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Pteropus cognatus is often considered a subspecies of P. raynen. It is related to P. rayneri and P. rennelli of the samoensis species group but clearly distinct. Monotypic. Distribution. E Solomon Is on Makira (= San Cristobal), Ugi, and Santa Ana. in Pteropodidae
Pteropus cognatus is often considered a subspecies of P. raynen. It is related to P. rayneri and P. rennelli of the samoensis species group but clearly distinct. Monotypic. Distribution. E Solomon Is on Makira (= San Cristobal), Ugi, and Santa Ana.
FIGURE. Distribution of Dicorynia. Physical map of the Amazonian region with all analyzed specimens of Dicorynia. A large amount of point overlays leading to reduced number of visible points is due to the large percentage of materials being old collections that rely only on the name of the municipality or similar. Source: NASA with modifications. Note that almost all specimens are contained in areas with less than 200 m high and the high elevations of the Guiana shield may represent a form of isolation between the two species. in A Taxonomic Revision of the Amazonian Genus Dicorynia (Fabaceae: Dialioideae)
FIGURE. Distribution of Dicorynia. Physical map of the Amazonian region with all analyzed specimens of Dicorynia. A large amount of point overlays leading to reduced number of visible points is due to the large percentage of materials being old collections that rely only on the name of the municipality or similar. Source: NASA with modifications. Note that almost all specimens are contained in areas with less than 200 m high and the high elevations of the Guiana shield may represent a form of isolation between the two species.
FIGURE 8. Faxonius elix n in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 8. Faxonius elix n. sp.: Male Form I holotype (A–D; H, J, K), morphotype male Form II (E, F), and allotype female (G, I). Lateral aspect of carapace (A); mesial and lateral aspect of Form I male gonopod, respectively (B–C), mesial view of entire gonopod of Form I male (D); mesial and lateral aspect of form II male gonopod, respectively (E–F); ventral aspect of epistome (G); dorsal view of carapace (H); ventral view of female annulus ventralis (I); dorsal view of antennal scale (J); dorsal view of right chelae (K). Photographs by Guenter Schuster.
FIGURE 7 in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 7. Comparative plate of key diagnostic differences between Faxonius jeffersoni and Faxonius elix n. sp. Photos include MI gonopod (left column), rostrum (center column), and mandible (right column) of F. elix n. sp. (top row) and F. jeffersoni (bottom row). Arrows point to diagnostic characteristics for F. elix n. sp. Photographs by Guenter Schuster.
FIGURE 4 in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 4. Phylogenetic analyses of the mitochondrial gene cytochrome oxidase subunit 1 (CO1) using newly generated sequence data and all publicly available Cambaridae sequence data. TOP LEFT: Maximum Likelihood analysis of all Cambaridae with the genus Faxonius highlighted (gray box). Star on the bottom clade indicates the same branch as the phylogeny on the right. Bottom Left: Unrooted phylogenetic network of the genus Faxonius. Blue circle indicates the same clade as the phylogeny on the right. Right: Excerpt from the tree on the left showing the focal group of this study, including F. jeffersoni and F. elix. Black dots above branches indicate maximum likelihood values>95%.
FIGURE 2 A–G in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 2 A–G. Box pots of scaled body measurements of FI male Faxonius jeffersoni and Faxonius elix, new species. Black dots represent outliers. Measurements made to the nearest 0.01mm.
FIGURE 10. Typical habitat for Faxonius elix n in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 10. Typical habitat for Faxonius elix n. sp. throughout its range with signs of anthropogenic alternation.
FIGURE 3 in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 3. Results of principle components analysis of standardized measurements of Faxonius elix n. sp. and Faxonius jeffersoni. Triangles represent F. jeffersoni. Circles represent F. elix n. sp. Polygons were constructed based on 95% confidence intervals.
FIGURE 1 in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 1. Field surveys undertaken to collect individuals for genetic and morphometric analysis. Crosses represent localities where Faxonius elix was detected. Circles represent areas where F. jeffersoni was detected. Stars represent localities where F. ronaldi was detected. Triangles represent areas where F. illinoiensis was detected.
FIGURE 9. Type locality for Faxonius elix n in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 9. Type locality for Faxonius elix n. sp., Fern Creek at Feganbush Lane (Kentucky Highway 864) crossing, Jefferson County, Kentucky (38.160374o N, -85.639214o W. Photograph taken on November 19, 2018.
FIGURE 5 in Description of a new species of crayfish in the genus Faxonius (Decapoda: Cambaridae) from the Lower Ohio River Drainage, with evidence of glacial influence on the distribution of some crayfish species throughout the Ohio River basin
FIGURE 5. Preglacial drainages and glacial maximum of the Wisconsin, Illinois, and Pre-Illinois glaciation events. Areas shaded by diagonal lines indicate the approximate extent of glacial Lake Tight. Map modified from Taylor and Niemiller, 2016.
Subspecies and Distribution. L.o.obscurusMiller,1903—SouthPagaiI(offWSumatra). L.o.auroreusSody,1949—NorthPagaiI(offWSumatra). L. o. siberu Chasen & Kloss, 1928 — Siberut I (off W Sumatra). The species also occurs in Sipora I (off W Sumatra) but the collected specimens were identified only to species level. in Sciuridae
Subspecies and Distribution. L.o.obscurusMiller,1903—SouthPagaiI(offWSumatra). L.o.auroreusSody,1949—NorthPagaiI(offWSumatra). L. o. siberu Chasen & Kloss, 1928 — Siberut I (off W Sumatra). The species also occurs in Sipora I (off W Sumatra) but the collected specimens were identified only to species level.
