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18 results for “hyoid arch”
Figure 9 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 9. Development of the columella auris in Gallus domesticus and Coturnix japonica. A, day-8 chick embryo, ventro-right lateral view. B, day-10 chick embryo, postero-right lateral view. C, day-11 chick embryo, antero-right lateral view. D, day-7 quail embryo, left lateral view. E, day-9 quail embryo, ventro-right lateral view. F, day-9 quail embryo, ventro-left lateral view. G, day-10 quail embryo, ventropostero-right lateral view. For abbreviations see the Appendix. A–G: whole mounts.
Figure 8 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 8. Development of the columella auris and surrounding tissues in Struthio camelus. A, day-16 embryo, posteroleft lateral and anteroventro-left lateral view. B, day-17 embryo, ventro-left lateral view. C, day-18 embryo, left lateral view. D, day-20 embryo, postero-left lateral view. E, day-25 embryo, antero-left lateral view. F, day-29 embryo,
Figure 6 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 6. Development of the columella auris and surrounding tissues in Struthio camelus. A, day-11 embryo, ventro-right lateral view. B, day-12 embryo, ventro-right lateral view. C and D, day-13 embryo, postero-left lateral view. E, day-13 embryo, posterior view. F, day-13 embryo, postero-dorsal and posterior view. G, day-13 embryo, anterior view. For abbreviations see the Appendix. The dotted yellow circle represents the region of the tympanic process. The dotted red circle represents tympanic invagination. A and B, whole mounts; C–G, graphic reconstructions.
Figure 5 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 5. Development of the columella auris of Crocodylus niloticus. A, day-17 embryo, left lateral view. B, day-21 embryo, left lateral view. C, day-25 embryo, left lateral view. D, day-26 embryo, left lateral view. E, day-26 embryo, right lateral view. F, day-27 embryo, right lateral view. G, day-29 embryo, right lateral view. H, day-29 embryo, left lateral view. I, day-30 embryo, left lateral view. J, day-35 embryo, left lateral view. K, day-40 embryo, left lateral view. For abbreviations see the Appendix. A–K, whole mounts.
Figure 4 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 4. Development of the columella auris and surrounding tissues of Alligator mississippiensis. A and B, day-40 embryo, left lateral and right lateral view. C, day-40 embryo, right lateral view. D, day-42 embryo, right lateral and medial view. E, day-42 embryo, right lateral view. F, day-47 embryo, right lateral view. G, day-51 embryo, right lateral view. For abbreviations see the Appendix. A, B, and E–G, whole mounts; C and D, graphic reconstructions.
Figure 3 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 3. Development of the columella auris and surrounding tissues of Alligator mississippiensis. A, day-30 embryo, left lateral and medial view. B, day-33 embryo, left lateral view. C, day-37 embryo, right lateral and medial view. D and E, day-39 embryo, right lateral view. For abbreviations see the Appendix. A and C, graphic reconstructions; B, D, and E,
Figure 2 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 2. Development of the columella auris and surrounding tissues of Alligator mississippiensis. A–C, day-21 embryos, transverse sections through the external and middle ear region. D, day-21 embryo, posterior view. E, day-22 embryo, right lateral view. F, day-25 embryo, right lateral view. G, day-27 embryo, postero-right lateral view. H, day-28 embryo, right lateral view. For abbreviations see the Appendix. A–C, histological sections; D and G, graphic reconstructions; E, F, and H, whole mounts.
Figure 1 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 1. Development of the columella auris and surrounding tissues of Alligator mississippiensis. A, day-12 embryo, right lateral view. B, C, and E, day-14 embryo, postero-left lateral, posterior, and right lateral view. D and F, day-14 embryo, transverse sections through the external and middle ear region. G and H, day-16 embryo, transverse sections through the external and middle ear region. I, day-18 embryo, right lateral view. For abbreviations see the Appendix. In all figures hyal elements are distinguished in all whole mounts by yellow labels. A and I, whole mounts; B, C, and E, graphic reconstructions; D, and F–H, histological sections.
