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Figure 3 in Nikolaj Livanow's historical collection sheds new light on potential local extinctions and host association in Hirudinea
Figure 3. Extract from the Systematic Catalogue of Collections and Preparations of Invertebrates of the Zootomy Cabinet Museum of the Imperial Kazan University (Meyer 1915). (a) Title page. (b) Selected entries [In Russian] for the specimens under discussion with our English translations and remarks (red letters). Photos: T. A. Eliseeva and A. V. Bespyatykh.
Figure 2 in Nikolaj Livanow's historical collection sheds new light on potential local extinctions and host association in Hirudinea
Figure 2. Collection vials with selected samples from the historical Hirudinea collection (EEZM): (a) Acanthobdella peledina Grube, 1851 (lot EEZM 387 "Onega Lake. N. Livanow, 1902"); (b) Hirudo medicinalis Linnaeus, 1758 (lot EEZM 406-407 "Kazan. E. Meyer, 1891"); and (c) Glossiphonia grubei (Lukin & Epshtein, 1959) (lot EEZM 397 "Lake Baikal (Maloe More [Strait]). V. Garjaew, 1899"). Photos: T. A. Eliseeva and A. V. Bespyatykh.
Figure 1 in Nikolaj Livanow's historical collection sheds new light on potential local extinctions and host association in Hirudinea
Figure 1. Cabinet with the historical Hirudinea collection in the EEZM – Edward Eversman Zoology Museum and Herbarium, Kazan (Volga Region) Federal University (formerly Zootomy Cabinet Museum of the Imperial Kazan University), prepared by Nikolaj A. Livanow and Eduard A. Meyer. The red numbers indicate exposition vials with samples of Acanthobdella peledina Grube, 1851 (1), Hirudo medicinalis Linnaeus, 1758 (2), and Glossiphonia grubei (Lukin & Epshtein, 1959) (3). Photo: T. A. Eliseeva and A. V. Bespyatykh.
Fig. 2 in Conservation Of The Javan Gibbon Hylobates Moloch: Population Estimates, Local Extinctions, And Conservation Priorities
Fig. 2. Relation between number of groups calling per day and number of census days in the Telaga Warna Nature Reserve (Sept 1999) and Lingo Asri, Dieng mountains (Sept 1998).
Fig. 1 in Conservation Of The Javan Gibbon Hylobates Moloch: Population Estimates, Local Extinctions, And Conservation Priorities
Fig. 1. Current distribution of the Javan gibbon Hylobates moloch. Based on Kappeler, 1984, Asquith et al., 1995, Nijman 2001b, and present study. All areas where the species' presence has been confirmed are indicated in black; areas where the species' possible presence was reported by Andayani et al. (1999) are indicated in white. The three main study areas are: A, Telaga Warna Nature Reserve; B, Gunung Gede Pangrango National Park; C, Dieng mountains. The insert shows Java with all remaining forest patches on the island.
Fig. 3 in Forensic bioacoustics? The advertisement calls of two locally extinct frogs from Colombia
Fig. 3. Full-scale audiospectrogram (top) and oscillogram (bottom) of the advertisement call of Gastrotheca guentheri. The note duration (nd), dominant frequency (df), and fundamental frequency (ff) are indicated.
Fig. 1 in Forensic bioacoustics? The advertisement calls of two locally extinct frogs from Colombia
Fig. 1. Geographic location (A) and general view (B) of Reserva Natural La Planada (Department of Nariño, Colombia; (C) Paruwrobates andinus and (D) Gastrotheca guentheri from Reserva Natural La Planada, Colombia. Photos by I. De la Riva (B) and P.A. Burrowes (C–D).
Fig. 2 in Forensic bioacoustics? The advertisement calls of two locally extinct frogs from Colombia
Fig. 2. Full-scale oscillogram (top), and expanded oscillogram and its audiospectrogram (bottom) of the advertisement call of Paruwrobates andinus. Call groups (A, B, and C), inter-call group interval (ci), and background noise (bn) are represented in the full-scale oscillogram. The note duration (nd), inter note interval (ni), dominant frequency (df), and fundamental frequency (ff) are indicated in the expanded box.
Fig. 5 in Cenozoic fossil fishes of the extinct alepisauroid family Polymerichthyidae from the Sakhalin Island, Russia
Fig. 5. Alepisauroid fish Polymerichthys sp. from Sakhalin Island, Holmsk Formation, late Oligocene (A) and Kurasi Formation, Middle–Late Miocene (B). A. ZIN 310p, abdominal centrum. B. ZIN 314p, fragment of the dorsal fin.
Fig. 1 in Cenozoic fossil fishes of the extinct alepisauroid family Polymerichthyidae from the Sakhalin Island, Russia
Fig. 1. Location of the Sakhalin Island (A) and sketch map of the studied area (B) showing the fossil fish localities (stars).
Fig. 4 in Cenozoic fossil fishes of the extinct alepisauroid family Polymerichthyidae from the Sakhalin Island, Russia
Fig. 4. Alepisauroid fish Polymerichthys sp. from Sakhalin Island, Kurasi Formation, Middle–Late Miocene, ZIN 314p, outline drawing of specimen (A) and skull (B).
