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Fig. 80 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 80. Dorsal (top) and ventral (bottom) views of the cranium of Nectomys apicalis (MNFS 795, Barro Vermelho [locality 12], left bank Rio Jurua´, Amazonas, Brazil). Magnification
Fig. 78 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 78. Map of known localities for chromosomal morphs of water rats, genus Nectomys. See text for justification for the allocation of names to each of the four diploid number groups. Symbols denote localities for which karyotypic data are available. Data from Gardner and Patton (1976), Maia et al (1984), Barros et al. (1991), Bonvicino et al. (1996), and this report.
Fig. 77 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 77. Frequency distribution of discriminant scores for individuals of the upriver and downriver cytochromeb clades of Neacomys minutus.
Fig. 75 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 75. Karyotypes of three species of Neacomys from the Rio Jurua´, western Brazil. A, N. musseri (MNFS 1395, locality 2), 2n=34. B, N. minutus (JLP 15847, locality 12), 2n=36. C, N. minutus (MNFS 624, locality 5), 2n=35. D, N. spinosus (MNFS 1481, locality 4).
Fig. 64 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 64. Localities and distribution of samples of spiny mice, Neacomys, from the Rio Jurua´, western Brazil. Solid circles = N. spinosus; solid square = N. musseri; triangles = N. minutus (open = upriver clade; solid = downriver clade).
Fig. 74 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 74. Illustrations of the size and shape of the incisive foramina of four specimens of Neacomys from eastern Perú and Rio Juruá basin of western Brazil. Upper Left: N. musseri (holotype, MVZ 171486). Upper Right: N. musseri (MNFS 1395, locality 2). Lower Left: N. minutus (JLP 16061, locality 9). Lower Right: N. spinosus (MNFS 1236, locality 1).
Fig. 59 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 59. Strict consensus tree of 24 equally minimumlength parsimony trees of 660 bp sequences of the mitochondrial cytochromeb gene for haplotypes of Philander, rooted by comparison to sequences from Micoureus and Marmosops. Branch lengths are proportional to the number of character changes Haplotypes for specimens from the Rio Juruá are identified by heavy lines and bold type; numbers refer to the specific locality as identified in the text and the map, fig. 1. Numbers at nodes are bootstrap values, based on 1000 replicates; percentages are average Kimura twoparameter distances. Individual haplotypes are keyed by number or letter to localities as mapped in fig. 58 and listed by voucher specimen numbers in table 16. Tree length = 309 steps; CI = 0.709; RI = 0.863.
Fig. 63 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 63. Strict consensus maximum parsimony tree of haplotypes of spiny mice, genus Neacomys, based on 801 bp of cytochromeb and rooted by comparison to species of Oryzomys. Branch lengths are proportional to the number of character changes. Each clade is identified as in the map (fig. 62). Haplotypes for specimens from the Rio Juruá are identified by heavy lines and bold type; numbers refer to the specific locality as identified in the text and the map, fig. 1. Numbers at nodes are bootstrap values, based on 1000 replicates; percentages are average Kimura twoparameter distances (see table 23). Tree length = 592 steps; CI = 0.514, RI = 0.790.
Fig. 68 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 68. Dorsal views of the stuffed study skins of three species of Neacomys from western Amazonia. From left to right: Neacomys musseri (holotype, MVZ 171486), N. minutus (holotype, INPA 2689), and N. spinosus (Rio Jurua´, JLP 15314, locality 7).
Fig. 52 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 52. Strict consensus tree of 36 equallength maximum parsimony trees, based on 630 bp of the cytochromeb gene and illustrating topological relationships among cytochromeb haplotype clades of Micoureus. The tree is rooted by comparison to Metachirus, Marmosa, and Monodelphis (from Patton et al., 1996). Geographic provenance of haplotypes is indicated as in the map, fig. 51, and locality data are listed, from top to bottom, in table 12. Haplotypes for specimens from the Rio Juruá are identified by heavy lines and bold type. Bold numbers at internal nodes are bootstrap values, based on 1000 iterations; percentages are average Kimura twoparameter distances. Tree length = 450 steps; CI = 0.607; RI = 0.772.
