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7,849 results for “Conservancy”
Supplementary material 6 from: Jones GM, Gutiérrez RJ, Kramer HA, Tempel DJ, Berigan William J, Whitmore Sheila A, Peery MZ (2019) Megafire effects on spotted owls: elucidation of a growing threat and a response to Hanson et al. (2018). Nature Conservation 37: 31-51. https://doi.org/10.3897/natureconservation.37.32741
: Data type: Representative photographs of two spotted owl nest areas burned at high fire severity during the King Fire (2014) and three general areas within the Eldorado Study Area in the central Sierra Nevada, California, USA that depict three general fire severity classes of this fire.
Supplementary material 3 from: Jones GM, Gutiérrez RJ, Kramer HA, Tempel DJ, Berigan William J, Whitmore Sheila A, Peery MZ (2019) Megafire effects on spotted owls: elucidation of a growing threat and a response to Hanson et al. (2018). Nature Conservation 37: 31-51. https://doi.org/10.3897/natureconservation.37.32741
: Data type: Representative photographs of two spotted owl nest areas burned at high fire severity during the King Fire (2014) and three general areas within the Eldorado Study Area in the central Sierra Nevada, California, USA that depict three general fire severity classes of this fire.
Supplementary material 1 from: Jones GM, Gutiérrez RJ, Kramer HA, Tempel DJ, Berigan William J, Whitmore Sheila A, Peery MZ (2019) Megafire effects on spotted owls: elucidation of a growing threat and a response to Hanson et al. (2018). Nature Conservation 37: 31-51. https://doi.org/10.3897/natureconservation.37.32741
: Data type: Representative photographs of two spotted owl nest areas burned at high fire severity during the King Fire (2014) and three general areas within the Eldorado Study Area in the central Sierra Nevada, California, USA that depict three general fire severity classes of this fire.
Supplementary material 5 from: Jones GM, Gutiérrez RJ, Kramer HA, Tempel DJ, Berigan William J, Whitmore Sheila A, Peery MZ (2019) Megafire effects on spotted owls: elucidation of a growing threat and a response to Hanson et al. (2018). Nature Conservation 37: 31-51. https://doi.org/10.3897/natureconservation.37.32741
: Data type: Representative photographs of two spotted owl nest areas burned at high fire severity during the King Fire (2014) and three general areas within the Eldorado Study Area in the central Sierra Nevada, California, USA that depict three general fire severity classes of this fire.
Supplementary material 1 from: Valkó O, Tóth K, Kelemen A, Miglécz T, Radócz S, Sonkoly J, Tóthmérész B, Török P, Deák B (2018) Cultural heritage and biodiversity conservation – plant introduction and practical restoration on ancient burial mounds. Nature Conservation 24: 65-80. https://doi.org/10.3897/natureconservation.24.20019
Supplementary material 1 from: Valkó O, Tóth K, Kelemen A, Miglécz T, Radócz S, Sonkoly J, Tóthmérész B, Török P, Deák B (2018) Cultural heritage and biodiversity conservation – plant introduction and practical restoration on ancient burial mounds. Nature Conservation 24: 65-80. https://doi.org/10.3897/natureconservation.24.20019
FIGURE 26 in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURE 26. Male glandular structure of metatarsus III in Manahunca matazon n. sp. A–D. Male paratype (CZACC 3.4366), scanning electron micrographs: A. General view of metatarsus III, highlighted zone shows the form of the groove (buttonholelike); B. Close-up of the highlighted zone in A, note the depth of the groove; C. Close-up of the ventral groove, white arrow shows a seta (long paint brush, basally striated and twisted), white arrowheads show paired glandular openings (pores) irregularly arranged around the setae; D. Integument of the ventral groove.
FIGURES 17–23. Manahunca turquino n in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURES 17–23. Manahunca turquino n. sp., male holotype (CZACC 3.4359), distal part of penis: 17. Dorsal view; 18. Dorsal view, expanded; 19. Ventral and lateral views, total penis; 20. Lateral view; 21. Lateral view, expanded; 22. Ventral view; 23. Ventral view, expanded. Scale bar = 0.1 mm. Abbreviations as in Figs 5–14.
FIGURES 5–14 in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURES 5–14. Manahunca bielawskii, male neotype (CZACC 3.4352), distal part of penis: 5. Dorsal view; 6. Dorsal view, expanded; 7. Ventral and lateral views, total penis; 8. Lateral view; 9. Lateral view, expanded; 10. Ventral view; 11. Ventral view, expanded. Scale bars = 0.1 mm. 11–13. Scanning electron microscopy of distal part of penis of male (CZACC 3.4367): 12. Dorsal view; 13. Latero-apical view; 14. Ventro-apical view. Abbreviations: Str, stragulum; Ape, aperture; Led, ledge; Co, conductors; Sty, stylus; Fo, follis; AP, apical process; AS, apical setae; VS, ventral setae.
FIGURE 3 in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURE 3. Manahunca bielawskii, male (CZACC 3.4368), right pedipalp A–D. A. Trochanter-tarsus, mesal view; B. Tibia and tarsus, mesal view; C. Trochanter-tarsus, ectal view; D. Tibia and tarsus, ectal view. Tr, trochanter; Fe, femur, Pa, patella, Ti, tibia, Ta, tarsus; TC, tarsal claw; ST, setiferous tubercle; g, gap in the tubercles series; Scale bars = 1 mm.
FIGURES 24–25. Manahunca matazon n in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURES 24–25. Manahunca matazon n. sp., male holotype (CZACC 3.4363): 24. Habitus, dorsal view; 25. Habitus, lateral view. Scale bar = 1 mm.
