Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
12
datasets available to search
ShareScore release 0.9.0
Dataset results
12 results for “Rhabdomys”
On following pages: 473. Senegal Striped Grass Mouse (Lemniscomys linulus); 474. Mittendorf's Striped Grass Mouse (Lemniscomys mittendorfi); 475. Hoogstraal's Striped Grass Mouse (Lemniscomys hoogstraali), 476. Buffoon Striped Grass Mouse (Lemniscomys macculus); 477. Griselda Striped Grass Mouse (Lemniscomys griselda); 478. Single-striped Grass Mouse (Lemniscomys rosalia); 479. Rosevear's Striped Grass Mouse (Lemniscomys roseveari); 480. West African Rufous-nosed Rat (Oenomys ornatus); 481. Common Rufous-nosed Rat (Oenomys hypoxanthus); 482. East African Groove-toothed Swamp Rat (Pelomys fallax); 483. Hopkins's Groove-toothed Swamp Rat (Pelomys hopkinsi); 484. Lake Victoria Groove-toothed Swamp Rat (Pelomys isseli); 485. Angolan Groove-toothed Swamp Rat (Pelomys campanae); 486. Least Groove-toothed Swamp Rat (Pelomys minor); 487. Target Rat (Stochomys longicaudatus); 488. Kemp's Thicket Rat (Thamnomys kempi); 489. Hatt's Thicket Rat (Thamnomys majon; 490. Schouteden's Thicket Rat (Thamnomys schoutedeni); 491. Thomas's Thicket Rat (Thamnomys venustus); 492. Namaqua Rock Rat (Micaelamys namaquensis); 493. Grant's Rock Rat (Micaelamys granti); 494. Mesic Four-striped Grass Rat (Rhabdomys dilectus); 495. West-Central South African Fourstriped Grass Rat (Rhabdomys bechuanae); 496. KwaZulu Natal Four-striped Grass Rat (Rhabdomys chakae); 497. Karoo Four-striped Grass Rat (Rhabdomys intermedius); 498. Xeric Four-striped Grass Rat (Rhabdomys pumilio), 499. Loring's Thallomys (Thallomys loringi); 500. Black-tailed Thallomys (Thallomys nigricauda); 501. Sundevall's Thallomys (Thallomys paedulcus); 502. Shortridge's Thallomys (Thallomys shortridgei). in Muridae
On following pages: 473. Senegal Striped Grass Mouse (Lemniscomys linulus); 474. Mittendorf's Striped Grass Mouse (Lemniscomys mittendorfi); 475. Hoogstraal's Striped Grass Mouse (Lemniscomys hoogstraali), 476. Buffoon Striped Grass Mouse (Lemniscomys macculus); 477. Griselda Striped Grass Mouse (Lemniscomys griselda); 478. Single-striped Grass Mouse (Lemniscomys rosalia); 479. Rosevear's Striped Grass Mouse (Lemniscomys roseveari); 480. West African Rufous-nosed Rat (Oenomys ornatus); 481. Common Rufous-nosed Rat (Oenomys hypoxanthus); 482. East African Groove-toothed Swamp Rat (Pelomys fallax); 483. Hopkins's Groove-toothed Swamp Rat (Pelomys hopkinsi); 484. Lake Victoria Groove-toothed Swamp Rat (Pelomys isseli); 485. Angolan Groove-toothed Swamp Rat (Pelomys campanae); 486. Least Groove-toothed Swamp Rat (Pelomys minor); 487. Target Rat (Stochomys longicaudatus); 488. Kemp's Thicket Rat (Thamnomys kempi); 489. Hatt's Thicket Rat (Thamnomys majon; 490. Schouteden's Thicket Rat (Thamnomys schoutedeni); 491. Thomas's Thicket Rat (Thamnomys venustus); 492. Namaqua Rock Rat (Micaelamys namaquensis); 493. Grant's Rock Rat (Micaelamys granti); 494. Mesic Four-striped Grass Rat (Rhabdomys dilectus); 495. West-Central South African Fourstriped Grass Rat (Rhabdomys bechuanae); 496. KwaZulu Natal Four-striped Grass Rat (Rhabdomys chakae); 497. Karoo Four-striped Grass Rat (Rhabdomys intermedius); 498. Xeric Four-striped Grass Rat (Rhabdomys pumilio), 499. Loring's Thallomys (Thallomys loringi); 500. Black-tailed Thallomys (Thallomys nigricauda); 501. Sundevall's Thallomys (Thallomys paedulcus); 502. Shortridge's Thallomys (Thallomys shortridgei).