Fig. 56 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 56. Bivariate relationship of four cranial dimensions for Micoureus demerarae and M. regina and condyloincisive length, a univariate measure of overall size. Correlation coefficients for each set of relationships are given. The respective slopes for the two species in each relationship are not significantly different, but their Yintercepts are (at p <0.01 or 0.001).
Fig. 49 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 49. Strict consensus tree of two minimumlength parsimony trees of the brown foureyed opossum, Metachirus nudicaudatus, based on the initial 450 bp of the mtDNA cytochromeb gene, and rooted by comparison to sequences from Didelphis and Philander. Branch lengths are proportional to the number of character changes. Regional reciprocally monophyletic clades are identified, and keyed to the localities mapped in fig. 48. Haplotypes for specimens from the Rio Juruá are identified by heavy lines and bold type; numbers refer to the specific locality as identified in the text and the map, fig. 1 Bold numbers at internal nodes are bootstrap values, based on 1000 iterations; percentages are average Kimura twoparameter distances. Individual haplotypes are identified by general locality, except for those from the Rio Jurua´, which are identified by specimen and locality numbers (see table 10). Tree length = 215 steps; CI = 0.730; RI = 0.842.
Fig. 47 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 47. Chromosome complements of five species of didelphid marsupials from the Rio Juruá with 2n = 14 karyotypes. A, Marmosops impavidus (MNFS 1191, Igarapé Porongaba [locality 1]); B, Marmosops neblina (MNFS 703, Barro Vermelho [locality 12]); C, Marmosops noctivagus (JLP 15676 Condor [locality 6]); D, Metachirus nudicaudatus (JUR 399, VaiQuemQuer [locality 15]); E, Micoureus regina [MNFS 1417, Igarapé Porongaba [locality 1]); F, and Caluromys lanatus (MNFS 796, Barro Vermelho [locality 12]).
Fig. 53 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 53. Difference in the length of the furred base of the tail in species of Micoureus from the Rio Jurua´. From left to right: M. demerarae (JLP 16051, Altamira [locality 9]); M. demerarae (JLP 15652 Condor [locality 6]); M. regina (MNFS 1287, opposite Igarapé Porongaba [locality 2]); and M. regina (MNFS 935, opposite Altamira [locality 10]).
Fig. 76 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 76. Dorsal, ventral, and lateral views of the cranium of the holotype (INPA 2689) of Neacomys minutus, an adult. The skin and maxillary toothrows are illustrated in figures 68 and 71, respectively Magnification = ×4.
Fig. 71 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 71. Ventral views of the same crania shown in figure 69 on opposite page. Top: N. spinosus Middle: N. musseri. Bottom: N. minutus.
Fig. 73 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 73. Morphometric relationships among samples of Neacomys from Perú and western Brazil Upper Left: bivariate relationship of headbody length versus total length. Upper Right: rostral length and condyloincisive length. Lower Left: maxillary toothrow length and condyloincisive length. Lower Right: first and second axes from a discriminant function analysis based on log10 cranial variables.
Fig. 67 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 67. Rio Cosñipata below the road in fig. 65, at the type locality of Neacomys musseri. Individuals were taken in the dense undergrowth back from the margins of the river. Photograph by J. L. Patton, April 1984.
Fig. 44 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 44. Bivariate plots of four cranial measurements against condyloincisive length, a univariate measure of overall size, in four species of slender mouse opossums from the Rio Jurua´: A, palatal breadth; B, rostral length; C, maxillary toothrow length (canine to M4); and D, molar toothrow length (M1 to M4). Squares = M. noctivagus; diamonds = M. neblina; circles = M. impavidus; and triangles = M. parvidens.
Fig. 42 in Mammals Of The Rio Juruá And The Evolutionary And Ecological Diversification Of Amazonia
Fig. 42. Map of localities for which 630 bp of cytochromeb gene sequences are available for the slender mouse opossums, genus Marmosops, from Amazonia (modified from Mustrangi and Patton 1997). Provenance data are listed in table 7.
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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
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.