FIGURE 4 in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURE 4. Male glandular structure of metatarsus III in Manahunca bielawskii. A–D. male (CZACC 3.4367), scanning electron micrographs: A. General view of metatarsus III, highlighted zone shows the form of the groove (buttonhole-like); B. Closeup of the highlighted zone in A, note the depth of the groove; C. Close-up of the ventral groove, white arrow shows a seta (long paint brush, basally striated and twisted), white arrowheads show glandular openings (pores) irregularly arranged around the setae; D. Integument of the ventral groove.
FIGURES 27–33. Manahunca matazon n in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURES 27–33. Manahunca matazon n. sp., male holotype (CZACC 3.4363), distal part of penis: 27. Dorsal view; 28. Dorsal view, expanded; 29. Ventral and lateral views, total penis; 30. Lateral view; 31. Lateral view, expanded; 32. Ventral view; 33. Ventral view, expanded. Scale bars = 0.1 mm. Abbreviations: as in Figs 5–14.
FIGURE 36 in Two new species of Manahunca, redescription of its type species, current conservation status of the genus and a survey of male glands in Stenostygninae (Opiliones: Laniatores: Biantidae)
FIGURE 36. Male glandular structure of metatarsi III in Stenostygninae species, Scanning electron micrographs. A–B. Caribbiantes cubanus (CZACC 3.4371): A. General view of metatarsus III, highlighted zone shows the form of the groove (buttonhole-like); B. Close-up of the highlighted zone in A, white arrow shows a seta (long paint brush, basally striated and twisted), white arrowheads show glandular openings (pores) arranged around the setae. C–D. Galibrotus carlotanus (CZACC 3.4373): C. General view of metatarsus III, highlighted zone shows the form of the groove (narrow ellipse); D. Close-up of the highlighted zone in C, white arrow shows a seta (short squared-off paint scrapers, basally striated and twisted), white arrowheads glandular openings (pores) irregularly arranged giving a cribriform aspect. E–F. Negreaella rioindiocubanicola (CZACC 3.4375): E. General view of metatarsus III, highlighted zone shows the form of the groove (buttonhole-like); F. Close-up of the highlighted zone in E, white arrow shows a seta (short squared-off paint scrapers, basally striated and twisted), white arrowhead a glandular opening (pore). G–H. Decuella cubaorientalis (CZACC 3.4377): G. General view of metatarsus III, highlighted zone shows the form of the groove (narrow buttonhole-like); H. Close-up of the same highlighted zone in G, white arrow shows a seta (short paint brush, basally striated and twisted, white arrowheads show glandular openings (pores).
Fig. 4 in Conservation genetics and phylogeography of the poorly known Middle Eastern terrapin Mauremys caspica (Testudines: Geoemydidae)
Fig. 4 Distribution of mitochondrial haplotypes of Mauremys caspica. Green symbols correspond to the western haplotype cluster; beige symbols, to the eastern cluster. The overlapping symbols (arrow) represent a syntopic occurrence of haplotypes of the two clusters. Numbers indicate individual haplotypes; numbers separated by slashes, syntopic occurrences of respective haplotypes. New haplotypes identified in the present study are numbers 11–14. Inset Parsimony network showing mutational relationships of haplotypes. Symbol size corresponds to haplotype frequency. Small black circles are missing node haplotypes. Unless otherwise indicated, lines connecting haplotypes represent one mutational step
Fig. 3 in Conservation genetics and phylogeography of the poorly known Middle Eastern terrapin Mauremys caspica (Testudines: Geoemydidae)
Fig. 3 Posterior distributions of population demographic parameters for Mauremys caspica using MSVAR. Each line corresponds to the sum of posterior distributions of the four runs obtained for each cluster; colour code as in Fig. 2. Top Posterior distribution of the estimated time (in years ago) for each bottleneck. Bottom Posterior distribution of ancestral (N1) and present (N0) effective population sizes
Fig. 3 in A phylogeographic framework for the conservation of Saharan and Arabian Dorcas gazelles (Artiodactyla: Bovidae)
Fig. 3 Statistical parsimony network based on (a) a 412 bp fragment (73 sequences) and (b) the complete cytochrome b gene (57 sequences). Each circle represents a different haplotype, whereby circle size is proportional to the number of individuals in our data set
Fig. 2 in A phylogeographic framework for the conservation of Saharan and Arabian Dorcas gazelles (Artiodactyla: Bovidae)
Fig. 2 Phylogeny based on the complete cytochrome b gene, Bayesian analyses of 83 sequences under the GTR + Γ + I parameters. Posterior probability values larger than 0.9 are reported. Dorcas gazelles are gray shaded except for one presumed G. dorcas sample
FIGURE 6 in Diversity and conservation of native Argentine species of Gratioleae (Plantaginaceae)
FIGURE 6. Map showing the geographical distribution of threatened Argentinean Gratioleae in relation to the existing protected areas in the country. Abreviations: NPIB=National Park Iberá, NPIG= National Park Iguazú, NPM= National Parks Mburucuyá, HCR= Ramsar Site Network.
FIGURE 4 in Diversity and conservation of native Argentine species of Gratioleae (Plantaginaceae)
FIGURE 4. Pie chart showing threat assessments for Argentinean species of Gratioleae based on IUCN red list categories. Number of taxa under each category (top), total proportion of taxa under each category (bottom). Abbreviations: (CR) Critically endangered, (EN) Endangered, (LC) Least concern, (NT) near threatened, (VU) Vulnerable.
FIGURE 2 in Diversity and conservation of native Argentine species of Gratioleae (Plantaginaceae)
FIGURE 2. Map showing the geographical distribution of Argentinean Gratioleae. A. General view of the study area. The line indicates the limit of the ecoregions according to Olson et al. (2001). B. Distribution of Argentinean genera of Gratioleae in relation to ecoregions.
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OpenNeuro
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