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65 results for “Dipodidae”
Fig. 2 in Phylogeography Of The Western Populations Of Stylodipus Telum (Rodentia, Dipodidae) Based On Mitochondrial Dna
Fig. 2. Phylogeographic reconstruction of S. telum based on cytb. BI posterior probability / ML bootstrap support per 1000 replications is indicated at the nodes (only values over 70 % are shown). Photo: S. telum falzfeini from Sagi (Oleshki District) by M. Rusin, 2017-05-17.
Fig. 1 in Phylogeography Of The Western Populations Of Stylodipus Telum (Rodentia, Dipodidae) Based On Mitochondrial Dna
Fig. 1. Sampling localities of S. telum used in the study. White — range of S. telum falzfeini (original unpublished data) and green — range of S. telum turovi (Shenbrot et al., 1995).
Figure 2 in A karyotype comparison among 3 species of Allactaga (Mammalia: Dipodidae) from central Iran
Figure 2. Dendrogram of the 3 Allactaga species based on chromosomal characters, using cluster analysis.
Figure 1. A map showing the three climatic regions from which the 162 in Patterns of skull variation in relation to some geoclimatic conditions in the greater jerboa Jaculus orientalis (Rodentia, Dipodidae) from Tunisia
Figure 1. A map showing the three climatic regions from which the 162 samples of Jaculus orientalis were collected in Tunisia, with isohyets indicating the average annual rainfall measured in millimeters (mm year–1). Main climates: B- arid, C- warm temperate. Precipitation: W- desert, S- steppe, s- summer dry. Temperature: a- hot summer, h- hot arid.
Figure 2 in Patterns of skull variation in relation to some geoclimatic conditions in the greater jerboa Jaculus orientalis (Rodentia, Dipodidae) from Tunisia
Figure 2. Plot of individuals in discriminant space obtained from a three-climatic regions stepwise discriminant function analysis (DFA) using cranial variables. Only the first two discriminant functions are plotted (Wilk's λ = 0.150, F (26.294) = 80.740, P < 0.001).
Figure 2. Maximum-likelihood trees for J in Mitochondrial evidence indicates a shallow phylogeographic structure for Jaculus blanfordi (Murray, 1884) populations (Rodentia: Dipodidae)
Figure 2. Maximum-likelihood trees for J. blanfordi mtDNA haplotypes in different datasets for cyt b (1110 bp), COI (618 bp), and COI + cyt b (313 bp + 284 bp). The numbers next to the nodes indicate the bootstrap (>50%) and posterior probability (>0.50) values obtained by maximum-likelihood and Bayesian inference, respectively. The trees are rooted with haplotypes from J. orientalis and J. jaculus. See Table 1 and Figure 1 for the haplotype designations and corresponding localities.
Figure 1 in Mitochondrial evidence indicates a shallow phylogeographic structure for Jaculus blanfordi (Murray, 1884) populations (Rodentia: Dipodidae)
Figure 1. Geographical locations of J. blanfordi samples included in the present study. The locality numbers correspond to those in Table 1. The shaded zones in the map correspond to the distribution range of Blanford's jerboa (Shenbrot and Molur, 2008).
Figure 3. Median-joining networks for J in Mitochondrial evidence indicates a shallow phylogeographic structure for Jaculus blanfordi (Murray, 1884) populations (Rodentia: Dipodidae)
Figure 3. Median-joining networks for J. blanfordi mitochondrial DNA haplotypes in the different datasets for cyt b (1110 bp), COI (618 bp) and COI + cyt b (313 bp + 284 bp). The numbers of mutations (greater than 1) between the haplotypes are indicated near the branches and circle sizes are proportional to the number of similar haplotypes. See Table 1 for the haplotype designations.
Figure 4 in Mitochondrial evidence indicates a shallow phylogeographic structure for Jaculus blanfordi (Murray, 1884) populations (Rodentia: Dipodidae)
Figure 4. Observed and expected mismatch distribution of haplotypes for the cyt b (1110 bp), COI (618 bp), and COI + cyt b (313 bp + 284 bp) datasets.
FIGURE 12. M3 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 12. M3 length (1) and width (2) of Plesiosminthus species. The bars represent the minimum and maximum in mm, a tick marks the mean, and the number of specimens is given to the right.
FIGURE 10. M1 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 10. M1 length (1) and width (2) of Plesiosminthus species. The bars represent the minimum and maximum in mm, a tick marks the mean, and the number of specimens is given to the right.
FIGURE 9. m3 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 9. m3 length (1) and width (2) of Plesiosminthus species. The bars represent the minimum and maximum in mm, a tick marks the mean, and the number of specimens is given to the right.
FIGURE 6 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 6. Scatter diagrams of molar length (L) and width (W) of Plesiosminthus aff. conjunctus (cross) and Plesiosminthus sp. (circle) from Mirambueno 2A, compared with the distribution area (rectangle) of Plesiosminthus conjunctus molars from HERR8 (in mm). 1, m1; 2, m2; 3, m3; 4, M1; 5, M2; and 6, M3.
FIGURE 8. m2 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 8. m2 length (1) and width (2) of Plesiosminthus species. The bars represent the minimum and maximum in mm, a tick marks the mean, and the number of specimens is given to the right.
FIGURE 4 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 4. Scatter diagrams of molar length (L) and width (W) of Plesiosminthus margaritae n. sp. from Mirambueno 1 (in mm). 1, m1; 2, m2; 3, m3; 4, M1; 5, M2; and 6, M3.
FIGURE 3. Plesiosminthus margaritae n in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 3. Plesiosminthus margaritae n. sp. from Mirambueno 1 (occlusal views). 1, m1 sin., RGM 558099; 2, m2 sin., MIR1 168; 3, m3 sin., RGM 558149; 4, M1 sin., RGM 558200; 5, M2 sin., MIR1 189; 6, M3 sin., MIR1 196; 7, m1 dext., RGM 558105; 8, m2 dext., RGM 558138; 9, m3 dext., MIR1 178; 10, M1 dext., MIR1 187; 11, M2 dext., MIR1 193 (Holotype); and 12, M3 dext., MIR1 197.
FIGURE 2 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 2. Distribution of morphology values of protoconid hind arm in m2 (filled circles) and protolophule in M2 (open circles). Enclosing circles and connecting lines indicate possible relationships.
FIGURE 11. M2 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 11. M2 length (1) and width (2) of Plesiosminthus species. The bars represent the minimum and maximum in mm, a tick marks the mean, and the number of specimens is given to the right.
FIGURE 7. m1 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 7. m1 length (1) and width (2) of Plesiosminthus species. The bars represent the minimum and maximum in mm, a tick marks the mean, and the number of specimens is given to the right.
FIGURE 5 in A revision of European Plesiosminthus (Rodentia, Dipodidae), and new material from the upper Oligocene of Teruel (Spain)
FIGURE 5. Scatter diagrams of molar length (L) and width (W) of Plesiosminthus cf. margaritae n. sp. from Vivel del Río 1 (in mm). 1, m1; 2, m2; 3, m3; 4, M1; 5, M2; and 6, M3.
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Allen Brain Atlas
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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.