Data for publication: "Can size distributions of European lake fish communities be predicted by trophic positions of their fish species?"
<p>Overview of the lakes used in the paper "Can size distributions of European lake fish communities be predicted by trophic positions of their fish species?" published in Ecology and Evolution (add date etc)<em> </em></p> <p> </p> <p>Lake data table: Overview of all lakes in our study. The first tab holds the 235 lakes with the good fit (of b) and the second tab holds the 129 lakes with an ill fit (of b). For each lake we note the country it is in, the year it was sampled, latitude, longitude, number of fish individuals between 8-2000 gr, number of individuals classified as predators and prey, the b exponent (proxy for size spectrum slope) of the fish community, mean trophic position of the fish community, the log10 of the predator-prey mass ratio (logPPMR), the catch per unit effort (CPUE, N net-1 night-1), number of fish species, maximum air temperature (°C), maximum depth (m), total phosphorus ((µg l-1) and area (km2). In addition the presence (1) or absence (blank) of fish species is noted.</p>
Distribution. Known from gallery forests in NW Zambia; restricted to Ikelenge Pedicle and collected along Kazombi Stream. It is possible that this species also occurs in adjacent DR Congo and E Angola, but no surveys have been undertaken for this species in these areas. in Soricidae
Distribution. Known from gallery forests in NW Zambia; restricted to Ikelenge Pedicle and collected along Kazombi Stream. It is possible that this species also occurs in adjacent DR Congo and E Angola, but no surveys have been undertaken for this species in these areas.
Distribution. NE Mali, EC & SE Sudan, SE South Sudan, and NE Ethiopia. There is also a record from ancient Egypt in Thebes where a mummified individual has recently been identified, although status of the species there is uncertain considering no individuals have been observed there in recent times. in Soricidae
Distribution. NE Mali, EC & SE Sudan, SE South Sudan, and NE Ethiopia. There is also a record from ancient Egypt in Thebes where a mummified individual has recently been identified, although status of the species there is uncertain considering no individuals have been observed there in recent times.
Distribution. Uncertain, but the type locality is generally accepted to be Mt Kilimanjaro, NE Tanzania; there are further reports of this species throughout W & E Africa (including some recent ones from Uganda), but they cannot be confirmed since most of the specimens have been wrongly attributed. in Soricidae
Distribution. Uncertain, but the type locality is generally accepted to be Mt Kilimanjaro, NE Tanzania; there are further reports of this species throughout W & E Africa (including some recent ones from Uganda), but they cannot be confirmed since most of the specimens have been wrongly attributed.
Distribution. SE Guinea, E Liberia, and SW Ivory Coast in West Africa; the species may be found in Sierra Leone, but this population has not been genetically investigated and could be either the Ivory Coast White-toothed Shrew or the West African Pygmy White-toothed Shrew (C. obscurior). in Soricidae
Distribution. SE Guinea, E Liberia, and SW Ivory Coast in West Africa; the species may be found in Sierra Leone, but this population has not been genetically investigated and could be either the Ivory Coast White-toothed Shrew or the West African Pygmy White-toothed Shrew (C. obscurior).
Distribution. Near Halabiya at the Euphrates and Qal'at Sukkara (Syria); potentially in SW Iran. There are no recent records from Israel, Palestine or Lebanon indicating that the species is potentially extinct in this region. However, it cannot certainly be excluded that katinka is more common in the Levant and the Arabian Peninsula. in Soricidae
Distribution. Near Halabiya at the Euphrates and Qal'at Sukkara (Syria); potentially in SW Iran. There are no recent records from Israel, Palestine or Lebanon indicating that the species is potentially extinct in this region. However, it cannot certainly be excluded that katinka is more common in the Levant and the Arabian Peninsula.
Distribution. SE Guinea, E Liberia, S Ivory Coast, and W Ghana; populations ofeither this species, the Ivory Coast White-toothed Shrew (C. eburnea), or both species are found in S Sierra Leone and are included in the range map ofthis species but have not been investigated genetically and could represent either species. There are apparently records that represent this species from S Nigeria, although further research is needed to confirm thatthis speciesis truly found there. in Soricidae
Distribution. SE Guinea, E Liberia, S Ivory Coast, and W Ghana; populations ofeither this species, the Ivory Coast White-toothed Shrew (C. eburnea), or both species are found in S Sierra Leone and are included in the range map ofthis species but have not been investigated genetically and could represent either species. There are apparently records that represent this species from S Nigeria, although further research is needed to confirm thatthis speciesis truly found there.
Distribution. Known only from the Konteh Area of the Sanetti Plateau in SC Ethiopia; it remains possible that this recently described species inhabits other parts of the plateau as well, although it is likely endemic to the Bale Mts. in Soricidae
Distribution. Known only from the Konteh Area of the Sanetti Plateau in SC Ethiopia; it remains possible that this recently described species inhabits other parts of the plateau as well, although it is likely endemic to the Bale Mts.
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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)
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.