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Figure 2 in Comparative osteology and phylogenetic relationships of Miocaperea pulchra, the first fossil pygmy right whale genus and species (Cetacea, Mysticeti, Neobalaenidae)
Figure 2. Miocaperea pulchra gen. et sp. nov.: holotype. A, dorsal view; B, ventral view; C, right lateral view; D, left lateral view. In (A) the anterior portion (rostrum) is on the same plane as that on which the neurocranium is lodged, in order to better show the nasal bones. This results in wide gaps between the maxillae and the supraorbital processes of the frontal. Such gaps are absent in (B) because the anterior portion is closer to the neurocranium, to represent the whole skull in articulation.
Figure 14 in Comparative osteology and phylogenetic relationships of Miocaperea pulchra, the first fossil pygmy right whale genus and species (Cetacea, Mysticeti, Neobalaenidae)
Figure 14. Caperea marginata: right periotic (specimen ZM 19944), detached from skull. A, medial view; B, dorsal view; C, lateral view; D, posterior view; E, anterior view; F, ventral view. Scale bar: 10 mm. See Anatomical abbreviations for definitions of the acronyms.
Figure 1 in Comparative osteology and phylogenetic relationships of Miocaperea pulchra, the first fossil pygmy right whale genus and species (Cetacea, Mysticeti, Neobalaenidae)
Figure 1. Locality of the discovery of Miocaperea pulchra gen. et sp. nov. A, South America; B, Peruvian territory with Aguada de Lomas indicated by a line; C, close-up view of Aguada de Lomas in Peru.
Figure 17 in Comparative osteology and phylogenetic relationships of Miocaperea pulchra, the first fossil pygmy right whale genus and species (Cetacea, Mysticeti, Neobalaenidae)
Figure 17. Phylogenetic relationships of Miocaperea pulchra gen. et sp. nov. Maximum parsimony cladogram, representing the strict consensus of 108 equally parsimonious trees. Statistics: tree length, 914 steps; consistency index, 0.3840; consistency index excluding uninformative characters, 0.3751; rescaled consistency index, 0.2732; homoplasy index, 0.6160; homoplasy index excluding uninformative characters, 0.6249; retention index, 0.7114.
Figure 18 in Comparative osteology and phylogenetic relationships of Miocaperea pulchra, the first fossil pygmy right whale genus and species (Cetacea, Mysticeti, Neobalaenidae)
Figure 18. Phylogenetic relationships of baleen-bearing mysticetes resulting from the tree bisection and reconnection search and plotted against stratigraphic ages of the included taxa. Thick lines represent documented records; thin lines represent inferred ghost lineages. Ma, million years. The grey area represents a period of high origination rate in mysticete evolution. The divergence of Balaenidae and Neobalaenidae is calibrated on the stratigraphic age of Morenocetus parvus, the earliest described balaenid (the assignment to Balaenidae was confirmed by Bisconti, 2005).
Figure 6. Trematodes parasitizing Biomphalaria aymara from Isluga, Chilean Altiplano. S in Phylogenetic relationships and taxonomy of Altiplano populations of Biomphalaria (Gastropoda: Planorbidae): inference from a multilocus approach
Figure 6. Trematodes parasitizing Biomphalaria aymara from Isluga, Chilean Altiplano. S, shell; T, trematodes in the soft body.
Figure 5 in Phylogenetic relationships and taxonomy of Altiplano populations of Biomphalaria (Gastropoda: Planorbidae): inference from a multilocus approach
Figure 5. Reconstruction of the divergence times of lineages of Biomphalaria estimated using a substitution rate of 1.6–2.2% per million years for the 16S locus. We used one sequence per population/species to generate a Bayesian tree. Numbers at nodes represent millions of years. The origin of the sequences is shown using numbers or initials (see Table 1).
Figure 4 in Phylogenetic relationships and taxonomy of Altiplano populations of Biomphalaria (Gastropoda: Planorbidae): inference from a multilocus approach
Figure 4. Consensus tree obtained from Bayesian analysis using the matrix of 90 sequences. Numbers at nodes indicate posterior probability values (only those above 0.94 are given). The origin of the sequences is shown using numbers or initials (see Table 1).
Figure 1 in Phylogenetic relationships and taxonomy of Altiplano populations of Biomphalaria (Gastropoda: Planorbidae): inference from a multilocus approach
Figure 1. Sampling localities of populations of Biomphalaria of the southern Altiplano. The number of localities sampled by basin is shown in parentheses. Asterisks indicate basins where Biomphalaria snails were not found.
