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58 results for “Thiaridae”
Figure 2 in First record of introduction of the tropical snail Melanoides tuberculata (O. F. Müller, 1774) in Bulgaria (Gastropoda: Thiaridae)
Figure 2. Shells of Melanoides tuberculata found at the thermal stream near Pancherevo. Scale bar 10 mm
Figure 1 in First record of introduction of the tropical snail Melanoides tuberculata (O. F. Müller, 1774) in Bulgaria (Gastropoda: Thiaridae)
Figure 1. The collection locality of Melanoides tuberculata – the thermal stream near Pancherevo Dam
Fig. 3 in Naturalization Of Melanoides Tuberculata And Tarebia Granifera (Thiaridae, Gastropoda) M O L L U S K S U N D E R T H E H Y D R O E C O L O G I C A L Conditions Of Zaporizhzhya Npp Cooling Pond
Fig. 3. Percentage ratio of Thiaridae mollusks on concrete walls of the outflow channels of Zaporizhzhya NPP.
Fig. 1 in Naturalization Of Melanoides Tuberculata And Tarebia Granifera (Thiaridae, Gastropoda) M O L L U S K S U N D E R T H E H Y D R O E C O L O G I C A L Conditions Of Zaporizhzhya Npp Cooling Pond
Fig. 1. Melanoides tuberculata and Tarebia granifera (Thiaridae, Gastropoda) in and its localities in Ukraine: 1 – the cooling pond of the Zaporizhzhya NPP (47°50'42″N; 35°56'89"E); 2 – cluster of mollusks on concrete walls of the channel of the nuclear power plant; 3 – accumulation of M. tuberculata on a stony substrate in the region of the discharge channel of the nuclear power plant, September 15, 2017; 4 – accumulation of M. tuberculata and T. granifera on reed roots.
Figure 6 in Adulthood and phylogenetic analysis in gastropods: character recognition and coding in shells of Lavigeria (Cerithioidea, Thiaridae) from Lake Tanganyika
Figure 6. Plots of length against PC1 for all eight species of Lavigeria studied with regressed lines and R2 values. Length values are log transformed.
Figure 3 in Adulthood and phylogenetic analysis in gastropods: character recognition and coding in shells of Lavigeria (Cerithioidea, Thiaridae) from Lake Tanganyika
Figure 3. Character state APPL. An adult specimen of L. n. sp. X (left) and a juvenile (right). Notice the perimetric, wrinkle-like, lines on the front surface of the apertural lip of the adult. Scale bar = 0.2 cm.
Figure 7 in Adulthood and phylogenetic analysis in gastropods: character recognition and coding in shells of Lavigeria (Cerithioidea, Thiaridae) from Lake Tanganyika
Figure 7. Fifty per cent majority-rule consensus trees of five, nine, ten and 31 trees (from top to bottom, respectively) from four matrices. Matrices are coding the data of Table 1. See Analysis for explanation of the matrices. Tree and character statistics are given in Table 3. Optimality criterion: maximum parsimony, exhaustive search. All characters binary, of equal weight and unordered. Numbers indicate percentage of topologies that include the respective branches.
Figure 5 in Adulthood and phylogenetic analysis in gastropods: character recognition and coding in shells of Lavigeria (Cerithioidea, Thiaridae) from Lake Tanganyika
Figure 5. Character states DFST, AXRB and UEPW. Adult specimens of (A) L. n. sp. W, (B) L. n. sp. F, (C) L. n. sp. K, (D) L. n. sp. J showing the aperture in side view and (E) an apertural view of an adult L. n. sp. W. In A-D the trajectory of the suture tends to deviate downwards in comparison to the trajectory of the spiral cord of the previous whorl immediately above the suture (DFST). A and D also show the loss of, or irregularities in the appearance of axial sculpture (AXRB). In E, arrowheads show the undulations formed at the edge of the parietal side of the aperture (UEPW). Scale bar = 0.2 cm.
Figure 2 in Adulthood and phylogenetic analysis in gastropods: character recognition and coding in shells of Lavigeria (Cerithioidea, Thiaridae) from Lake Tanganyika
Figure 2. Character states WGPW and APLT. An adult specimen of L. n. sp. A (left) and a juvenile (right). The adult shows a thickened (APLT) and opaque (WGPW) inner surface of the apertural lip in comparison to the juvenile. Scale bar = 0.2 cm.
Figure 1 in Adulthood and phylogenetic analysis in gastropods: character recognition and coding in shells of Lavigeria (Cerithioidea, Thiaridae) from Lake Tanganyika
Figure 1. Eight species used in this study, apertural and side views of adult specimens. (A) Lavigeria new species N. (B) L. n. sp. F. (C) L. n. sp. J. (D) L. n. sp. X. (E) L. n. sp. K. (F) L. n. sp. W. (G) L. n. sp. A. (H) L. n. sp. U. C-H all belong to the same clade. A and B belong to different clades within the genus. Scale bar = 0.2 cm.
