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41 results for “Cryptopygus”
Figures 6–13 in Cylindropygus ferox gen. n., sp. n.: A new member of the Cryptopygus complex (Collembola, Isotomidae) from central France
Figures 6–13. (6) Postantennal organ; vertical arrow, anterior, horizontal arrow, axis. (7) Dorsal S-chaetae of Ant.IV; other chaetae represented by their sockets; dotted line around Ant.IV organ. (8) Third thoracic tergite, lateral part. (9) Second thoracic tergite, lateral part; ms, S-microchaeta. (10) Dorsal S-chaetotaxy and macrochaetaxy; ordinary mesochaetae represented by sockets. (11) Distal part of manubrium and mucrodens, anterior view. (12) Mucrodens, posterior view. (13) Mucro, lateral view.
Microsatellite data for Cryptopygus antarcticus travei
<p>Biodiversity patterns are shaped by the interplay between geodiversity and organis-mal characteristics. Superimposing genetic structure onto landscape heterogeneity(i.e., landscape genetics) can help to disentangle their interactions and better under-stand population dynamics. Previous studies on the sub-Antarctic Prince EdwardIslands (located midway between Antarctica and Africa) have highlighted the im-portance of landscape and climatic barriers in shaping spatial genetic patterns andhave drawn attention to the value of these islands as natural laboratories for study-ing fundamental concepts in biology. Here, we assessed the fine-scale spatial geneticstructure of the springtail, Cryptopygus antarcticus travei, which is endemic to MarionIsland, in tandem with high-resolution geological data. Using a species-specific suiteof microsatellite markers, a fine-scale sampling design incorporating landscape com-plexity and generalised linear models (GLMs), we examined genetic patterns overlaidonto high-resolution digital surface models and surface geology data across two 1-kmsampling transects. The GLMs revealed that genetic patterns across the landscapeclosely track landscape resistance data in concert with landscape discontinuities andbarriers to gene flow identified at a scale of a few metres. These results show thatthe island's geodiversity plays an important role in shaping biodiversity patterns andintraspecific genetic diversity. This study illustrates that fine-scale genetic patternsin soil arthropods are markedly more structured than anticipated, given that previ-ous studies have reported high levels of genetic diversity and evidence of geneticstructing linked to landscape changes for springtail species and considering the ho-mogeneity of the vegetation complexes characteristic of the island at the scale oftens to hundreds of metres. By incorporating fine-scale and high-resolution landscapefeatures into our study, we were able to explain much of the observed spatial geneticpatterns. Our study highlights geodiversity as a driver of spatial complexity. Morewidely, it holds important implications for the conservation and management of thesub-Antarctic islands.</p>
Microsatellite data for Cryptopygus antarcticus travei
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FIGURES 55–59 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 55–59. Cyclomorphosis in Appendisotoma sibirica, summer (55, 56, 58) and winter (57, 59) forms: 55, habitus of subadult individual; 56, 57, furca, lateral view (posterior side of manubrium not shown); 58, 59, ocelli and PAO.
FIGURE 65 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURE 65. Frequency distribution of size classes (based on body length in mm) of Appendisotoma bisetosa in different south-eastern areas of European part of Russia. Precise locations and dates are given in detail in the Material subsection in the description of A. bisetosa. November, January and February populations belong to winter form, other—to summer form.
FIGURES 50–54 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 50–54. Appendisotoma sibirica (50–53) and A. absoloni (54): 50, axial chaetae, chaetae of p-row, macrochaetae and s-chaetae on body tergites (lateral s-chaetae on Th.II and III not shown); 51, head (large common chaetae and macrochaetae shown); 52, chaetotaxy of posterior edge of head; 53–54, axial area of tergites of Abd. I–III (chaetae often absent on Abd. III in A. absoloni encircled). Abbreviations as on Figs 41–42.
FIGURES 41–42 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 41–42. Appendisotoma monomorpha sp. nov.: 41, chaetotaxy of Abd.II–VI, s-chaetae encircled; 42, macrochaetae and s-chaetae on body tergites. Abbreviations: s—s-chaetae, ms—ms-chaetae.
FIGURES 23–33 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 23–33. Cyclomorphosis in Appendisotoma stebayevae, summer (23–26) and winter (27–33) forms: 23, 27, habitus of subadult individuals; 32, habitus of juvenile individual; 24, 28, 29, furca, lateral view (posterior side of manubrium not shown); 25, 30, retinaculum; 26, 31, 33 ocelli and PAO. Abbreviations: e.l.—external lobe on dens.
FIGURE 34 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURE 34. Furca in Appendisotoma stebayevae, winter form, anterior view (Yakutia), basal condyle less visible and not shown. Abbreviations: BR—basal rod; BP2—basal plate 2; BS2, BS3—basal sclerite 2 and 3.
FIGURES 8–15 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 8–15. Cyclomorphosis in Appendisotoma bisetosa, summer (8–11) and winter (12–15) forms: 8, 12, habitus; 9, 13, furca, lateral view (posterior side of manubrium not shown); 10,14, apical part of tibiotarsus, lateral view; 11, 15, ocelli and PAO. Abbreviations: e.l.—external lobe on dens, ch.p.—chitinized process.
FIGURES 35–40 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 35–40. Appendisotoma monomorpha sp. nov.: 35, 36, furca, posterior (35) and anterior (36) views; 37, ocelli and PAO; 38, furca, lateral view; 39, tibiotarsus III, lateral view; 40, Ant.I–III, dorsal view of right antenna. Abbreviations: bms— basal ms-chaetae, os—outer s-chaetae of AO, ls, ls'—lateral s-chaetae of AO.
