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208 results for “gonopod”
Figures 2–5. Gosiulus conformatus, left anterior gonopods. 2 in Parajulid milliped studies XI: Initial assessment of the tribe Gosiulini (Diplopoda: Julida)
Figures 2–5. Gosiulus conformatus, left anterior gonopods. 2) Holotype, anterior view. 3) The same, lateral view. 4) Male from Travis Co., anterior view. 5) The same, lateral view. at, anterior gonopod telopodite; lsp, lateral syncoxal process.
Figures 14–21. Floridobolus spp., gonopodal features. 14–17 in Expanded concept of the milliped family Spirobolidae Diplopoda: Spirobolida: Spirobolidea): Proposals of Aztecolini n. tribe and Floridobolinae/ini and Tylobolini n. stats.; (re)descriptions of Floridobolus and F. penneri, both Causey, 1957, and F. orini n. sp.; hypotheses on origins and affinities
Figures 14–21. Floridobolus spp., gonopodal features. 14–17) F. penneri holotype. 14) Left anterior gonopod, anterior view. 15) Telopodite of left posterior gonopod, anterior view. 16) The same, caudal view. 17) Bifurcate projection of anterior surface of the same, anteriomedial view. 18–21) F. orini holotype. 18) left anterior gonopod, anterior view. 19) Telopodite of left posterior gonopod, anterior view. 20) The same, caudal view. 21) Bifurcate projection of anterior surface of the same, anteriomedial view. A and C, anterior and caudal surfaces, respectively, of posterior gonopod acropodite. at, anterior gonopod telopodite. ce, coxal endite. db, dorsal branch of bifurcate projection. s, sternum. vb, ventral branch of bifurcate projection. asterisk (*), prefemoral process. x, extraneous basal process.
Figures 11–14. Left gonopod. 11 in The enigmatic milliped genus Pandirodesmus Silvestri 1932 and description of a new species from Tobago represented by males (Polydesmida: Leptodesmidea: Chelodesmidae: Chelodesminae: Pandirodesmini)
Figures 11–14. Left gonopod. 11) Submedial view. 12) Subanterior view. 13) Sublateral view. 14) Subcaudal view. Coxa (black), prefemur (dark green), prefemoral process (light green), secondary branch (red), primary branch (light blue), solenomere (dark blue).
Figure 3. Gonopods 2 in A new species and new records of deep-water Calappidae (Crustacea: Decapoda) from the Indian Ocean with a key to the Mursia Desmarest, 1823 species of the region
Figure 3. Gonopods 2 (Go/2). (A) Mursia africana, left Go/2, abdominal face, juvenile male, CL 14.7 mm (SMF 29497); (B) M. africana, left Go/2, abdominal face, CL 30.4 mm (IORAS, unregistered); (C) Mursia bicristimana, left Go/2, abdominal face, CL 50.0 mm (ZMMU Ma 5353); (D) M. bicristimana, left Go/2, terminal part, same specimen as in (C); (E) Mursia aff. danigoi, left Go/2, terminal part, abdominal face, CL 52.5 mm (IORAS, unregistered).
Figure 14 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 14. Outline shape models of positions along the canonical variate axes (numbers in parentheses) shown in Figure 13 projected into the space of the extended eigenshapes. Outlines are overlain at the landmark from which digitization started in the figure to the right of each sequence in order to illustrate better the magnitudes and directions (arrows) or localized shape change. See text for discussion.
Figure 10 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 10. Outline shape models of positions along the canonical variate axes (numbers in parentheses) shown in Figure 9 projected into the space of the extended eigenshapes. Outlines are overlain at the landmark from which digitization started in the figure to the right of each sequence in order to illustrate better the magnitudes and directions (arrows) or localized shape change.
Figure 11 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 11. Canonical variates ordination of gonopod shape data for two Allothereua serrulata subspecies as assessed by landmark data and relative warps analysis. As there are only two groups the first canonical variate axes account for all of the observed between-groups shape variation. Nevertheless, higher canonical variates exist (see MacLeod, 2007) and the second canonical variate axis is shown here in order to illustrate aspects of the overall ordination in the discriminant space. Cross-tabulation analysis of these results using only the distribution along the first axis (Table 5) indicated that almost 85% of the sample can be assigned to the correct subspecies.
Figure 9 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 9. Canonical variates ordination of outline semi-landmark data for the gonopod mesarthra of three Allothereua species as assessed by extended eigenshape analysis. Only the first two of the five possible canonical variate axes are shown. As there are only three groups these two canonical variate axes account for 100.00% of the observed betweengroups shape variation. Cross-tabulation analysis (Table 4) indicated that almost 75% of the sample can be assigned to the correct species.
Figure 8 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 8. Thin-plate spline models of positions along the canonical variate axes (numbers in parentheses) shown in Figure 7 projected into the space of the relative warps. Landmark positions are overlain with one another in the figure to the right of each sequence in order to illustrate better the magnitudes and directions (arrows) or localized shape change.
Figure 5 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 5. Canonical variates ordination of outline semi-landmark data for the gonopod mesarthra for genera as assessed by extended eigenshape analysis. Only the first two of the five possible canonical variate axes are shown. This analysis was based on seven extended eigenshape variables which together accounted for 93.7% of the observed outline shape variation. Cross-tabulation analyses of these results (Table 2) indicated that over 90% of the sample can be assigned to the correct genus.
Figure 4 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 4. Thin-plate spline models of positions along the canonical variate axes (numbers in parentheses) shown in Figure 3 projected into the space of the relative warps. Landmark positions are overlain with one another in the figure to the right of each sequence in order to illustrate better the magnitudes and directions (arrows) or localized shape change. See text for discussion.
