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Fig. 1 in Revision of the genus Thinophilus Wahlberg (Diptera: Dolichopodidae) from Singapore and adjacent regions: A long term study with a prudent reconciliation of a genetic to a classic morphological approach
Fig. 1. Present extension of Singapore's mangroves (in green). The numbers indicate the sites that were sampled during the 1-month Singapore Mangrove Insect Project (SMIP 2009); and the 2-year Mangrove Insect Project (MIP 2012-2014). 1, Mandai mangroves; 2, Kranji Nature Trail; 3, Sungei Buloh Wetland Reserve; 4, Lim Chu Kang; 5, Sarimbun mangroves; 6, Berlayer Creek; 7, Pulau Semakau original or old mangrove (SMO); 8, Pulau Semakau, replanted or new mangrove (SMN); 9, Changi creek; 10, Pulau Tekong; 11, Pulau Ubin, Chek Jawa; 12, Pasir Ris; 13, Pulau Seletar; 14, Sungei Cina.
Fig. 4 in Revision of the genus Thinophilus Wahlberg (Diptera: Dolichopodidae) from Singapore and adjacent regions: A long term study with a prudent reconciliation of a genetic to a classic morphological approach
Fig. 4. Thinophilus apicatus sp. nov., male. A, Detail of surstyli ventrally; B, Tips cerci dorsally; C, Ventral view of epandrium; D, Lateral view of epandrium.
Fig. 3 in Revision of the genus Thinophilus Wahlberg (Diptera: Dolichopodidae) from Singapore and adjacent regions: A long term study with a prudent reconciliation of a genetic to a classic morphological approach
Fig. 3. Thinophilus apicatus sp. nov., male. A, Mid femur; B, Hind femur; C, Posterior view of fore leg; D, Anterior view of fore coxa.
Fig. 3 in Acute mortality in California tiger salamander (Ambystoma californiense) and Santa Cruz long-toed salamander (Ambystoma macrodactylum croceum) caused by Ribeiroia ondatrae (Class: Trematoda)
Fig. 3. Ribeiroia ondatrae cercaria from Planorbella sp. collected from Ellicott Pond in Ellicott Slough National Wildlife Refuge, Santa Cruz County, California, U.S.A.
Fig. 4 in Acute mortality in California tiger salamander (Ambystoma californiense) and Santa Cruz long-toed salamander (Ambystoma macrodactylum croceum) caused by Ribeiroia ondatrae (Class: Trematoda)
Fig. 4. Molecular phylogenetic analysis by Maximum Likelihood method based on the Hasegawa-Kishino-Yano plus G model with 500 bootstrap replications based on partial 28S rRNA gene sequences of Ribeiroia ondatrae metacercariae from California tiger salamanders (Ambystoma californiense), cercariae from Planorbella sp. and sequences of R. ondatrae publicly available in GenBank with Notocotylus attenuatus as an outgroup. Tree is drawn to scale with branch lengths measure in the number of substitutions per site. The analysis involved 13 nucleotide sequences. All positions with less than 95% site coverage were eliminated. There was a total of 1189 positions in the final dataset.
Fig. 2 in Acute mortality in California tiger salamander (Ambystoma californiense) and Santa Cruz long-toed salamander (Ambystoma macrodactylum croceum) caused by Ribeiroia ondatrae (Class: Trematoda)
Fig. 2. Photomicrograph of California tiger salamanders (Ambystoma californiense) in late-stage metamorphosis from a mortality event in the Ellicott Slough National Wildlife Refuge in Santa Cruz County, California, U.S.A. (A) Cross-section of dorsal tail showing widespread ulcerative dermatitis with superficial serocellular crust formation and intralesional metacercariae (asterisk) (H&E). (B) Metacercariae (asterisk) associated with mixed cellular to granulomatous inflammation widespread in the gills and subcutis (PAS). Inset: Encysted metacercariae are surrounded by mixed-cellular to granulomatous to infiltrate (H&E).
Fig. 1 in Acute mortality in California tiger salamander (Ambystoma californiense) and Santa Cruz long-toed salamander (Ambystoma macrodactylum croceum) caused by Ribeiroia ondatrae (Class: Trematoda)
Fig. 1. Gross photographs of ethanol-fixed salamanders in late-stage metamorphosis from a mortality event in the Ellicott Slough National Wildlife Refuge (ESNWR) in Santa Cruz County, California, U.S.A. showing integumentary lesions. (A) California tiger salamander (Ambystoma californiense) exhibiting an extensive roughening of the skin with multifocal ulceration around the eyes, gular fold, and dorsal tail (arrows). (B) Santa Cruz long-toed salamander (Ambystoma macrodactylum croceum) with ulceration and crust formation on the gular fold and base of the tail (arrow).
Fig. 2 in Can dams affect the trophic structure of ichthyofauna? A long-term effects in the Neotropical region
Fig. 2. Detrended Correspondence Analysis (DCA) (biplot) considering the fish species of each stretch and the different trophic categories in Jurumirim Reservoir, Upper Paranapanema River, state of São Paulo, Brazil. Acronym of the species in the Table III.
Fig. 3 in Can dams affect the trophic structure of ichthyofauna? A long-term effects in the Neotropical region
Fig. 3. Importance of trophic guilds (in numeric abundance and biomass) by stretch (lotic, transition, and lentic) of Jurumirim Reservoir, Upper Paranapanema River, state of São Paulo, Brazil.
