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Supplementary material 2 from: Venegas PJ, Chávez G, García-Ayachi LA, Duran V, Torres-Carvajal O (2021) A new species of wood lizard (Hoplocercinae, Enyalioides) from the Río Huallaga Basin in Central Peru. Evolutionary Systematics 5(2): 263-273. https://doi.org/10.3897/evolsyst.5.69227
Table S1
Supplementary material 1 from: Venegas PJ, Chávez G, García-Ayachi LA, Duran V, Torres-Carvajal O (2021) A new species of wood lizard (Hoplocercinae, Enyalioides) from the Río Huallaga Basin in Central Peru. Evolutionary Systematics 5(2): 263-273. https://doi.org/10.3897/evolsyst.5.69227
Material examined
Fig. 24 in Natural Hybridization Between the Teiid Lizards Cnemidophorus tesselatus (Parthenogenetic) and C. tigris marmoratus (Bisexual): Assessment of Evolutionary Alternatives
Fig. 24. Multivariate association of nine putative male C. tesselatus X C. tigris marmoratus hybrids from several disparate localities with hybrids from Arroyo del Macho. Canonical variate scores were derived from a quadratic canonical variate analysis of three meristic characters (FP, GAB, and SDLT4— those characters with complete data for all nine putative hybrids). Open symbols depict 84 individuals collected in the vicinity of Arroyo del Macho, Chaves Co., New Mexico: O, 38 C. tesselatus; Z, 26 C. tigris marmoratus; #, 20 hybrids; *, 9 suspected hybrids from other localities. Ellipses define the 95% confidence limits of each group. Compare with figure 8.
FIGURE 3 in Hybridization between Whiptail Lizards in Texas: Aspidoscelis laredoensis and A. gularis, with Notes on Reproduction of a Hybrid
FIGURE 3. Electrophoretic phenotypes of 12 lizards. Left. EST-D, a dimeric enzyme. Right. PEP-B, a dimeric enzyme. For each photograph, letters below the gel identify allozymes based on alleles present (table 1). Lanes for individual lizards are labeled beside the gel (with genotype), as follows: LARA, A. laredoensis pattern class A; LARA*, variants of LARA for EST-D that were identical to all the other specimens of LARA at all other loci (e.g., PEP-B); LARA X GUL, natural hybrid of A. laredoensis × A. gularis; LARB, A. laredoensis pattern class B; GUL, A. gularis; SEX, A. sexlineatus. Anode is to the right; arrow indicates position of sample application for EST-D.
Fig. 10 in Hybridization Between the Endangered Unisexual Gray-Checkered Whiptail Lizard (Aspidoscelis dixoni) and the Bisexual Western Whiptail Lizard (Aspidoscelis tigris) in Southwestern New Mexico
Fig. 10. Relationship between number of A. dixoni C and number of A. tigris punctilinealis found at each of the trap sites at which either A. dixoni or A. t. punctilinealis or both were found in Antelope Pass, Hidalgo County, New Mexico. Of 23 sites (table 6), the two with the most examples of A. dixoni (N 5 55 each) had only one individual of A. t. punctilinealis each, and the rest of the sites with dixoni, except for three, had fewer than 10 punctilinealis each.
Figure 12 in Opening a box of cryptic taxa - the first review of the North African desert lizards in the Trapelus mutabilis Merrem, 1820 complex (Squamata: Agamidae) with descriptions of new taxa
Figure 12. Neotype (ZFMK 77470) of Trapelus savignii Duméril & Bibron, 1837.
Figure 10 in Opening a box of cryptic taxa - the first review of the North African desert lizards in the Trapelus mutabilis Merrem, 1820 complex (Squamata: Agamidae) with descriptions of new taxa
Figure 10. Live male of Trapelus boehmei sp. nov. of the ZFMK-type series from the type locality.
Figure 8 in Opening a box of cryptic taxa - the first review of the North African desert lizards in the Trapelus mutabilis Merrem, 1820 complex (Squamata: Agamidae) with descriptions of new taxa
Figure 8. Holotype (ZFMK 2590) of Trapelus schmitzi Wagner & Böhme, 2007.
Figure 7 in The skull of the gymnophthalmid lizard Neusticurus ecpleopus (Reptilia: Squamata)
Figure 7. Neusticurus ecpleopus. Cranial elements (MVZ 163394); A–C, right quadrate, in A, lateral view; B, posterior view; C, dorsal view; D, left jugal, lateral view; E, left postfrontal + postorbital, lateral view; F, partial medial view of elements from E; G,H, left prefrontal in G, lateral and H, partial posterior views. Abbreviations: co, conch; J.ft, jugal facet; l.fl, lacrimal flange; l.n, lacrimal notch; mx.ft, maxillary facet; onf, border of orbitonasal foramen; Pa.pr, palatine process; Pfr, postfrontal; Po, postorbital; Po.lp, postorbital lappet; Sq.n, squamosal notch; ty.cr, tympanic crest. Scale bar = 1 mm.
