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FIGURE 4 in A new perspective on the molecular dating of the brown trout complex with an extended phylogeographic information on the species in Serbia
FIGURE 4 Median-joining network of CR mtDNA sequences belonging to Danubian haplogroups. Haplotypes are represented by colored circles whose size is proportional to haplotype frequencies detected and taken from the literature (supplementary tables S2 and S3). Haplotypes from this study are bolded and framed. Mutations are represented by hatch marks on the lines connecting the haplotypes. Missing or theoretical haplotypes are shown as black dots. The maps show the distribution of haplotypes from the network (A – DA-ES haplotypes, B – DA-INT haplotypes, C – DA-BS haplotypes), and their numbering corresponds to that in supplementary table S2.
FIGURE 3 in A new perspective on the molecular dating of the brown trout complex with an extended phylogeographic information on the species in Serbia
FIGURE 3 Reconstruction of the sequence evolution in the Danubian lineage. Defining variable nucleotide sites in the control region are all placed nearby in the central part of the control region, between the nucleotide positions 540-550 of our alignment. The 542 G → C transversion defines the split of the DAES + DA-INT and the DA-BS; 541 G → A split of the DA-ES + DA-INT (excluding DaBS9) from the DaBS9 haplotype; and 548 C → T defines the DA-ES.
FIGURE 7 in A new perspective on the molecular dating of the brown trout complex with an extended phylogeographic information on the species in Serbia
FIGURE 7 Fossil and geologically calibrated chronogram of the genus Salmo created with a relaxed clock in BEAST 2. 95% highest posterior density (HPD) intervals are shown as gray bars at the nodes. Calibration points are indicated by arrows. Median node ages are shown as node labels. Time estimates are given in millions of years. Clades, that were a priori treated as monophyletic are indicated with a black star, while a red star indicates the clade, where posterior probability was> 90% only in BEAST analysis.
Fig. 3 in Haplotype variation in the Physa acuta group (Basommatophora): genetic diversity and distribution in Serbia Abstract
Fig. 3: Haplotype networks from 43 Physa acuta group specimens, obtained using statistical parsimony (TCS). Circles represent specific haplotypes; the size of the circles reflects the number of individuals with a particular haplotype (not to scale); the dots between the circles represent mutational steps.
Fig. 2 in Haplotype variation in the Physa acuta group (Basommatophora): genetic diversity and distribution in Serbia Abstract
Fig. 2: Phylogenetic trees based on mt16S rDNA, obtained using the Maximum Likelihood (ML) method. Bootstrap values are indicated below the branches. Scale bar indicates the number of substitutions per site.
Fig. 4 in Spatial Organization And Home Range Of Apodemus Flavicollis And A. Agrarius On Mt. Avala, Serbia
Fig. 4. Least-squared corrected means of observed range length (ORL) values (four possible density combination showing the interaction effects): A = A. flavicollis, B = A. agrarius
Fig. 6 in Spatial Organization And Home Range Of Apodemus Flavicollis And A. Agrarius On Mt. Avala, Serbia
Fig. 6. Correspondence of vegetation cover (a) and capture frequency of both species (b, c) on the grid as an indicator of their habitat preferences
Fig. 1 in Spatial Organization And Home Range Of Apodemus Flavicollis And A. Agrarius On Mt. Avala, Serbia
Fig. 1. Population densities of A. flavicollis (A) and A. agrarius (B) during the study period. The base line indicates arbitrarily defined periods of high versus low density
Fig. 5 in Spatial Organization And Home Range Of Apodemus Flavicollis And A. Agrarius On Mt. Avala, Serbia
Fig. 5. Least-squared corrected means of home range (HR) area (four possible density combination showing the interaction effects): A = A. flavicollis, B = A. agrarius
Fig. 2 in Allozyme Variability Of Brown Hares (Lepus Europaeus) From The Vojvodina (Serbia), Compared To Central And Southeastern European Populations
Fig. 2. Scatterplots of population-specific dimension stimulus coordinates as obtained from multidimensional scaling (three-dimensional model); A (up): plot of first and second dimensions, B (down): plot of first and third dimensions. Convex polygons encompass the 20 Austrian (black circles and light grey area) and the eight Bulgarian (white circles and dark grey area) populations, respectively. Black cross indicates the Vojvodina (VOJ) population; for acronymes of Austrian populations see
Fig. 1 in Allozyme Variability Of Brown Hares (Lepus Europaeus) From The Vojvodina (Serbia), Compared To Central And Southeastern European Populations
Fig. 1. Unrooted Wagner dendogram based on modified Roger's distances (WRIGHT 1978), representing genetic relationships among brown hares from the Vojvodina (VOJ), 20 Austrian (population acronyme – A), and eight Bulgarian (population acronyme – BL) populations. For acronymes of the Austrian populations see HARTL et al. (1993) and for Bulgarian populations see SUCHENTRUNK et
Fig. 3 in Allozyme Variability Of Brown Hares (Lepus Europaeus) From The Vojvodina (Serbia), Compared To Central And Southeastern European Populations
Fig. 3. Stepwise discriminant analysis (DA): box plots of discriminant scores for the Austrian and Bulgarian populations as well as the discriminant score of the initially unclassified Vojvodina population (cross, VOJ), as obtained from DA of stimulus coordinates from the multidimensional scaling (three-dimensional model). The stippled horizontal line indicates classification of VOJ to the Aus-
Fig. 14. Titanoeca spominima, A–C in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 14. Titanoeca spominima, A–C = male left palp, A = retrolateral, B = prolateral, C = dorsal, D = male habitus. Scale bars: 1 mm for A, 0.5 mm for B–C, 1 mm D
Fig. 7 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 7. Halpodrassus moderatus: A–D = male left palp, A = retrolateral, B = ventral, C = bulbus, ventral, D = dorsal; E = epigyne, ventral. Scale bars: 1 mm
Fig. 1 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 1. Geographical position of the Subotica Sandland (Serbia) at the southern part of the Danube-Tisza Interfluve (area marked in black with arrow pointer). The northern part belongs to the Kiskunság Sand which spreads northwards to Budapest. The Serbian – Hun-
Fig. 16 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 16. Dendrogram (UPGMA-clustering) of the Renkonen indexes for the habitats at Subotica Sandland investigated in 2014. Locality 1 (habitats M1,W1-4), Locality 2 (M2, F, W5), Locality 3 (M3, W6)
Fig. 10 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 10. Gylphesis taoplesius: A = left male palp, retrolateral, B = epigyne in situ. Scale bars: 0.1 mm for A, 0.5 mm for B
Fig. 15 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 15. Diversity indexes for the habitats at Subotica Sandland investigated in 2014. Shannon-Weaver's Diversity Index (H'), Shannon's Equality Index of Species (E), the complement value of Simpson's Diversity Index (1-D); Locality 1 (habitats M1,W1-4), Locality 2
Fig. 6 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 6. Haplodrassus bohemicus: A–B = male left palp, A = ventral, B = tibial apophysis, C–D = epigyne in clove oil, C = ventral, D = dorsal. Scale bars: 0.5 mm for A–B, 1 mm for C–D
Fig. 8 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 8. Pardosa maisa, male, A, B = mal left palp, A = ventral, B = lateral, C = male, habitus. Scale bars: 1 mm for A–B, 3 mm for C
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.