Fig. 6 in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 6 Camera lucida drawings of the right hand (shown at left) and foot, in dorsal views, of Rhabdomys pumilio. Autopodial elements: as = astragalus, ca = calcaneus, ce = centrale, dc = distal carpal, dt = distal tarsal, f = fibula, mc = metacarpal, mt = metatarsal, nv = navicular, pi = pisiform, r = radius, sc = scaphoid, u = ulna, t = tibia, tr = triquetrum. Scales: 2 mm
Fig. 3 in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 3 Cleared and double-stained rodents prepared at the Paläontologisches Institut, Zürich. Left: Octodon degus. Right: Rhabdomys pumilio. Scale: 2 mm
Fig. 4 in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 4 Ossification of elements of the left hand (respective up- per row) and foot (lower row), in dorsal views, of Rhabdomys pumilio; black = ossified, grey = calcified. Number of specimens examined (N)= 1, except at stages a (N =16), f (6), g (2), n (9), y (4), and z (2)
Fig. 1 in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 1 Phylogenetic relationships among the species includ- ed in this study, reconstructed from Steppan et al. (2004), Bininda-Emonds et al. (2007), and Blanga-Kanfi et al. (2009)
Fig. 2 A in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 2 A sample of ontogenetic series prepared for this study at the Paläontologisches Institut und Museum, Zürich. a Cavia porcellus. b Rhabdomys pumilio. c Octodon degus. Scales: 2 mm
Data from: Limited dispersal in an ectoparasitic mite, Laelaps giganteus, contributes to significant phylogeographic congruence with their rodent hosts, Rhabdomys
To explore how biogeography, parasite life history and host vagility influences evolutionary codivergences, we followed a comparative phylogeography approach using a host specific non-permanent mite, Laelaps giganteus that occurs on four rodent species within the genus Rhabdomys. A mtDNA COI haplotype network derived for 278 parasite specimens showed marked phylogeographic congruence with host distributions. Analysis of the less variable nuclear intron Tropomyosin was in part consistent with these results. Although distance-based cophylogenetic analyses in AXPARAFIT failed to support significant mtDNA codivergences (P ≥ 0.02), event-based analyses revealed significant cophylogeny between sampling localities of Rhabdomys and Laelaps using CORE-PA (P = 0.046) and JANE (P = 0.026; P = 0.00). These findings, in conjunction with the weak congruence previously reported among the permanent ectoparasitic lice Polyplax and Rhabdomys, suggest that host-parasite intimacy is not the most important driver of significant codivergence in our study system. Instead the more restricted dispersal ability of L. giganteus, when compared to Polyplax, resulted in stronger spatial structuring and this could have resulted in significant codivergence. Host switching occurred predominantly on the edges of host distributions and was probably facilitated by climate-induced range shifts. When host ranges shift, the phylogeographic structure of L. giganteus is not reflecting the host movements since most of the nest bound parasites do not disperse with the host (they miss the boat) and the genetic contribution of the few dispersing mite individuals is often overwhelmed by the large number of individuals already present in nests within the new environment (causing them to drown on arrival).
Data from: Limited dispersal in an ectoparasitic mite, Laelaps giganteus, contributes to significant phylogeographic congruence with their rodent hosts, Rhabdomys
Open the record for dataset details and reuse information.
Evolution of neuronal cell classes and types in the vertebrate retina [Rhabdomys]
GEO Series GSE237210. Rhabdomys pumilio. 7 samples. Type: Expression profiling by high throughput sequencing.
Fig. 8 in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 8 Frequency variation plot of cranial and postcranial ossifying events for rodents examined in this study
Fig. 7 in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 7 Adjusted rank range plots of cranial a and postcranial b elements for rodents examined in this study
Fig. 5 in Skeletogenesis and sequence heterochrony in rodent evolution, with particular emphasis on the African striped mouse, Rhabdomys pumilio (Mammalia)
Fig. 5 Autopodial elements of the left hand a and foot b, in dorsal views, of Rhabdomys pumilio. Elements: as = astragalus, ca = calcaneus, ce= centrale, dc = distal carpal, dt = distal tarsal, f = fibula, mc = metacarpal, mt = metatarsal, nv = navicular, pi = pisiform, r = radius, sc = scaphoid, t = tibia, tr = triquetrum, u = ulna
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.