Fig. 2 in Cenozoic fossil fishes of the extinct alepisauroid family Polymerichthyidae from the Sakhalin Island, Russia
Fig. 2. Alepisauroid fish Polymerichthys sp. from Sakhalin Island, Holmsk Formation, late Oligocene (A, B) and Kurasi Formation, Middle–Late Miocene (C–E). A. ZIN 311p. B. ZIN 310p. C. ZIN 313p. D. ZIN 312p. E. ZIN 314p. Scale bars 10 mm.
Fig. 8 in Taxonomic, biogeographic, and taphonomic reassessment of a large extinct species of paca from the Quaternary of Brazil
Fig. 8. Taphonomic aspects of the extinct paca Cuniculus rugiceps (Lund, 1837) from Cuvieri Cave (minimum age of ~30 ky), Lagoa Santa. A. Stratigraphic distribution of plotted specimens (specimens recovered by sieving are not represented) relative to the flowstone dated. Clusters of dots in the lower layers of Locus 3A and 3B represent bones preserved in anatomical association. Black arrow indicates the position of the 8 m deep pitfall. B. Excavation record of specimens in anatomical association (B1) with schematic indication of bone elements (B2). C. Left femur in posterior view (CVL3P13911), showing bone modifications caused by rodent gnawing (arrows; see the remarkable circular opening of diaphysis). D. Right innominate in medial view (CVL3B2165a), showing initial cracking caused by weathering (arrows).
Fig. 7 in Taxonomic, biogeographic, and taphonomic reassessment of a large extinct species of paca from the Quaternary of Brazil
Fig. 7. Distribution of the extinct Cuniculus rugiceps and extant species of Cuniculus and its fossil record. References in the text.
Fig. 3 in Taxonomic, biogeographic, and taphonomic reassessment of a large extinct species of paca from the Quaternary of Brazil
Fig. 3. Fossils of the extinct paca Cuniculus rugiceps (Lund, 1837) from Cuvieri Cave (minimum age of ~30 ky). A. Fossil 7 (CVL3 P13160), dorsal portion of the skull in dorsal (A1), ventral (A2), right lateral (A3), left lateral (A4), and posterior (A5) views. B. Fossil 8 (CVL3 P13168), right zygomatic arch in dorsal (B1), lateral (B2), and anterior (B3) views. C. Fossil 4 (CVL3 P13342), right dentary in lateral (C1) and medial (C2) views. D. Fossil 2 (CVL3 P11221), anteroventral face of the mentonian region of a right dentary showing rugosities. White arrows, discrete notch on the dorsal edges of the orbits; black arrows, large and deep notch on the bottom of the infraorbital foramen.
Fig. 2 in Dietary ecology of the extinct cave bear: Evidence of omnivory as inferred from dental microwear textures
Fig. 2. Bivariate plot of complexity (Asfc) and anisotropy (epLsar) of extant ursids and Ursus spelaeus.
Fig. 1 in Dietary ecology of the extinct cave bear: Evidence of omnivory as inferred from dental microwear textures
Fig. 1. Meshed axonometrics of digital elevation models showing microwear features. Examples include Ursus americanus (A), black bear (SBMNH 1381, modern specimen from California); Ursus arctos (B), brown bear (LACM 31256, modern specimen from Alaska), and Ursus spelaeus (C), cave bear (AMNH 11100, Pleistocene fossil specimen from Germany).
Fig. 1 in Taxonomic, biogeographic, and taphonomic reassessment of a large extinct species of paca from the Quaternary of Brazil
Fig. 1. Map showing the location of the Brazilian studied areas (A), and maps of Cuvieri Cave (Lagoa Santa, Minas Gerais) (B), and Toca de Cima dos Pilão Cave (Serra da Capivara, Piauí) (C). In Cuvieri Cave, fossils were excavated from Locus 3, and in Toca de Cima dos Pilão, fossils were excavated from Salão Terezinha. Map in B courtesy of Laboratório de Estudos Evolutivos Humanos and Grupo Bambuí de Pesquisas Espeleológicas, map in C adapted from Acervo da Fundação Museu do Homem Americano.
Fig. 6 in Taxonomic, biogeographic, and taphonomic reassessment of a large extinct species of paca from the Quaternary of Brazil
Fig. 6. Principal component analysis performed using the pooled-within species covariance matrix based on six dentary linear distances. Graydotted lines and associated numbers show the variables that have high correlations (r> 0.5) with each of the PCs. The gray numbers represent the measurements described in SOM 1.
Fig. 2 in Taxonomic, biogeographic, and taphonomic reassessment of a large extinct species of paca from the Quaternary of Brazil
Fig. 2. Fossils from the Lagoa Santa, Minas Gerais, Brazil, attributed to extinct pacas (ages unknown). A, B. Specimens assigned to "Cuniculus paca forma major" Lund, 1839. A. ZMK 1/1845:2029, mandible in occlusal (A1) and lateral (A2) views. B. ZMK 1/1845:13450, maxilla with P4–M3 series in occlusal view (B1); fragment of jugal in lateral view (B2). C. Atlas (ZMK 1/1845:2989) assigned to "Cuniculus paca forma laticeps" by Winge (1887), which Lund (1837) described as Cuniculus rugiceps. Arrow is pointing to the rugosities on the dorsal surface. D. Syntypes of Cuniculus rugiceps from Lagoa Santa with the original label of Herluf Winge (D1) and Lund's (1837) illustration (D2) comparing the right jugal of C. rugiceps ("Fig. 3") with C. paca ("Fig. 4") (Lund 1837: pl. 3, 1840 [1841c]: pl. 20).
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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.