Figure 4 in Adulthood and phylogenetic analysis in gastropods: character recognition and coding in shells of Lavigeria (Cerithioidea, Thiaridae) from Lake Tanganyika
Figure 4. Character state APDT. An adult specimen of L. n. sp. J (left) and a juvenile on the right. Notice in the adult how the parietal side of the apertural lip is completely detached from the previous whorl and a false umbilicus has developed. Scale bar = 0.2 cm.
Fig. 2 in Naturalization Of Melanoides Tuberculata And Tarebia Granifera (Thiaridae, Gastropoda) M O L L U S K S U N D E R T H E H Y D R O E C O L O G I C A L Conditions Of Zaporizhzhya Npp Cooling Pond
Fig. 2. Mollusks in the hydrobiological frame 25x25 cm.
Figure 4 in A phylogeographical perspective on the ex situ conservation of Aylacostoma (Thiaridae, Gastropoda) from the High Paraná River (Argentina-Paraguay)
Figure 4. Maximum-likelihood tree of Aylacostoma specimens based on 658 nucleotides of the partial cytochrome oxidase subunit I gene and the spatial distribution of geographical populations in the High Paraná River. Bootstrap values are shown above and below the branches. Numbers within clades are GenBank accession numbers. References to localities are given in Table 1.
Figure 5 in A phylogeographical perspective on the ex situ conservation of Aylacostoma (Thiaridae, Gastropoda) from the High Paraná River (Argentina-Paraguay)
Figure 5. Divergence times for Aylacostoma from the High Paraná River. The nodes in the phylogram are presented according to the mean value of oldest estimated age, assuming different divergence rates and substitution models. Divergence between A. chloroticum and A. brunneum = 3.60 Mya (K2P); divergence within A. chloroticum = 0.38 Mya (GTR+I+G). The bars around each node represent the minimum and maximum estimated age. Time scale adapted from the International Chronostratigraphic Chart (International Commission on Stratigraphy, 2014).
Figure 3 in A phylogeographical perspective on the ex situ conservation of Aylacostoma (Thiaridae, Gastropoda) from the High Paraná River (Argentina-Paraguay)
Figure 3. Median-joining network depicting all haplotypes found for the Aylacostoma specimens from the High Paraná River included in the ex situ conservation programme. The size of circles is proportional to haplotype frequency. Mutational steps separating haplotypes are indicated. For localities, see Table 1.
Figure 2 in A phylogeographical perspective on the ex situ conservation of Aylacostoma (Thiaridae, Gastropoda) from the High Paraná River (Argentina-Paraguay)
Figure 2. Evolution of the old port of Candelaria city (Misiones, Argentina; 27°26′50.96″S, 55°45′0.84″W). This is the only location along the High Paraná River where a wild population of Aylacostoma chloroticum is still known to occur after completing the filling of the Yacyretá Reservoir in 2011. Note the drastic modification of the environment between 2003 and November 2011, with the construction of an artificial beach for recreational use. The white arrow highlights the increase in water level between August and December 2010.
Figure 1 in A phylogeographical perspective on the ex situ conservation of Aylacostoma (Thiaridae, Gastropoda) from the High Paraná River (Argentina-Paraguay)
Figure 1. Living specimens of Aylacostoma born in captivity within the ex situ conservation programme. A, Aylacostoma chloroticum (note the juvenile on the adult specimen). B, Aylacostoma brunneum.
Figure 11 in Evolutionary systematics of the viviparous gastropod Sermyla (Gastropoda: Cerithioidea: Thiaridae), with the description of a new species
Figure 11. Anatomy of the radula in Sermyla. A, rachis and lateralia of Sermyla kupaensis (ZMB 191388). B, marginalia of Sermyla kupaensis (ZMB 191388). C, rachis and lateralia of S. riquetii (BMNH 2403). D, marginalia of S. riquetii (BMNH 2403). E, rachis and lateralia of S. carbonata (ZMB 106700). F, marginalia of S. carbonata (ZMB 106700).
Figure 10 in Evolutionary systematics of the viviparous gastropod Sermyla (Gastropoda: Cerithioidea: Thiaridae), with the description of a new species
Figure 10. Non-metric dimensional scaling (NMDS) on the complete AFLP dataset. Coloured symbols indicate the same cluster; black symbols indicate that a direct cluster affiliation is not possible for that individual. Note for S. carbonata: all colored asterisks are the same cluster.
Figure 7 in Evolutionary systematics of the viviparous gastropod Sermyla (Gastropoda: Cerithioidea: Thiaridae), with the description of a new species
Figure 7. Neighbor-net analysis of AFLP data based on five primer combinations and a matrix corrected by AMARE; coloration of Sermyla kupaensis, S. riquetii and S. carbonata according to their sampling locations and river systems, additional colors represent additional thiarid species. Only one individual had a mixed genotype and was not clearly associated with one of the clusters.
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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)
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DANDI Archive for NWB datasets
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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.