Find research datasets worth reusing

FIGURE 4 in Nuclear markers support the mitochondrial phylogeny of Vipera ursinii – renardi complex (Squamata: Viperidae) and species status for the Greek meadow viper

FIGURE 4. Species tree of the Vipera ursinii–renardi complex (with V. berus as outgroup) as inferred in *BEAST based on two mitochondrial and three nuclear loci (A); species-tree cloudogram of the complex based on 27 000 post-burn-in trees resulting from 3 runs of *BEAST, each producing 10,000 trees from which 10% was discarded as burn-in. Higher colour densities represent higher levels of certainty. Maximum clade credibility tree is superimposed upon the cloudogram in bold violet (B). Values of posterior probabilities are given. This figure is published in colour in the online version, the colours of the branches correspond with the colour of mitochondrial lineages in Fig. 2A.

FIGURE 1 in Nuclear markers support the mitochondrial phylogeny of Vipera ursinii – renardi complex (Squamata: Viperidae) and species status for the Greek meadow viper

FIGURE 1. Sampled localities inside the approximate distribution area of Vipera ursinii–renardi complex in Europe. Circles indicate sampling localities of Vipera ursinii–renardi complex, and triangles show the sampling of outgroup taxa. A diamond indicates the type locality of Vipera graeca stat. nov. This figure is published in colour in the online version, the colour of the patches corresponds to the colour of mitochondrial lineages in Fig. 2A.

FIGURE 2 in Nuclear markers support the mitochondrial phylogeny of Vipera ursinii – renardi complex (Squamata: Viperidae) and species status for the Greek meadow viper

FIGURE 2. (A) Current mitochondrial Bayesian phylogenetic hypothesis of Vipera ursinii–renardi complex based on CYT B dataset of Ferchaud et al. (2012) and Zinenko et al. (2015); (B) Phylogenetic reconstruction of the concatenated dataset (mtDNA+nDNA genes) obtained in MrBayes/Maximum likelihood (see Table 1). Sequences of Vipera berus (Vbbe-HU, Vbbo-AL, Vbni-RO) included as outgroup are not shown. Bayesian posterior probabilities/bootstrap pseudoreplicates are shown at nodes; (C) SplitsTree phylogenetic network (Huson & Bryant 2006) of the dataset for five mitochondrial and nuclear loci sequenced in the present study using the neighbornet algorithm. Asterisks in Fig. 2C indicate both phased sequences in one branch. Numbers along the edges are the bootstrap support values from 1000 replicates. The scale bar indicates one substitution per one hundred nucleotide positions. Taxon names of the phylogenetic network correspond with the Table 1. Inset shows a male Greek Meadow Viper from Dhëmbel Mountains, Albania.

FIGURE 3 in Nuclear markers support the mitochondrial phylogeny of Vipera ursinii – renardi complex (Squamata: Viperidae) and species status for the Greek meadow viper

FIGURE 3. Nuclear allele networks of the three analysed nuclear loci. Circle sizes are proportional to the number of samples/ sequences, small black circles indicate hypothetical haplotypes (alleles). This figure is published in colour in the online version, the colour of the circles in the network corresponds to the colour of mitochondrial lineages in Fig. 2A.

FIGURE 8 in Assessment of the Linnaean type material of the Nose-horned viper, Vipera ammodytes (Linnaeus, 1758)

FIGURE 8. Page from the Royal Swedish Academy of Sciences (KVA) donation catalogue with the Carleson donation entry on 4 October 1746.

FIGURE 4. Coluber ammodytes specimen UPSZTY 95 in Assessment of the Linnaean type material of the Nose-horned viper, Vipera ammodytes (Linnaeus, 1758)

FIGURE 4. Coluber ammodytes specimen UPSZTY 95, collected by Carleson. Details of the lateral side of the head right and left; dorsolateral view of the whole specimen; frontal view of the rostral area; and dorsal view of the head.

FIGURE 7 in Assessment of the Linnaean type material of the Nose-horned viper, Vipera ammodytes (Linnaeus, 1758)

FIGURE 7. Relative position of the lectotype in the projection of the first and the second correspondence axes (qualitative data). Use of names in this figure follows Tomovic (2006) and Hempel et al. (2018).

FIGURE 6 in Assessment of the Linnaean type material of the Nose-horned viper, Vipera ammodytes (Linnaeus, 1758)

FIGURE 6. Relative position of the lectotype in the projection of the first and the second canonical axes (size-adjusted morphometric and meristic data). Use of names in this figure follows Tomovic (2006) and Hempel et al. (2018).

