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FIGURE 8 in Cytotaxonomy and DNA taxonomy of lizards (Squamata, Sauria) from a tropical dry forest in the Chamela-Cuixmala Biosphere Reserve on the coast of Jalisco, Mexico
FIGURE 8. Neighbour-Joining tree of 16S rDNA haplotypes (455 bp) of Urosaurus species. Bootstrap values (%) obtained by the NJ, ML and MP are shown. The substitution model selected for ML was Tamura-Nei model (Tamura & Nei 1993) with rate variation among sites (+G), and a gamma distribution shape parameter of 0.0855.
FIGURE 3 in Cytotaxonomy and DNA taxonomy of lizards (Squamata, Sauria) from a tropical dry forest in the Chamela-Cuixmala Biosphere Reserve on the coast of Jalisco, Mexico
FIGURE 3. Neighbour-Joining tree of 16S rDNA haplotypes (511 bp) of Gerrhonotus species. Bootstrap values (%) obtained by the NJ, ML and MP are shown. The substitution model selected for ML was the Hasegawa, Kishino, Yano (HKY) model (Hasegawa et al. 1985) with rate variation among sites (+G), and a gamma distribution shape parameter of 0.2997.
FIGURE 11 in Cytotaxonomy and DNA taxonomy of lizards (Squamata, Sauria) from a tropical dry forest in the Chamela-Cuixmala Biosphere Reserve on the coast of Jalisco, Mexico
FIGURE 11. Neighbour-Joining tree of 16S rDNA haplotypes (518 bp) of Plestiodon species. Bootstrap values (%) obtained by the NJ, ML and MP are shown. The substitution model selected for ML was the Generalised time reversible (GTR) model with rate variation among sites (+G), a proportion of invariable sites I = 0.5020 and a gamma distribution shape parameter of 0.3681.
FIGURE 2 in Cytotaxonomy and DNA taxonomy of lizards (Squamata, Sauria) from a tropical dry forest in the Chamela-Cuixmala Biosphere Reserve on the coast of Jalisco, Mexico
FIGURE 2 (continued). I–J, Anolis nebulosus; K, Mabuya unimarginata; L. Plestiodon parvulus; M, Ameiva undulata; N, Aspidoscelis communis (young); O, Aspidoscelis lineattissima (young).
FIGURE 6 in Cytotaxonomy and DNA taxonomy of lizards (Squamata, Sauria) from a tropical dry forest in the Chamela-Cuixmala Biosphere Reserve on the coast of Jalisco, Mexico
FIGURE 6. Karyotypes of Sceloporus melanorhinus; specimen CEAC15 male (2n = 39). Sex chromosomes are tentatively identified following Hall (1973, 2009).
FIGURE 7 in Cytotaxonomy and DNA taxonomy of lizards (Squamata, Sauria) from a tropical dry forest in the Chamela-Cuixmala Biosphere Reserve on the coast of Jalisco, Mexico
FIGURE 7. Karyotype of Sceloporus utiformis, male (2n = 34). The smaller microchromosome represents the Y chromosome. The X chromosome is another unidentified microchromosome.
FIGURE 2 in Cytotaxonomy and DNA taxonomy of lizards (Squamata, Sauria) from a tropical dry forest in the Chamela-Cuixmala Biosphere Reserve on the coast of Jalisco, Mexico
FIGURE 2. Photos of studied species from the study area. A, Gerrhonotus cf. liocephalus; B, Coleonyx elegans; C, Phyllodactylus lanei; D, Hemidactylus frenatus; E, Sceloporus utiformis; F, Sceloporus utiformis (young); G, Sceloporus melanorhinus; H, Sceloporus melanorhinus (young).
FIGURE 34 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 34. Distribution ranges of the Philippine species of the V. s a l va t o r complex according to the morphological investigations presented here: V. marmoratus = red; V. nuchalis = blue; V. palawanensis sp. nov. = green; V. rasmusseni sp. nov. = black; V. c. cumingi = yellow; and V. c. s a m a re n s i s ssp. nov. = purple. Question marks denote the water monitor populations from Mindoro, Basilan, and northern Borneo of unknown taxonomic status. The grey shaded areas indicate the paleo-shorelines of several Pleistocene aggregate island complexes, which today, form biogeographic subregions of the Philippines: I = Greater Palawan; II = Greater Luzon; III = Greater Negros–Panay; IV = Greater Mindanao; and V = Greater Sulu. Map modified after Gaulke (in press).
FIGURE 23 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 23. Ventral view of the juvenile paratype (ZFMK 89391) of V. rasmusseni sp. nov. Photo by André Koch.
FIGURE 26 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 26. Ventral view of the holotype (SMF 73912) of V. palawanensis sp. nov. Photo by André Koch.
FIGURE 27 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 27. Portrait of the holotype (SMF 73912) of V. palawanensis sp. nov. Note the ill-defined temporal stripe and the dark pigmentation on the dorsal and ventral side of the tongue. Photo by André Koch.
FIGURE 20 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 20. Ventral view of the adult holotype (ZMUC R42151) of V. rasmusseni sp. nov. Photo by André Koch.
FIGURE 19 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 19. Dorsal view of the adult holotype (ZMUC R42151) of V. rasmusseni sp. nov. Note the lack of colour pattern. Photo by André Koch.
FIGURE 15 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 15. Dorsal view of the subadult lectotype (ZMB 470) of V. marmoratus Wiegmann, 1834 from Luzon. Photo courtesy of Mark-Oliver Rödel and Frank Tillack.
FIGURE 13 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 13. Dorsal view of the female paratype (ZFMK 64712) of V. cumingi samarensis ssp. nov. Photo by André Koch.
FIGURE 17 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 17. Dorsal view of a juvenile V. marmoratus (ZFMK 73333) from Polillo Island east off central Luzon. Note the reduced second transverse row of large bright spots. Photo by André Koch.
FIGURE 22 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 22. Dorsal view of the juvenile paratype (ZFMK 89391) of V. rasmusseni sp. nov. The colour pattern of many small bright spots scattered across the dorsum is unique among the members of the V. s a l v a t o r complex. Photo by André Koch.
FIGURE 18. V in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 18. V. cf. marmoratus from Mindoro. Note the enlarged nuchal scales of this specimen. Photo by Maren Gaulke.
FIGURE 12 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 12. Asulcal view of the hemipenes of ZFMK 64713, the holotype of V. cumingi samarensis ssp. nov. Photo by André Koch.
FIGURE 10 in Unravelling the underestimated diversity of Philippine water monitor lizards (Squamata: Varanus salvator complex), with the description of two new species and a new subspecies
FIGURE 10. Ventral view of the male holotype (ZFMK 64713) of V. cumingi samarensis ssp. nov. Photo by André Koch.
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Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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