FIGURES 60–61 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 60–61. Appendisotoma sp. (the Far East of Russia, Chuguevsky district, Oblachnaya Mt., 10.06–13.06.2018, leg. A. Kuprin): 60, habitus; 61 chaetotaxy of Abd.IV–V. Abbreviations: s—s-chaetae.
FIGURES 16–22 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 16–22. Appendisotoma stebayevae, summer form: 16, 17, pigmentation of eye spot in individual from Kazakhstan (16) and Central China (17); 18, ocelli and PAO; 19, 20, macrochaetae and s-chaetae on thorax (19) and abdomen (20); 21, tibiotarsus III, lateral view; 22, Ant.I–III, dorsal view of right antenna. Abbreviations: as—additional s-chaetae, ls, ls'—lateral s-chaetae of AO, other abbreviations as on Figs 1–7.
FIGURES 1–7 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 1–7. Appendisotoma bisetosa, winter form: 1, macrochaetae and s-chaetae on body tergites; 2, chaetotaxy of Abd. II–IV, s-chaetae on Abd. IV encircled, macrochaetae connected by dotted line; 3, tibiotarsus, lateral view; 4, apical part of tibiotarsus, outer view; 5, Ant.I–III, dorsal view of right antenna, one additional bms on Ant. II not shown on figure; 6, furca, posterior view, chaetae of central area of manubrium encircled; 7, dens, outer view. Abbreviations: s—s-chaetae, ms—mschaetae, bms—basal ms-chaetae, os—outer s-chaetae of AO, ls—lateral s-chaetae of AO.
FIGURES 43–49 in Taxonomy of the Cryptopygus complex. IV. Cyclomorphosis in three species of Appendisotoma and description of a new species from Kazakhstan (Collembola, Isotomidae)
FIGURES 43–49. Appendisotoma sibirica: 43, s-chaetae on body tergites; 44, Abd.IV–VI (microchaetae not shown on Abd.VI and shown only as sockets on Abd.V); 45, labial palp, simplified; 46, apical part of tibiotarsus III, outer view; 47, laterodistal chaetae of ventral tube; 48, furca, anterior view; 49, Ant.I–III, dorsal view of left antenna. Abbreviations: pr—proximal chaetae, other abbreviations as on Figs 1–7.
Figures 23-25 from: Potapov MB, Janion-Scheepers C, Deharveng L (2020) Taxonomy of the Cryptopygus complex. III. The revision of South African species of Cryptopygus and Isotominella (Collembola, Isotomidae). ZooKeys 945: 99-127. https://doi.org/10.3897/zookeys.945.51860
Figures 23-25 Appearance and macrochaetotaxy of C. postantennalis sp. nov. (23), C. inflatus sp. nov. (24), and C. longisensillus sp. nov. (25).
Figures 6-14 from: Potapov MB, Janion-Scheepers C, Deharveng L (2020) Taxonomy of the Cryptopygus complex. III. The revision of South African species of Cryptopygus and Isotominella (Collembola, Isotomidae). ZooKeys 945: 99-127. https://doi.org/10.3897/zookeys.945.51860
Figures 6-14 C. bulbus sp. nov. 6Abd. IV and fused Abd. V and VI 7 labrum, lateral view 8 ocelli, PAO and Ant. I 9, 10 apical part of Ant. IV, different views 11 tibiotarsus and claw of Leg III in adult male 12 ventral tube, ventral view 13 furcal area, ventral view 14 furca, lateral view. Abbreviations: ab apical bulb, org organit, sms subapical ms-chaeta, bms basal ms-chaeta, ss s-chaeta.
Figures 37-41 from: Potapov MB, Janion-Scheepers C, Deharveng L (2020) Taxonomy of the Cryptopygus complex. III. The revision of South African species of Cryptopygus and Isotominella (Collembola, Isotomidae). ZooKeys 945: 99-127. https://doi.org/10.3897/zookeys.945.51860
Figures 37-41 Variation of number of ocelli in C. longisensillus sp. nov. 37 5+5 ocelli 38 3+3 ocelli 39 4+4 ocelli 40, 41 7+7 ocelli.
Figures 15-22 from: Potapov MB, Janion-Scheepers C, Deharveng L (2020) Taxonomy of the Cryptopygus complex. III. The revision of South African species of Cryptopygus and Isotominella (Collembola, Isotomidae). ZooKeys 945: 99-127. https://doi.org/10.3897/zookeys.945.51860
Figures 15-22 C. abulbus sp. nov. 15Abd. IV and fused Abd. V and V 16 labial palp 17, 18 apical part of Ant. IV, different views 19 ocelli and PAO20 ventral tube, ventral view 21 furca, lateral view 22 furcal area, ventral view. Abbreviations: org organit, sms subapical ms-chaeta, ss s-chaeta.
Figures 4-5 from: Potapov MB, Janion-Scheepers C, Deharveng L (2020) Taxonomy of the Cryptopygus complex. III. The revision of South African species of Cryptopygus and Isotominella (Collembola, Isotomidae). ZooKeys 945: 99-127. https://doi.org/10.3897/zookeys.945.51860
Figures 4-5 Macrochaetotaxy and s-ms-pattern of C. bulbus sp. nov. (4) and C. abulbus sp. nov. (5). Abbreviations: msms-chaeta, ss s-chaeta.
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