Figure 2 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 2. Map of the distributions of the different species and subspecies of Allothereua in south-eastern Australia (using only geographical data for the specimens in this analysis).
Figure 3 in Geometric approaches to the taxonomic analysis of centipede gonopods (Chilopoda: Scutigeromorpha)
Figure 3. Canonical variates ordination of gonopod shape data for genera as assessed by landmark data and relative warps analysis. Only the first two canonical variate axes are shown. Together these account for 91.41% of the observed between-group shape variation. However, because only three relative warp axes accounted for 95% of the observed shape variation, only three canonical variate axes could be specified. Cross-tabulation analysis of these results (Table 1) indicated that over 80% of the sample can be assigned to the correct genus.
Fig. 9. Charinus Simon, 1892, male gonopods. A–B in Systematic revision of the pantropical whip spider family Charinidae Quintero, 1986 (Arachnida, Amblypygi)
Fig. 9. Charinus Simon, 1892, male gonopods. A–B. Charinus euclidesi sp. nov. (MNRJ 9099), ventral view (A), posterior view (B). C–D. Charinus sooretama sp. nov. (MNRJ 9245), ventral view (B), detail of sinistral side showing lamina medialis, lateral lobe 1 and 2, and dorsal lobe (D).
Fig. 8. Charinus Simon, 1892, male gonopods. A–B in Systematic revision of the pantropical whip spider family Charinidae Quintero, 1986 (Arachnida, Amblypygi)
Fig. 8. Charinus Simon, 1892, male gonopods. A–B. Charinus acaraje Pinto-da-Rocha, Machado & Weygoldt, 2002 (MNRJ 9297), ventral view (A) and detail of dorsal lobe (LoD) and lateral lobe 1 (LoL1). C–D. Charinus brasilianus Weygoldt, 1972 (MNRJ 9226), posterior view (C) and detail of lateral lobes 1 and 2 (LoL1, 2), dorsal lobe (LoD) and lamina medialis (LaM) (D). E–H. Charinus carajas Giupponi & Miranda, 2016 (MZSP 29126), ventral view of gonopod (E), detail of sinistral side of gonopod (F), detail of LoL1 and LoD (G), and detail of LoL2 (H).
Fig. 16. Elythesmus enghoffi Hoffman, 1978, gonopods. A in A mountain of millipedes X: Species of Pyrgodesmidae and Cryptodesmidae in the Udzungwa Mountains, Tanzania (Diplopoda, Polydesmida)
Fig. 16. Elythesmus enghoffi Hoffman, 1978, gonopods. A. Topotype, ♂, with 18 podous rings from Amani, East Usambara Mts (NHMD 621816), right gonopod, ventral view. B–E. ♂ (NHMD 621778) with 17 podous rings from Kidatu, left gonopod. B. Ventral view. C. Oblique (slightly apical) mesoventral view. D. Mesal view. E. Lateral view. F. Specimen (NHMD 621787) with 18 podous rings from Kidatu, right gonopod, meso-ventral view. Scale bars: A–E = 0.1 mm; F = 0.05 mm.
Fig. 5. Gonopods. A–F in Phricotelphusa sukreei, a new species of arboreal freshwater crab (Crustacea: Brachyura: Gecarcinucidae) from Thailand
Fig. 5. Gonopods. A–F, Phricotelphusa sukreei, new species, holotype male (26.7 × 20.2 mm) (ZRC 2021.0815), Peninsular Thailand; G, H, P. aedes (Kemp, 1923). A, F, left G1 (ventral view); B, G, distal part of left G1 (ventral view); C, H, distal part of left G1 (dorsal view); D, left G2; E, distal part of left G2.
Figure 1. Atelomastix solitaria Jeekel, 2009, left anterior gonopod. A in Notes on Victorian Iulomorphidae (Diplopoda: Spirostreptida)
Figure 1. Atelomastix solitaria Jeekel, 2009, left anterior gonopod. A, medial and slightly posterior view of male from NMV K-13628; B, posterior and slightly ventral (i.e. distal) view of male holotype, de-speckled scan of fig. 4 in Jeekel (2009). Pseudoflagellum (pf) and sclerites a, b and c labelled; scale bar for A = 1.0 mm.
FIGURES 52–54. Trisaria olympia. Fig. 52. Gonopods, anterior view. Fig. 53. Gonopods, posterior view. Fig. 54. Left leg 9 in The millipede family Striariidae Bollman, 1893: I. Introduction to the family, synonymy of Vaferaria Causey with Amplaria Chamberlin, the new subfamily Trisariinae, the new genus Trisaria, and three new species (Diplopoda, Chordeumatida, Striarioidea)
FIGURES 52–54. Trisaria olympia. Fig. 52. Gonopods, anterior view. Fig. 53. Gonopods, posterior view. Fig. 54. Left leg 9 of male, anterior view; ap, apodeme, cl, coxal lobe; other labels for this and Figs. 52 & 53 as in Figs. 21–23.
FIGS. 198–203. Complicatella spp. Figs. 198–201. Complicatella pectenifera. Fig. 198. Anterior gonopods, posterior view. Fig. 199. Posterior gonopods, posterior view. Fig. 200 in The millipede family Conotylidae in northwestern North America, with a complete bibliography of the family (Diplopoda, Chordeumatida, Heterochordeumatidea, Conotyloidea)
FIGS. 198–203. Complicatella spp. Figs. 198–201. Complicatella pectenifera. Fig. 198. Anterior gonopods, posterior view. Fig. 199. Posterior gonopods, posterior view. Fig. 200. Left posterior gonopod coxite and prefemur, posterior view. Fig. 201. Right posterior gonopod coxite, posterior view. Figs. 202, 203. Complicatella neili. Fig. 202. Anterior gonopods, posterior view. Fig. 203. Left posterior gonopod coxite, posterior view.
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