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12 results for “Vombatus ursinus”
FIG. 24. Vombatus ursinus AMNH M-176103 in Transverse Canal Foramen And Pericarotid Venous Network In Metatheria And Other Mammals
FIG. 24. Vombatus ursinus AMNH M-176103 (Vombatidae, Diprotodontia), adult caudal cranium in A, ventral; B, oblique caudolateral, and C, endocranial aspects. In C, RBTC canals are notably large (fig. 25B) and sharply define rostral border of deep hypophyseal fossa. Key: astp, tympanic process of alisphenoid; bjs, basijugular sulcus; BO, basioccipital; BS, basisphenoid; cbf, foramen for caudal branch of transverse canal vein; cc, carotid canal; ccs, exocranial sulcus leading to carotid canal; cchf, caudal condylohypoglossal foramen; cpf, craniopharyngeal foramen; cspf, craniospinal foramen; encg, endocranial carotid groove; etcl, eminence formed by junction of rostral branches of transverse canals; evpf, foramen for extracranial continuation of
FIG. 25. Vombatus ursinus TMM M-2953 in Transverse Canal Foramen And Pericarotid Venous Network In Metatheria And Other Mammals
FIG. 25. Vombatus ursinus TMM M-2953 (Vombatidae, Diprotodontia), adult caudal cranium, selected coronal segments in rostrocaudal order (data source, table 2). In A–C, large transverse canals meet in midline junction (cf. Phascolarctos, Aplin, 1990: 255). In D–G, note large right and left conduits for caudal branches of transverse canal, traceable bilaterally from caudal branch foramen in endocranial carotid groove to terminus in transverse canal trunk. Key: AS, alisphenoid; BS, basisphenoid; cbs, sulcus for caudal branch, leading into caudal branch foramen; cbtc, canal for caudal branch of transverse canal; cc, carotid canal; cpc, craniopharyngeal canal; cpf, craniopharyngeal foramen; ctbs, caudal portion of transverse basisphenoid sinus; encf, endocranial carotid foramen; encg, endocranial carotid groove; excf, exocranial carotid foramen; hpf,
Figure 8 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 8. Architectural parameters of muscle groups crossing the shoulder, elbow, and wrist in the koala (K) and the common wombat (W). The less y axis relates to stacked bars and shows (A) summed PCSA and (B) mean fascicle length (normalized by body mass). The right y axis relates to circle (koala) and square (wombat) points, and shows the ratio between these PCSA and FL values for each antagonistic muscle group, as a measure of relative emphasis placed by these species on opposing actions at each of the forelimb joints. Muscles assigned to each functional group are detailed in Table 5.
Figure 4 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 4. Muscle aưachment sites on the right humerus of the koala (A) and common wombat (B) in lateral, cranial, medial, and caudal views. For abbreviations see Table 2. Articulated versions of these muscle maps are available in the Supporting Information, Model S2.
Figure 7 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 7. Functional morphospace showing PCSA and fascicle length values for muscles of the forelimb in the (A) koala and the (B) common wombat. Values have been normalized by individual body mass. For abbreviations see Table 2.
Figure 1 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 1. Muscle topology of the right forelimb of the (A) koala and the (B) common wombat in lateral view at sequential depths of dissection from superficial (top) to deep (boưom). For abbreviations see Table 2. An interactive version of this figure is available in the Supporting Information, Model S1.
Figure 3 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 3. Muscle aưachment sites on the right scapula of the koala (A) and common wombat (B) in lateral, medial, distal, and inferior views. For abbreviations see Table 2. Articulated versions of these muscle maps are available in the Supporting Information, Model S2.
Figure 2 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 2. Muscle topology of the right forelimb of the (A) koala and the (B) common wombat in medial view at sequential depths of dissection from superficial (top) to deep (boưom). For abbreviations see Table 2. An interactive version of this figure is available in the Supporting Information, Model S1.
Figure 6 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 6. Muscle aưachment sites on the right manus of the koala (A) and common wombat (B) in ulnar, dorsal, radial, and palmar views. For abbreviations see Table 2. Articulated versions of these muscle maps are available in the Supporting Information, Model S2.
Figure 5 in Hanging on and digging deep: comparative forelimb myology of the koala (Phascolarctos cinereus) and common wombat (Vombatus ursinus)
Figure 5. Muscle aưachment sites on the right radius and ulna of the koala (A) and the common wombat (B) in lateral, cranial, medial, and caudal views. For abbreviations see Table 2. Articulated versions of these muscle maps are available in the Supporting Information, Model S2.
Data from: Isolation, marine transgression, and translocation of the bare-nosed wombat (Vombatus ursinus)
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Vombatus ursinus Australia. Photo: Pat Morris/ardea.com in Vombatidae
Vombatus ursinus Australia. Photo: Pat Morris/ardea.com
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