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108 results for “Possession”
FIGURE 2. Pseudingolfiella possessionis n in Description of Pseudingolfiella possessionis n. sp. (Crustacea, Amphipoda) from sub-Antarctic Île de La Possession, Crozet archipelago: the second freshwater amphipod known from the Antarctic biome, a human introduction of Gondwanan ancestry?
FIGURE 2. Pseudingolfiella possessionis n. sp. A. Female, habitus. B. Sternal gills. C. Antenna 1, female. D. Antenna 2, male. E. Accessory antenna, female. F. Accessory antenna, male. G. Labrum. H. Labium. I. Right mandible. J. Incisor and lacinia mobilis of left mandible. K. Incisor and lacinia mobilis of right mandible. Scale bars: A: 0.5 mm; C, D: 100 µm; B, E−K: 50 µm.
FIGURE 6. Pseudingolfiella possessionis n in Description of Pseudingolfiella possessionis n. sp. (Crustacea, Amphipoda) from sub-Antarctic Île de La Possession, Crozet archipelago: the second freshwater amphipod known from the Antarctic biome, a human introduction of Gondwanan ancestry?
FIGURE 6. Pseudingolfiella possessionis n. sp. SEM photographs. A. Habitus, male. B. Head and first thoracic segment, detail, male. C. Ventral view, showing sternal and coxal gills. D. Ibidem Fig. C, detail. E. Calceolus on antenna 2, medial view, male. F. Calceolus on antenna 2, posterior view, male. Scale bars: A: 0.25 mm; B−D: 0.1 mm; E, F: 10 µm.
FIGURE 1 in Description of Pseudingolfiella possessionis n. sp. (Crustacea, Amphipoda) from sub-Antarctic Île de La Possession, Crozet archipelago: the second freshwater amphipod known from the Antarctic biome, a human introduction of Gondwanan ancestry?
FIGURE 1. Post-Gondwanan distribution of Pseudingolfiella species. c. P. chilensis. m. P. morimotoi. s. P. soyeri. p. P. possessionis n. sp. (Map of the Southern Hemisphere showing the subdivision of the Antarctic biome, modified after Ochyra (1998)).
FIGURE 3. Pseudingolfiella possessionis n in Description of Pseudingolfiella possessionis n. sp. (Crustacea, Amphipoda) from sub-Antarctic Île de La Possession, Crozet archipelago: the second freshwater amphipod known from the Antarctic biome, a human introduction of Gondwanan ancestry?
FIGURE 3. Pseudingolfiella possessionis n. sp. A. Maxilla 1. B. Maxilla 2. C. Maxilliped, female. D. Maxilliped, male. E. Gnathopod 1, female. F. Gnathopod 2, female. Scale bars: A−D: 50 µm; E, F: 100 µm.
FIGURE 5. Pseudingolfiella possessionis n in Description of Pseudingolfiella possessionis n. sp. (Crustacea, Amphipoda) from sub-Antarctic Île de La Possession, Crozet archipelago: the second freshwater amphipod known from the Antarctic biome, a human introduction of Gondwanan ancestry?
FIGURE 5. Pseudingolfiella possessionis n. sp. A−E. Pereiopods 3−7. F. Dactylus of pereiopod 7. G. Uropod 1, female. H. Uropod 2, female. I. Uropod 1, male. J. Uropod 2, male. K. Uropod 3. Scale bars: A−E: 100 µm; F−K: 50 µm.
FIGURE 8. Pseudingolfiella possessionis n in Description of Pseudingolfiella possessionis n. sp. (Crustacea, Amphipoda) from sub-Antarctic Île de La Possession, Crozet archipelago: the second freshwater amphipod known from the Antarctic biome, a human introduction of Gondwanan ancestry?
FIGURE 8. Pseudingolfiella possessionis n. sp. SEM photographs. A. Urosome with uropods 1−3, female, ventral view. B. Telson, detail of spinulate mediodorsal projection. C. Telson, lateral view. D. Uropod 3. E. Knobbed micropores on ventrolateral body surface. F. Spiniferous field ventromedially at distal end of peduncle of uropods 3. Scale bars: A: 0.1 mm; B, F: 10 µm; C: 0.025 mm; D: 0.05 mm; E: 5 µm.