FIGURE 3 in Assessment of the Linnaean type material of the Nose-horned viper, Vipera ammodytes (Linnaeus, 1758)

FIGURE 3. Plate from the dissertation by Linnaeus & Sundius (1748) with Figure II depicting the Coluber ammodytes specimen.

Figure 4 in Voluntary thermal maximum of grassland vipers (Vipera spp.): environmental drivers and local adaptation

Figure 4. Mitochondrial phylogeny of grassland vipers and their predicted (pVTmax) upper thermal tolerance. Pale circles indicate pVT max at presence localities and large dots and error bars show mean ± SE of pVT max.

Figure 3 in Voluntary thermal maximum of grassland vipers (Vipera spp.): environmental drivers and local adaptation

Figure 3. Observed (VTmax) and predicted (pVTmax) upper thermal tolerance of grassland vipers (mean ± SE). The pVTmax is the prediction of the random forest model fitted using environmental variables. Error bars show SE and the dashed line indicates 1:1 line.

Figure 2 in Voluntary thermal maximum of grassland vipers (Vipera spp.): environmental drivers and local adaptation

Figure 2. Phylogenetic relationship of the studied taxa and the corresponding distribution of VT max. Black vertical lines indicate peak value (eVTmax).

Figure 1 in Voluntary thermal maximum of grassland vipers (Vipera spp.): environmental drivers and local adaptation

Figure 1. Distribution records of grassland vipers used in the study (white dots) and approximate distribution of their range (polygons) according to the taxonomy in Freitas et al. (2020). Numbered points and taxon names in yellow letters indicate populations measured for VT max and white dots indicate locations used to extract environmental data and estimate pVT max. Photos by E. Mizsei.

opencc-by-4.0Dec 2018View details →

Seasonal variation of mortality, detectability and body condition in a population of the adder (Vipera berus)

Raw data used in paper by Dirk Bauwens & Katja Claus. 2019. Seasonal variation of mortality, detectability and body condition in a population of the adder (Vipera berus). Ecology and Evolution 9:5821–5834. DOI: 10.1002/ece3.5166      CH_data_Season_males.INP A text file with extension .INP for input in the program MARK (White & Burnham, 1999; Cooch & White, 2015), containing the capture-recapture histories of individual adult male adders (n = 1146). Each 52-digit string contains a 1-digit score (1/0 ; captured / not captured) per season (1-4) and year of study (2005 – 2017). CH_data_Season_females.INP A text file with extension .INP for input in the program MARK (White & Burnham, 1999; Cooch & White, 2015), containing the capture-recapture histories, including breeding status of individual adult female adders (n = 832). Each 39-digit string contains a 1-digit score (B/N/0 ; Breeding / Non-breeding / not captured) per season (1-3) and year of study (2005 – 2017).

FIGURE 21. Vipera coronis rudolphoides. Paratype, ZMB 31311 in An account of the generic and specific names, and type specimens of viperid taxa described by Albert Franz Theodor Reuss (Squamata: Viperidae)

FIGURE 21. Vipera coronis rudolphoides. Paratype, ZMB 31311. General view. Photograph by Daniel Bohle.

FIGURE 20. Vipera coronis rudolphoides. Holotype, ZMB 31313 in An account of the generic and specific names, and type specimens of viperid taxa described by Albert Franz Theodor Reuss (Squamata: Viperidae)

FIGURE 20. Vipera coronis rudolphoides. Holotype, ZMB 31313. General view. Photograph by Daniel Bohle.

FIGURE 3. Vipera aspis rudolphiitalica. Holotype, MZUT R504 in An account of the generic and specific names, and type specimens of viperid taxa described by Albert Franz Theodor Reuss (Squamata: Viperidae)

FIGURE 3. Vipera aspis rudolphiitalica. Holotype, MZUT R504. General view. Photograph by Andreone Franco.

FIGURE 16. Vipera coronis nigroides. Lectotype, ZMB 29648 in An account of the generic and specific names, and type specimens of viperid taxa described by Albert Franz Theodor Reuss (Squamata: Viperidae)

FIGURE 16. Vipera coronis nigroides. Lectotype, ZMB 29648. General view. Photograph by Daniel Bohle.

FIGURE 17. Vipera coronis nigroides. Paralectotype, ZMB 30383 in An account of the generic and specific names, and type specimens of viperid taxa described by Albert Franz Theodor Reuss (Squamata: Viperidae)

FIGURE 17. Vipera coronis nigroides. Paralectotype, ZMB 30383. General view. Photograph by Daniel Bohle.