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36 results for “Australoheros”
FIGURE 19 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 19. Relationships among species of Australoheros (from Říċan and Kullander, 2006) with optimization of the number of caudal vertebrae. A. Maximum parsimony topology. B. Constrained topology produced by forcing the morphological data set to produce a tree in agreement with the cytb tree of Říċan and Kullander (2006).
FIGURE 17 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 17. Lower pharyngeal jaw of a dissected specimen of Australoheros guarani, NRM 33498, in (top to bottom) occlusal, caudal and left lateral aspect.
FIGURE 16. Australoheros guarani. Holotype, MHNG 2237.58, 129.1 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 16. Australoheros guarani. Holotype, MHNG 2237.58, 129.1 mm SL, Río Guyrau-gua, Río Paraná drainage, Paraguay.
FIGURE 15. Australoheros minuano. Holotype, MCP 12710 C, 70.8 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 15. Australoheros minuano. Holotype, MCP 12710 C, 70.8 mm SL, Arroyo Canoin, Rio Uruguai drainage, Brazil.
FIGURE 12 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 12. Head and snout shape differences among species of Australoheros The mouth has to be completely closed in the preserved fish to observe the sometimes slight differences.
FIGURE 13. Australoheros kaaygua. MCP 13937, 73.2 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 13. Australoheros kaaygua. MCP 13937, 73.2 mm SL, Rio Jacutinga, Rio Uruguai drainage, Brazil.
FIGURE 20 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 20. Combined distributions of Australoheros and Crenicichla in the Rio Uruguay drainage. Two shaded areas represent the whole known distribution areas of Crenicichla species marked with 1 (C. celidochilus) and 2 (C. jurubi, C. igara and C. prenda).
FIGURE 14 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 14. Collecting localities of Australoheros kaaygua and A. minuano (the kaaygua group). A symbol may cover more than one collecting site.
FIGURE 8 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 8. Differences in squamation among Australoheros species, showing two extreme situations. A, A. forquilha, B, A. facetus. Note the shorter basal scale row at the base of the dorsal fin, less scaled dorsal and anal fins, and less scale rows between the upper lateral line and the dorsal fin (both anteriorly and posteriorly) in A. facetus.
FIGURE 9 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 9. Differences in squamation among Australoheros species. A, A. forquilha, B, A. sp. "Jacui", C, A. tembe, D, A. kaaygua, E, A. charrua, F, A. scitulus, G, A. guarani, H, A. minuano, I, A. facetus.
FIGURE 7 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 7. Preorbital distance plotted against standard length, showing clear separation of A. forquilha from the remaining species.
FIGURE 18 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 18. Relationships among species of Australoheros (see Říċan and Kullander, 2006) with optimization of the number of abdominal bars. Drawings show juveniles with developing abdominal bars. A. Maximum parsimony topology, where state 1 is a synapomorphy of Australoheros, shown as the division of the abdominal bar in front of the midlateral blotch to produce two adult bars. The three abdominal bars in the A. kaaygua – A. charrua – A. scitulus group are optimized as a character reversal, and these three species do show only three abdominal bars also in juvenile stages (character state 0, indistinguishable from the ancestral condition). B. Enforced topology produced by forcing the morphological data set to produce a tree in agreement with the cytb tree of Říċan and Kullander (2006). C. Photos show adult specimens demonstrating character states 2–4, describing the variation in the character (partial tree dissected from the unconstrained MP topology in Fig. 198). 13–2 A. minuano, 13–3 A. facetus, 13–4 A. cf. facetus.
FIGURE 10 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 10. Lower pharyngeal jaw of a dissected specimen of Australoheros cf. forquilha, ZSM 23060 G, in (top to bottom) occlusal, caudal and left lateral aspect.
FIGURE 6 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 6. Interorbital distance plotted against standard length, showing clear separation of A. forquilha from the remaining species.
FIGURE 11. Australoheros charrua. Holotype, MCP 13938, 77.9 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 11. Australoheros charrua. Holotype, MCP 13938, 77.9 mm SL, Arroyo Canoin, Rio Uruguai drainage, Brazil.
FIGURE 3 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 3. Collecting localities of Australoheros forquilha and A. tembe (the forquilha group). A symbol may cover more than one collecting site.
FIGURE 4. Australoheros forquilha. Holotype, MCP 13936 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 4. Australoheros forquilha. Holotype, MCP 13936, male, 110.4 mm SL, Rio Forquilha, Rio Uruguai drainage, Brazil.
FIGURE 1 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 1. Collecting localities of Australoheros guarani and A. facetus (the facetus group). A symbol may cover more than one collecting site.
FIGURE 2 in The Australoheros (Teleostei: Cichlidae) species of the Uruguay and Paraná River drainages
FIGURE 2. Collecting localities of Australoheros charrua and A. scitulus (the scitulus group). A symbol may cover more than one collecting site.
FIGURE 10 in Two new species of Australoheros (Teleostei: Cichlidae), with notes on diversity of the genus and biogeography of the Río de la Plata basin
FIGURE 10. Map of the middle Río de la Plata basin. Distributions of the two new species (A. angiru and A. ykeregua) and their relatives, as well as five areas of endemism are shown. Percent values and corresponding arrows demonstrate sequence divergences in the cytb gene (see Fig. 2) between the species and areas of endemism in the río Iguazú and río Uruguay river drainages (plus the arroyo Urugua–í). Divergence of A. ykeregua from its sister species A. forquilha is 2.3%. This divergence probably represents the minimum age of the Salto Moconá. Divergence of A. kaaygua from its sister species A. tembe is 3.8%, and of A. angiru from A. tembe is similarly 3.6–3.7%. This probably represents the age of the division of the arroyo Urugua–í from the río Iguazú. Divergence of A. angiru from its sister species A. minuano is 4.2%. This is likely a divergence of the rio Iguaçu and río Uruguay drainages. Divergence of A. angiru from A. kaaygua (4.8%), two unrelated species endemic to the río Iguazú river drainage, demonstrates an old divergence within the Iguazú drainage basin itself. See Discussion for more detailed description of the biogeography.
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