Database of adnominal possessive constructions in the Malayo-Polynesian languages of Southeast Asia - Version 3
<p>A database of adnominal possessive constructions in 100 Malayo-Polynesian languages of the Southeast Asian area (i.e., Austronesian languages from outside Taiwan and the Oceanic subgroup). Our sample is one of convenience, that is, it is significantly influenced by the availability of adequate grammatical descriptions. Nonetheless, the languages surveyed are indicative of the genetic and areal diversity across MPSEA. This database was used for the creation of maps of three features displaying crosslinguistic variation in adnominal possessive constructions: (i) word order of free (pro)nouns for possessor and possessum; (ii) locus and marking of the possessive relationship (e.g., no marker, bound marker, free marker, etc.); (iii) differential possessor marking (e.g., direct versus indirect possessors, alimentary versus general possession, etc.). Sources used for the coding are as listed in the database. </p> <p>When using this database, please also cite the original article for which it was created: Schapper, Antoinette with William McConvell. forthcoming. Adnominal possession in the Malayo-Polynesian languages of Southeast Asia. In Sander Adelaar and Antoinette Schapper, <em>Oxford Guide to the Malayo-Polynesian languages of Southeast Asia</em>. Oxford: Oxford University Press.</p>
FIGURES 23–29 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 23–29. Nitzschia gaoi, sp. nov., LM. 23–25. Three valves showing a slightly eccentric raphe system. 24. Photograph of holotype. 26. One valve showing a centrally positioned raphe system. 27–29. Three valves showing a slightly eccentric raphe system. 27. Photograph of isotype specimen. Scale bar = 10 μm for all figures.
FIGURES 45–49 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 45–49. Nitzschia gaoi, sp. nov., girdle band views, SEM. 45. Internal view of a whole valve with one girdle band. 46–47. Apices, note that the girdle band is open at one apex (Fig. 46) but closed at the other (Fig. 47). 48. External view of the apex, note the girdle band (arrow). 49. Apex showing the areolae of the girdle band covered by hymenes and terminating near each apex (Figs 46, 49, arrows). Scale bars = 10 μm (Fig. 45), 1 μm (Figs 46–49).
FIGURES 17–22 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 17–22. Nitzschia arierae, sp. nov., canal-raphe-conopeum system, SEM. 17. External view of the apex, note that the conopea are fused into the valve (arrow). 18–19. External view of central area, note conopeal canal, raphe canal and supporting points. 20–22. Internal views, note keels and supporting marks. Abbreviations: c = conopeum, cc = conopeal canal, cv = zone of valve face subtended by conopeum, f = fibula, k = keel, r = raphe slit, rc = raphe canal, sm = supporting mark, v = uncovered zone of valve face. Scale bars = 1 μm (Figs 17–18, 20–22), 2 μm (Fig. 19).
FIGURES 12–16 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 12–16. Nitzschia arierae, sp. nov., internal views, SEM. 12. A whole valve, note the interspaces narrower towards the poles. 13. Apex, note the distinctive apical pore field and the poroids in the keel zone (two arrows). 14–16. Central areas, showing the subtended zone different from the uncovered zone (Fig. 14, double-head arrows), shortened striae (arrows), dichotomous striae (wavy arrows), and poroids present in the keel zone (Figs 14–15, arrowheads). Scale bars = 10 μm (Fig. 12), 1 μm (Figs 13–16).
FIGURES 8–11 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 8–11. Nitzschia arierae, sp. nov., external views, SEM. 8. A whole valve, note the constant width of conopeum. 9. Apex, showing the apical pore field (wavy arrows), the hooked terminal fissure towards the dorsal side (arrowhead), and the supporting points (arrows). 10. Central area, note the supporting points (arrows). 11. Another apex, note the hooked terminal fissure towards the dorsal side (arrowhead) and the supporting points (arrows). Scale bars = 10 μm (Fig. 8), 1 μm (Figs 9–11).