Figure 10 in The skull of the gymnophthalmid lizard Neusticurus ecpleopus (Reptilia: Squamata)
Figure 10. Neusticurus ecpleopus. Right prootic (MVZ 163394) in A, lateral; B, medial; and C, posteromedial views. Abbreviations: ac.r, acoustic recess; al.pr, alar process; am.r, ampullary recess (anterior and horizontal semicircular canals); asc, path of anterior semicircular canal; ca.c, cavum capsularis; co.ca, cochlear cavity; cr.pro, crista prootica; en.g, groove leading into canal for endolymphatic duct (enters supraoccipital); f.o, fenestra ovalis; f.7, facial foramen (cranial nerve VII); f.8, foramen for vestibulocochlear nerve (cranial nerve VIII); hsc, path for horizontal semicircular canal; pd.g, groove for perilymphatic duct. Scale bar = 1 mm.
Figure 12 in The skull of the gymnophthalmid lizard Neusticurus ecpleopus (Reptilia: Squamata)
Figure 12. Neusticurus ecpleopus. Right lower jaw ramus (MVZ 163394) in A, medial; B, lateral; and C, partial dorsal views. Abbreviations: add.fs, adductor fossa; a.i.f, anterior inferior foramen; a.m.f, anterior mylohyoid foramen; An, angular; An.pr, angular process; Art, articular; Art.s, articular surface for quadrate; Cor, coronoid; D, dentary; f.ch.ty, foramen for chorda tympani branch of facial nerve (cranial nerve VII); lb.fl, labial flange of coronoid; n.f, nutrient foramina; rapr, retroarticular process; San, surangular; San.cr, surangular crest; San.f, surangular foramen; Spl, splenial. Scale bar = 1 mm.
Figure 14 in A multivariate analysis of the fringe-toed lizards of the Acanthodactylus scutellatus group (Squamata: Lacertidae): systematic and biogeographical implications
Figure 14. Snout-vent length of males in our samples of continental Sahara Acanthodactylus dumerili and A. scutellatus audouini.
Figure 13 in A multivariate analysis of the fringe-toed lizards of the Acanthodactylus scutellatus group (Squamata: Lacertidae): systematic and biogeographical implications
Figure 13. Geographic distribution of Acanthodactylus scutellatus in the Sahara (thus excluding part of the species range, see text). Dotted lines indicate the approximate limits of the distribution of A. dumerili. Data from Salvador (1982), Baha El Din (1994), Joger & Lambert (1996), Nouïra (1996), this study.
Figure 6 in A multivariate analysis of the fringe-toed lizards of the Acanthodactylus scutellatus group (Squamata: Lacertidae): systematic and biogeographical implications
Figure 6. Box plots of the PC1 scores for different geographical samples of Acanthodactylus dumerili (our new acceptance of the species, corresponding to A. d. exiguus and 'specimens intermediate between dumerili and exiguus' in Salvador, 1982). The PCA was run on both sexes together using the 12 morphological characters employed in the other PCAs.
Figure 1 in A multivariate analysis of the fringe-toed lizards of the Acanthodactylus scutellatus group (Squamata: Lacertidae): systematic and biogeographical implications
Figure 1. Locality of the stations where specimens of Acanthodactylus group scutellatus were collected in coastal Mauritania.
Figure 17 in A multivariate analysis of the fringe-toed lizards of the Acanthodactylus scutellatus group (Squamata: Lacertidae): systematic and biogeographical implications
Figure 17. Geographical distribution of Acanthodactylus senegalensis. Dotted lines indicate the approximate limits of the distribution of A. dumerili. Data from Böhme (1978), Salvador (1982), this study.
Data from: Reproductive tradeoffs and phenotypic selection change with body condition, but not with predation regime, across island lizard populations
<p>Tradeoffs between reproduction and survival are central to life-history theory and are expected to shape patterns of phenotypic selection, but the ecological factors structuring these tradeoffs and resultuant patterns of selection are generally unknown. We manipulated reproductive investment and predation regime in island populations of brown anole lizards (<em>Anolis sagrei</em>) to test (1) whether previously documented increases in the survival of experimentally non-reproductive females (OVX = ovariectomy) reflect the greater susceptibility of reproductive females (SHAM = control) to predation, and (2) whether phenotypic selection differs as a function of reproductive investment and predation regime. OVX females exceeded SHAM controls in growth, mass gain, and body condition, indicating pronounced energetic costs of reproduction. Although mortality was greatest in the presence of bird and snake predators, differences in survival between OVX and SHAM were unrealted to predation regime, as were patterns of natural selection on body size. Instead, we found that body condition at the conclusion of the experiment differed significantly across populations, suggesting that local environments varied in their ability to support mass gain and positive energy balance. As mean body condition improved across populations, the magnitude of the survival cost of reproduction increased, linear selection on body size shifted from positive to negative, and quadratic selection shifted from stabilizing to weakly disruptive. Our results suggest that reproductive tradeoffs and patterns of phenotypic selection in female brown anoles are more sensitive to inferred variation in environmental quality than to experimentally induced variation in predation.</p>
FIGURE 4 in Eremias papenfussi sp. nov., a new lacertid lizard (Sauria: Lacertidae) from Tehran Province, Iran
FIGURE 4. Habitat at the type locality of Eremias papenfussi sp. nov.
FIGURE 3 in Eremias papenfussi sp. nov., a new lacertid lizard (Sauria: Lacertidae) from Tehran Province, Iran
FIGURE 3. Eremias papenfussi sp. nov. in its natural habitat.
FIGURE 2. Outer GBR and Lizard Island collection sites 19 –21 in Lizard Island Polychaete Workshop: sampling sites and a checklist of polychaetes
FIGURE 2. Outer GBR and Lizard Island collection sites 19 –21, listed in Table 2.
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Allen Brain Atlas
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