and hatching success parameters (i.e. percentage of hatched eggs and offspring size) are also provided per nest. All uploaded data have been analyzed in the paper: "House warming: wild king cobra nests have thermal regimes that positively affect hatching success and hatchling size" by Dolia et al. (currently under review in Journal of Thermal Biology.)</p>
RTI simulated imagery - Parade Shield of King Erik XIV of Sweden
<p>A set of simulated reflectance transformation imaging (RTI) acquisitions using the 3D model of the parade shield of King Erik XIV of Sweden, hosted on Sketchfab by "The Royal Armoury (Livrustkammeren)" (<a href="https://skfb.ly/6Rp9Y">Link</a>) . One set is simulated with the base model and the other is with some markings created on the surface. The images were simulated using Blender.</p> <p>Each acquisitions contained the simulated RGB images as well as depth maps and normal maps computed by Blender using the 3D model. Also included is a .blend file used for the simulation after modification which includes the 3D model. There is also a .lp file which describes the light positions used.</p>
FIGURE 44 in JIA-WEI SHEN & RICHARD A. B. LESCHEN (2020) Revision of Eupines King of New Zealand (Coleoptera: Staphylinidae: Pselaphinae: Goniaceritae) Zootaxa, 4777: 001-084.
FIGURE 44. Diagnostic characters of E. (B.) protibialis sp. n. A) Habitus. B) Antenna, in dorsal view. C) Same, in lateral view. D) Protrochanter. E) Protibia. F) Ventrite 2. G) Ventrite 6. H) Aedeagus, in dorsal view. I) Same, in lateral view. J) Same, in ventral view. Scale bars: A = 1 mm, B–F = 0.2 mm, G–J = 0.1 mm.
FIG. 5 in Ulva L. (Ulvales, Chlorophyta) from Manawatāwhi/ Three Kings Islands, New Zealand: Ulva piritoka Ngāti Kuri, Heesch & W.A.Nelson, sp. nov. and records of two nonnative species, U. compressa and U. rigida
FIG. 5. — Ulva piritoka Ngāti Kuri, Heesch & W.A.Nelson, sp. nov.: A, surface view showing rhizoids extending from cells; B, rhizoidal clump from lower surface of thallus. Scale bars: A, 20 µm; B, 50 µm
FIG. 3 in Ulva L. (Ulvales, Chlorophyta) from Manawatāwhi/ Three Kings Islands, New Zealand: Ulva piritoka Ngāti Kuri, Heesch & W.A.Nelson, sp. nov. and records of two nonnative species, U. compressa and U. rigida
FIG. 3. — Phylogenetic tree inferred by Maximum Likelihood analysis from partial rbcL sequences of Ulvacean species. Numbers above lines indicate ML bootstrap support values (BS) and Bayesian posterior probabilities (PP). BS values below 60% and PP values below 0.9 are not shown. Species names (reflecting current nomenclature; Guiry & Guiry 2021) are followed by GenBank/ENA accession numbers and origin of the sample (see Table 2 for references). New sequences are set in bold.
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International Brain Laboratory public data
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OpenNeuro
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