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Figure 3 in How long do dolphins live? Survival rates and life expectancies for bottlenose dolphins in zoological facilities ťs. wild populations
Figure 3. Survivorship to each age as calculated for age-at-death data for modern-day dolphins in zoological care and two wild populations.
Figure 1 in How long do dolphins live? Survival rates and life expectancies for bottlenose dolphins in zoological facilities ťs. wild populations
Figure 1. ASR (95% confidence intervals) of bottlenose dolphins>1 yr old in zoological care across historical time periods.
Figs. 6–10. 6. Cerithium magnum Jay, 1836 in Catalog Of Recent Type Specimens In The Division Of Invertebrate Zoology, American Museum Of Natural History. V. Mollusca, Part 2 (Class Gastropoda [Exclusive Opisthobranchia And Pulmonata With Supplements To Gastropoda [Opisthobranchia], And Bivalvia
Figs. 6–10. 6. Cerithium magnum Jay, 1836 (lectotype—AMNH 56067), X 0.75. 7. Conus Bernardi and Crosse, 1861 (syntype—AMNH 47629), X 1.75. 8. Conus pseudoaustini Usticke, (holotype—AMNH 195452), X 2. 9. Cyclostoma maculosa Jay, 1839 (syntype—AMNH 56086), 10. Cyclostoma multilineata Jay, 1839 (syntype—AMNH 56087), X 2.6.
Fig 9. Top 10 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 9. Top 10 of most utilized journals from 1946 to 2012. A. Cicadellidae. B. Miridae. C. Pyralidae. D. Staphylinidae.
Fig 6 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 6 (continued from previous page). Number of total articles and co-authored articles from 1946 to 2012. A. Cicadellidae. B. Miridae. C. Pyralidae. D. Staphylinidae.
Fig 6 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 6 (continued on next page). Number of total articles and co-authored articles from 1946 to 2012. A. Cicadellidae. B. Miridae. C. Pyralidae. D. Staphylinidae.
Fig 5 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 5 (continued on next page). Number of articles published by continent (Europe, North America, South America, Africa, Asia and Australia) between 1946 and 2012. A. Cicadellidae. B. Miridae. C. Pyralidae. D. Staphylinidae.
Fig 2 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 2. Average new species described per article (Cicadellidae, Miridae, Pyralidae and Staphylinidae combined) from 1946 to 2012.
Fig 1 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 1. Time series of newly described species for the families Cicadellidae, Miridae, Pyralidae and Staphylinidae between 1946 and 2012. A. Number of new species. B. Number of articles with new species.
Fig 4 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 4. Total and average article length for for papers on the four families of Cicadellidae, Miridae, Pyralidae and Staphylinidae between 1946 and 2012.
Fig 3 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 3. Average page length of new species descriptions (Cicadellidae, Miridae, Pyralidae and Staphylinidae combined) between 1946 and 2012.
Fig 5 in Publishing trends and productivity in insect taxonomy from 1946 through 2012 based on an analysis of the Zoological Record for four species-rich families
Fig 5 (continued from previous page). Number of articles published by continent (Europe, North America, South America, Africa, Asia and Australia) between 1946 and 2012. A. Cicadellidae. B. Miridae. C. Pyralidae. D. Staphylinidae.
Figures 50-57. 50 in The importance of biological collections for public health: The case of the Triatominae collection of the Museum of the Institute of Agricultural Zoology "Francisco Fernández Yépez", Venezuela
Figures 50-57. 50. Male of Triatoma maculata, 51. Female of Triatoma maculata, 52. Male of Triatoma nigromaculata, 53. Female of Triatoma nigromaculata, 54. Male of Triatoma patagonica, 55. Male of Triatoma platensis, 56. Female of Triatoma platensis, 57. Female of Triatoma protracta. Bar: 10 mm.
Figures 43-49.43 in The importance of biological collections for public health: The case of the Triatominae collection of the Museum of the Institute of Agricultural Zoology "Francisco Fernández Yépez", Venezuela
Figures 43-49.43. Female of Triatoma delpontei, 44. Male of Triatoma dimidiata, 45. Female of Triatoma dimidiata, 46. Female of Triatoma eratyrusiformis, 47. Female of Triatoma guasayana, 48. Male of Triatoma infestans, 49. Female of Triatoma infestans. Bar: 10 mm.
Figures 22-28. 22 in The importance of biological collections for public health: The case of the Triatominae collection of the Museum of the Institute of Agricultural Zoology "Francisco Fernández Yépez", Venezuela
Figures 22-28. 22. Male of Triatoma longipennis, 23. Female of Triatoma longipennis, 24. Male of Nesotriatoma confusa, 25. Female of Nesotriatoma confusa, 26. Male of Triatoma picturatus, 27. Male of Triatoma pallidipennis, 28. Female of Triatoma pallidipennis. Bar: 10 mm.
Figures 1-6. 1 in The importance of biological collections for public health: The case of the Triatominae collection of the Museum of the Institute of Agricultural Zoology "Francisco Fernández Yépez", Venezuela
Figures 1-6. 1. Female of Belminus pittieri, 2. Male of Belminus rugulosus, 3. Female of Belminus rugulosus, 4. Female of Cavernicola pilosa, 5. Male Psammolestes arthuri, 6. Female Psammolestes arthuri. Bar: 10 mm.
Figures 7-14. 7 in The importance of biological collections for public health: The case of the Triatominae collection of the Museum of the Institute of Agricultural Zoology "Francisco Fernández Yépez", Venezuela
Figures 7-14. 7. Male of Rhodnius brethesi, 8. Female of Rhodnius brethesi, 9. Male of Rhodnius neglectus, 10. Female of Rhodnius neglectus, 11. Male of Rhodnius neivai, 12. Female of Rhodnius neivai, 13. Fale of Rhodnius pictipes, 14. Female of Rhodnius pictipes. Bar: 10 mm.
Fig. 4 in Mosquito identification and haemosporidian parasites detection in the enclosure of the African penguins (Spheniscus demersus) at the SANBI zoological garden
Fig. 4. Maximum likelihood tree showing the clustering of Leucocytozoon sp. (Clade I) and Plasmodium sp. (Clade II) with Haemoproteus sp. as outgroup. Sequences from this study are highlighted with red circles. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 3. Maximum likelihood tree for Culex species showing the 5 clades representing 5 subgroups. Clade I in Mosquito identification and haemosporidian parasites detection in the enclosure of the African penguins (Spheniscus demersus) at the SANBI zoological garden
Fig. 3. Maximum likelihood tree for Culex species showing the 5 clades representing 5 subgroups. Clade I is the Trifilatus Subgroup (Mattingly and Rageau, 1958) for Cx. torrentium; Clade II and III are the Pipiens Complex; Clade IV the Theileri Subgroup (Sirivanakarn, 1976) for Cx. theileri; and Clade V is the Tarsalis (Edwards, 1932) for Cx. declaratory and Apicinus Subgroups (Edwards, 1932) for Cx. mollis. Lutzia sp. used as outgroups. Sequences from this study are indicated by asterisks (*).
Fig. 1 in Mosquito identification and haemosporidian parasites detection in the enclosure of the African penguins (Spheniscus demersus) at the SANBI zoological garden
Fig. 1. Map of South Africa showing the National Zoological Gardens (NZG). The red star indicates where the African penguin enclosure is located and where mosquito samples were collected (Labuschagne et al., 2008). (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
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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.