Figure 3 in Phylogenetic relationships and taxonomy of Altiplano populations of Biomphalaria (Gastropoda: Planorbidae): inference from a multilocus approach
Figure 3. Tree obtained from the maximum-likelihood analysis using the combined matrix of 90 sequences. Numbers at nodes indicate bootstrap support values (only those above 50% are given). The origin of the sequences is shown using numbers or initials (see Table 1).
Figure 2 in Phylogenetic relationships and taxonomy of Altiplano populations of Biomphalaria (Gastropoda: Planorbidae): inference from a multilocus approach
Figure 2. Majority consensus tree obtained from the maximum-parsimony analysis using the combined matrix of 90 sequences. Numbers at nodes indicate bootstrap support values (only those above 50% are given). The origin of the sequences is shown using numbers or initials (see Table 1).
Figure 3 in Phylogenetic relationships in the genus Agathemera (Insecta: Phasmatodea) inferred from the genes 16S, COI and H3
Figure 3. Reconstruction of the ancestral states for the development of the mesonotal lobules obtained with the ML analysis: model MK1 superimposed on the phylogeny obtained with ML analysis of the three combined genes. An image of the mesonotal lobules are shown for each species, and the habitus of 'A. crassa' and 'A. mesoauriculae' is shown for clade 'A' and 'B', respectively.
Figure 2 in Phylogenetic relationships in the genus Agathemera (Insecta: Phasmatodea) inferred from the genes 16S, COI and H3
Figure 2. Phylogeny obtained by ML analysis of the markers 16S + COI + H3 used together. The shaded area represents the genus Agathemera and the boxes show lineages 'A' and 'B'. Over each node is the Bayesian a posterior probability and below the line are bootstrap estimations for ML/MP. Shaded boxes above nodes show partitioned Bremer support values; from top to bottom: 16S, COI, and H3.
Figure 1 in Phylogenetic relationships in the genus Agathemera (Insecta: Phasmatodea) inferred from the genes 16S, COI and H3
Figure 1. Distribution of the eight species of Agathemera in South America. Symbols signify collection localities; shaded areas indicate approximate ranges of distribution.
Figure 5. Phylogenetic relationships inferred from cytochrome c oxidase subunit I in Pseudocryptic speciation of Chrysochroa fulgidissima (Coleoptera: Buprestidae) with two new species from Korea, China and Vietnam
Figure 5. Phylogenetic relationships inferred from cytochrome c oxidase subunit I + 16S ribosomal RNA gene (1193 bp). Labelling as in Figure 3.
Figure 4. Phylogenetic relationships inferred from 16S in Pseudocryptic speciation of Chrysochroa fulgidissima (Coleoptera: Buprestidae) with two new species from Korea, China and Vietnam
Figure 4. Phylogenetic relationships inferred from 16S ribosomal RNA (529 bp). Labelling as in Figure 3.
Figure 3. Phylogenetic relationships inferred from cytochrome c oxidase subunit I in Pseudocryptic speciation of Chrysochroa fulgidissima (Coleoptera: Buprestidae) with two new species from Korea, China and Vietnam
Figure 3. Phylogenetic relationships inferred from cytochrome c oxidase subunit I (664 bp). Colours represented within each terminal taxa denote biogeographical populations of Chrysochroa fulgidissima as given in Table 1. Numbers above branches are indicated by the neighbour-joining bootstrap value, Bayesian posterior probabilities, and the maximum likelihood bootstrap proportions. Numbers cited under branches are parsimony bootstrap symmetric resampling and jackknife support, respectively. The topology was constructed by Bayesian phylogenetic analysis.
Figure 23 in Phylogenetic relationships and systematics of the jumping spider genus Colopsus with the description of eight new species from Sri Lanka (Araneae: Salticidae)
Figure 23. Photographs of live Pancorius athukoralai sp. nov. a–d. male from Deltota forest. (e–h). females.
Figure 24 in Phylogenetic relationships and systematics of the jumping spider genus Colopsus with the description of eight new species from Sri Lanka (Araneae: Salticidae)
Figure 24. Pancorisus athukoralai sp. nov. (a, b). Male habitus, (a). dorsal view, (b). ventral view. (c–f). Male palp, c. ventral view. (d). prolateral view. (e). ventral view. (f). retrolateral view. Scale bars: (a, b) = 2 mm, (c) = 0.5 mm, (d–f) = 0.2 mm.
Figure 21 in Phylogenetic relationships and systematics of the jumping spider genus Colopsus with the description of eight new species from Sri Lanka (Araneae: Salticidae)
Figure 21. Photographs of live Pancorius altus sp. nov. (a–f); (a–d). male in life, (g–f). female from Loolecondera estate.
ScienceDex guides
Understand access before you commit
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.