Fig. 4 in Can dams affect the trophic structure of ichthyofauna? A long-term effects in the Neotropical region
Fig. 4. Proportion of the resources used by the species in the three studied zones in Jurumirim Reservoir, Upper Paranapanema River, state of São Paulo, Brazil: 1, Lotic; 2, Transition; 3, Lentic.
Figs 5-7 in Can dams affect the trophic structure of ichthyofauna? A long-term effects in the Neotropical region
Figs 5-7. Trophic interactions networks built with fish species (black) and resources consumed (gray): Fig. 5, Stretch 1 (lotic); Fig. 6, Stretch 2 (transition) and Fig. 7, Stretch 3 (lentic) in Jurumirim Reservoir, Upper Paranapanema River, state of São Paulo, Brazil.
Fig. 1 in Can dams affect the trophic structure of ichthyofauna? A long-term effects in the Neotropical region
Fig. 1. Map of Jurumirim Reservoir (Upper Paranapanema River, state of São Paulo, Brazil) indicating the three samplings zones.
Fig. 12 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 12. Restoration of long bones, manus, and pes of long-necked reptile Ozimek volans gen. et sp. nov. A. Right ulna and radius in proximal (A1) and posterior (A2) views, radius in anterior view (A3), based on ZPAL AbIII/2452, /2511. B. Manus, based on ZPAL AbIII/2511. C. Pes, based on UOPB 1148, ZPAL AbIII/3198, /2511. D. Right femur in anterior view, based on UOPB 1148 and ZPAL AbIII/3191. E. Tibia in anterior (E1), lateral (E2), and posterior (E3) views, based on ZPAL AbIII/2526, /2527, /2512. F. Fibula, based on ZPAL AbIII/2512, /2525, /3191. G. Tibia and fibula in anterior view, based on ZPAL AbIII/2512.
Fig. 9 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 9. Restoration of cervicals of long-necked reptile Ozimek volans gen. et sp. nov. A. Neural arches of atlas and complete axis, ZPAL AbIII/3191. B. Cervical 3, ZPAL AbIII/2051. C. Cervical 4, ZPAL AbIII/2511. D. Cervical 5, UOPB 1148. E. Cervical 6 with ribs, based on UOPB 1148, ZPAL AbIII/2456, /2511, /2512. F. Cervical 7, based on UOPB 1148, ZPAL AbIII/2528, /2494, /2454, /2511. G. Cervical 8, based on UOPB 1148, ZPAL AbIII/2528, /2499, /2511, /2512. H. Cervical 9, based on UOPB 1148 and ZPAL AbIII/2499. In left lateral (A1–D1, E2, F1–H1), ventral (A2–D2, E3, F2–H2), and dorsal (A3–D3, E4, F3–H3), anterior (E1), and posterior (E5) views.
Fig. 5 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 5. Partially articulated skeleton ZPAL AbIII/2511 of long-necked reptile Ozimek volans gen. et sp. nov. from Krasiejów, lower Upper Triassic, preserved in claystone; two slices of the rock (A, B). Photographs (A1, B1) and specimens coated with ammonium chloride (A2, B2). See also explanatory drawing (Fig. 4) and additional photographs (Fig. 6).
Fig. 11 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 11. Restoration of pectoral and pelvic girdle elements of long-necked reptile Ozimek volans gen. et sp. nov. A. Scapulocoracoid and clavicles in left lateral (A1), anterior (A2), and ventral (A3) views, based on ZPAL AbIII/2512. B. Right humerus in proximal (B1), medial (B2), external (B3), distal (B4), anterior (B5), and posterior (B6) views, based on a juvenile ZPAL AbIII/2512. C. Pelvis with sacral 2 in posterior (C1) and dorsal (C3) views, ilium in medial view (C2), pelvis in left lateral view (C4), based on ZPAL AbIII/2511.
Fig. 4 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 4. Composite drawing of skeleton ZPAL AbIII/2511 of long-necked reptile Ozimek volans gen. et sp. nov. with bones from all layers superimposed see photographs Figs. 5, 6).
Fig. 7 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 7. Curled skeleton ZPAL AbIII/2512, holotype of long-necked reptile Ozimek volans gen. et sp. nov. from Krasiejów, lower Upper Triassic, preserved in a limestone concretion. A. Neck and pectoral girdle in ventral (A1) and oblique right lateral (A2, A3) views. B. Pectoral girdle in anterior view. C. Thoracic vertebrae, ilium, and long bones of the hind leg. D. Dorsal vertebrae, coracoid, and long bones of the front leg. E. Humeri, scapula, ilium. Photographs of specimens coated with ammonium chloride (A3, C2, E2).
Fig. 3 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 3. Incomplete articulated skeleton ZPAL AbIII/2012 of long-necked reptile Ozimek volans gen. et sp. nov. from Krasiejów, lower Upper Triassic, preserved at a local sedimentary discontinuity surface between grey claystone and red fine-grained mudstone. View of the block from below (A) and above (B), showing location of the crushed skull; enlarged skull (C); part of the thorax (D), preserved in vertical orientation. Photographs of specimen whitened with ammonia chloride (A2–D2). See also explanatory drawing (Fig. 2).
Fig. 1 in An early Late Triassic long-necked reptile with a bony pectoral shield and gracile appendages
Fig. 1. Krasiejów claypit yielding Ozimek volans gen. et sp. nov. A. Photograph of the quarry wall with exposed fossiliferous lacustrine horizon. B. Rock column of strata of lower Upper Triassic exposed at Krasiejów and position of the lacustrine bed (modified after Dzik et al. 2000). C. Diagrammatic representation of the NW corner of the quarry with location of the lacustrine bed indicated (modified after Dzik 2003).
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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.