Fig. 13. Hyoid and gill arches. A, B in Redescription and anatomical investigation of Schroederichthys maculatus Springer, 1966 and S. saurisqualus Soto, 2001 with comments on their systematics (Chondrichthyes: Carcharhiniformes: Atelomycteridae)
Fig. 13. Hyoid and gill arches. A, B, Schroederichthys maculatus, USNM 187690, male, 325 mm TL; C, D, Schroederichthys saurisqualus, UERJ uncatalogued, male, 580 mm TL. A-C, dorsal view; B-D, ventral view. Scale bar =10 mm.
FIGURE 8 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 8. Higher-level familial relationships from the parsimony trees generated using Basal outgroups (Fig. 4). Node 1, 23: 0 1, 54: 0 1; Node 2, 9: 0 4, 17:0 1; Node 3, 10:0 1, 14:0 1, 19:0 1, 22:0 1, 25: 0 1, 27: 0 1, 39: 1 0, 40: 2 1, 43: 0 1, 47: 0 1, 61: 2 1; Node 4, 24: 2 0, 40: 2 0, 42: 0 1, 57: 0 1; Node 5, 19: 0 1, 20: 0 1; Node 6, 8: 1 0, 13: 1 0, 16:0 1, 30: 0 1, 38: 0 1, 49: 0 1, 55: 0 1, 60: 0 1, 61: 2 1; Node 7, 31: 0 1, 35: 1 0, 36: 1 0, 42: 1 0; Node 8, 11: 0 1, 22:0 1, 56: 0 1; Node 9, 12: 0 1, 14:0 1, 30: 1 0, 53: 2 0; Node 10, 16:1 0, 26: 0 1.
FIGURE 4 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 4. Strict consensus tree using Basal outgroups (Appendix III) recovered from 584 equally parsimonious trees. Treelength=377; CI=0.233; RI=0.637. Nodal values indicate bootstrap support.
FIGURE 1 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 1. Phylogenetic hypotheses of relationships of cypriniforms based on morphology. Higher-level taxon names follow Mayden et al. (2008); see Appendix I for name equivalencies with other studies. A. Phylogenetic relationships from Siebert (1987, Fig. 77). B. Conway & Mayden (2007, Fig. 5C). Psilorhynchus was considered a cyprinid by Siebert (1987). * represents the position of Vaillantella (Vaillantellidae).
FIGURE 5. Bayesian tree, 50 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 5. Bayesian tree, 50% majority rule consensus using Saitoh et al. (2006) outgroups (Appendix III) recovered from 15,002 trees. Nodal values indicate posterior probabilities.
FIGURE 2 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 2. Phylogenetic hypotheses of relationships of cypriniforms based on molecular data. A. Saitoh et al. (2006); B. Mayden et al. (2008).
FIGURE 3 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 3. Strict consensus of parsimony tree using Saitoh et al. (2006) outgroups (Appendix III) recovered from 2,817 equally parsimonious trees. Treelength=292; CI=0.304; RI=0.734. Nodal values indicate bootstrap support.
Figure 7 in Developmental patterns of the crocodilian and avian columella auris: reappraisal of interpretations of the derivation of the dorsal hyoid arch in archosaurian tetrapods
Figure 7. Development of the columella auris and surrounding tissues in Struthio camelus. A–F, day-13 embryo, transverse sections through the external and middle ear region. G, day-15 embryo, postero-left lateral view. H, day-16 embryo, right lateral view. For abbreviations see the Appendix. A–F, histological sections; G and H, whole mounts.
FIGURE 7 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 7. Diagrammatic view of the gill arches (dorsal view, anterior at top) showing possible skeletal elements in cypriniform fishes, excluding pharyngobranchial 1. Dense stippling indicates cartilage; light or no stippling indicates bone.
FIGURE 6. Bayesian tree, 50 in Gill arch and hyoid arch diversity and cypriniform phylogeny: Distributed integration of morphology and web-based tools
FIGURE 6. Bayesian tree, 50% majority rule consensus using Basal outgroups (Appendix III) 15,002 trees. Nodal values indicate posterior probabilities.
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OpenNeuro
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