FIGURE 14. Neighbour-Joining tree of 16S rDNA haplotypes (462 bp) of Aspidoscelis species. Bootstrap values (%) obtained by the NJ, ML and MP are shown. The substitution model selected for ML was the GTR model with rate variation among sites (+G), a proportion of invariable sites I = 0.4604 and a gamma distribution shape parameter of 0.4453. Asterisks indicate taxon with paraphyletic haplotypes
Single-locus molecular barcoding is a useful method for identifying overlooked and undescribed biodi...
FIGURE 3A. Phylogenetic tree of the genus Marisora from a maximum-likelihood analysis of DNA sequenc...
Delimiting and describing species is fundamental to numerous biological disciplines such as evolutio...
FIGURE 8. Neighbour-Joining tree of 16S rDNA haplotypes (455 bp) of Urosaurus species. Bootstrap val...
FIGURE 2. Photos of studied species from the study area. A, Gerrhonotus cf. liocephalus; B, Coleonyx...
FIGURE 5. Karyotype of Hemidactylus frenatus, female (2n = 40 and FN = 54).Published as part of Cast...
FIGURE 2. Phylogenetic tree of diploglossid lizards based on sequences of nine genes: four mitochond...
FIGURE 6. Karyotypes of Sceloporus melanorhinus; specimen CEAC15 male (2n = 39). Sex chromosomes are...
FIGURE 9. Karyotype of Norops nebulosus, male (2n=30). Note the three pairs of heteromorphic chromos...
Fig. 8. Four or five generations represented by specimens of Aspidoscelis neomexicana 3 A. sexlineat...
FIGURE 1. Phylogenetic tree of lizards of the Cnemidophorus lemniscatus complex from a maximum-likel...
FIGURE 14. Maximum parsimony (upper) and maximum likelihood trees (lower) of Tropidurus based on fou...
Single-locus molecular barcoding is a useful method for identifying overlooked and undescribed biodi...
Figure 5. Neighbour-joining tree constructed based on maximum likelihood distances from 1503 alignab...
FIGURE 2. Multi-locus species tree from Grummer et al. (2014) derived from coalescent-based analyses...
Single-locus molecular barcoding is a useful method for identifying overlooked and undescribed biodi...
FIGURE 3A. Phylogenetic tree of the genus Marisora from a maximum-likelihood analysis of DNA sequenc...
Delimiting and describing species is fundamental to numerous biological disciplines such as evolutio...
FIGURE 8. Neighbour-Joining tree of 16S rDNA haplotypes (455 bp) of Urosaurus species. Bootstrap val...
FIGURE 2. Photos of studied species from the study area. A, Gerrhonotus cf. liocephalus; B, Coleonyx...
FIGURE 5. Karyotype of Hemidactylus frenatus, female (2n = 40 and FN = 54).Published as part of Cast...
FIGURE 2. Phylogenetic tree of diploglossid lizards based on sequences of nine genes: four mitochond...
FIGURE 6. Karyotypes of Sceloporus melanorhinus; specimen CEAC15 male (2n = 39). Sex chromosomes are...
FIGURE 9. Karyotype of Norops nebulosus, male (2n=30). Note the three pairs of heteromorphic chromos...
Fig. 8. Four or five generations represented by specimens of Aspidoscelis neomexicana 3 A. sexlineat...
FIGURE 1. Phylogenetic tree of lizards of the Cnemidophorus lemniscatus complex from a maximum-likel...
FIGURE 14. Maximum parsimony (upper) and maximum likelihood trees (lower) of Tropidurus based on fou...
Single-locus molecular barcoding is a useful method for identifying overlooked and undescribed biodi...
Figure 5. Neighbour-joining tree constructed based on maximum likelihood distances from 1503 alignab...
FIGURE 2. Multi-locus species tree from Grummer et al. (2014) derived from coalescent-based analyses...
Single-locus molecular barcoding is a useful method for identifying overlooked and undescribed biodi...
FIGURE 3A. Phylogenetic tree of the genus Marisora from a maximum-likelihood analysis of DNA sequenc...
Delimiting and describing species is fundamental to numerous biological disciplines such as evolutio...