FIGURES 1–7 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 1–7. Nitzschia arierae, sp. nov., LM. 1–7. Seven valves showing size reduction. 1. Photograph of isotype specimen, note the two rows of dark spots (six arrows) and the two parallel lines on either side of the raphe. 3. Photograph of holotype, note the centrally positioned raphe system. Scale bar = 10 μm for all figures.
FIGURES 30–39 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 30–39. Nitzschia gaoi, sp. nov., external views, SEM. 30–31. Two complete valves, note the nitzschioid symmetry of the raphe system. 32–33. Apices, note the constant width of the conopeum. 34–35. Apices showing the apical pore fields and the hooked terminal fissures towards the dorsal side. 36. Intact central area, showing costae, conopea, and the fusing of costae with conopeal spines (arrowheads). 37. Eroded area showing small conopea occuring on each side of each costa, and a transverse row of areolae appearing in a girdle band. 38. Eroded area showing striae and areolae. 39. Broken central area, showing the canal-raphe-conopeum system (cc = conopeal canal). Scale bars = 10 μm (Figs 30–31), 1 μm (Figs 32–39).
FIGURES 40–44 in Two new Nitzschia species (Bacillariophyceae) from China, possessing a canal-raphe-conopeum system
FIGURES 40–44. Nitzschia gaoi, sp. nov., internal views, SEM. 40. A whole valve, note the upper apex very slightly arched toward the ventral side. 41–42. Apices, note one apex bending toward the ventral side (Fig. 41, two arrows) and the other almost straight (Fig. 42, two arrows). 43. Central area, note that the zone of valve face subtended by the conopeum (cv) has no areolae in most part but these are present near or on the wall of raphe canal (arrow). 44. Detail of the apex, note the distinctive apical pore field (arrow). Scale bars = 10 μm (Fig. 40), 1 μm (Figs 41–44).
FIGURES 23–31 in A new species of Cymbella (Cymbellaceae, Bacillariophyceae) from China, possessing valves with both uniseriate and biseriate striae
FIGURES 23–31. Cymbella distalebiseriata sp. nov., external view, SEM. 23–31. Nine apices showing details of biseriate striae. Scale bars = 5 μm.
FIGURES 19–22 in A new species of Cymbella (Cymbellaceae, Bacillariophyceae) from China, possessing valves with both uniseriate and biseriate striae
FIGURES 19–22. Cymbella distalebiseriata sp. nov., external view, SEM. 19–22. Four valves showing valve outline, raphe shape and some biseriate striae distributed near both apices (arrows). Scale bars =10 μm.
FIGURES 37–40 in A new species of Cymbella (Cymbellaceae, Bacillariophyceae) from China, possessing valves with both uniseriate and biseriate striae
FIGURES 37–40. Cymbella distalebiseriata sp. nov., internal view, SEM. 37–40. Four apices showing biseriate striae. Scale bars = 5 μm.
FIGURES 32–36 in A new species of Cymbella (Cymbellaceae, Bacillariophyceae) from China, possessing valves with both uniseriate and biseriate striae
FIGURES 32–36. Cymbella distalebiseriata sp. nov., internal view, SEM. 32. A whole valve. 33–36. Four central parts of the valves, showing two to three stigmata (curved arrows) and obscured intermission (arrows). Scale bars =10 μm (32), 5 μm (33–36).
FIGURES 15–18 in A new species of Cymbella (Cymbellaceae, Bacillariophyceae) from China, possessing valves with both uniseriate and biseriate striae
FIGURES 15–18. Cymbella distalebiseriata sp. nov., frustule and girdle view, SEM. 15. Frustule in ventral girdle view. 16. Frustule in side view, note deep mantle on dorsal side. 17–18. Details of Fig. 15, showing apical pore fields, girdle bands and some biseriate striae with their corresponding uniseriate striae on mantle (arrows). Scale bars =10 μm (Figs 15–16), 5 μm (Figs 17–18).
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