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Appendix. List of the 28S and 16S rRNA sequences recovered from GenBank. 28S = 28S rRNA GenBank accession number; 16S = 16S rRNA GenBank accession number. in Genetic and morphological evidence for cryptic species in Macrobrachium australe and resurrection of M. ustulatum (Crustacea, Palaemonidae)
Appendix. List of the 28S and 16S rRNA sequences recovered from GenBank. 28S = 28S rRNA GenBank accession number; 16S = 16S rRNA GenBank accession number.
Fig. 5 in Genetic and morphological evidence for cryptic species in Macrobrachium australe and resurrection of M. ustulatum (Crustacea, Palaemonidae)
Fig. 5. Macrobrachium ustulatus (Nobili, 1899). – A–B, E. MNHN-IU-2013-13202. A. Cephalothorax. B. Epistome. E. Major second pereiopod finger. – C, G. MNHN-IU-2013-13201. C. Fourth thoracic sternite. G. Minor second pereiopod finger. – D, F. MNHN-IU-2013-13203. D. Major second pereiopod. F. Minor second pereiopod. Scale bars: A, E, G = 2 mm; B–C = 1 mm; D, F = 4 mm.
Fig. 3 in Genetic and morphological evidence for cryptic species in Macrobrachium australe and resurrection of M. ustulatum (Crustacea, Palaemonidae)
Fig. 3. Macrobrachium australe (Guérin-Méneville, 1838 in Guérin-Méneville 1829–1838), MNHN- IU-2013-13198. A. Cephalothorax. B. Epistome. C. Fourth thoracic sternite. D. Major second pereiopod. E. Major second pereiopod finger. F. Minor second pereiopod. G. Minor second pereiopod finger. Scale bars: A, E, G = 2 mm; B–C = 1 mm; D, F = 4 mm.
Fig. 1 in Genetic and morphological evidence for cryptic species in Macrobrachium australe and resurrection of M. ustulatum (Crustacea, Palaemonidae)
Fig. 1. Map of the Indo-Pacific showing localities where Macrobrachium australe (Guérin-Méneville, 1838 in Guérin-Méneville 1829–1838) (black area) and M. ustulatum (Nobili, 1899) (red area) were collected and/or recorded. Capitalized locality names correspond to the 7 localities sampled for this study. Non-capitalized locality names correspond to the localities reported from the literature. Stars shows the type localities of the synonyms of M. australe (black stars) and M. ustulatum (red star).
Fig. 4. A in Genetic and morphological evidence for cryptic species in Macrobrachium australe and resurrection of M. ustulatum (Crustacea, Palaemonidae)
Fig. 4. A. Live coloration of Macrobrachium australe (Guérin-Méneville, 1838 in Guérin-Méneville 1829–1838) (photo: E. Vigneux). B. Live coloration of M. ustulatum (Nobili, 1899) (photo: P. Keith).
Data from: Resurrected seeds from herbarium specimens reveal rapid evolution of drought resistance in a selfing annual
<p>Premise of study: Increased aridity and drought associated with climate change are exerting unprecedented selection pressures on plant populations. Whether populations can rapidly adapt, and which life history traits might confer increased fitness under drought, remain outstanding questions. </p> <p>Methods: We utilized a resurrection ecology approach, leveraging dormant seeds from herbarium collections to assess whether populations of <em>Plantago patagonica</em> from the semi-arid Colorado Plateau have rapidly evolved in response to approximately ten years of intense drought in the region. We quantified multiple traits associated with drought escape and drought resistance and assessed the survival of ancestors and descendants under simulated drought. </p> <p>Key Results: Descendant populations displayed a significant shift in resource allocation, in which they invested less in reproductive tissues and relatively more in both above- and below-ground vegetative tissues. Plants with greater leaf biomass survived longer under terminal drought; moreover, even after accounting for the effect of increased leaf biomass, descendant seedlings survived drought longer than their ancestors. </p> <p>Conclusions: Our results document rapid adaptive evolution in response to climate change in a selfing annual and suggest that shifts in tissue allocation strategies may underlie adaptive responses to drought in arid or semi-arid environments. This work also illustrates a novel approach, documenting that under specific circumstances, seeds from herbarium specimens may provide an untapped source of dormant propagules for future resurrection experiments.</p>
FIG. 4 in Passiflora tinifolia Juss. (Passiflora subgenus Passiflora): resurrection and synonymies
FIG. 4. — Passiflora tinifolia Juss., French Guiana (photos: Maxime Rome): A, young leaf with glands at the apex of the petiole and linear stipules; B, mature leaf with peduncles gathered in a pseudoraceme; C, flower bud with bracts; D, flower; E, longitudinal section of flower; F, immature and mature fruit.
Figs 13–16 in Resurrection Of The Genus Micherdzinskiiobovella Hirschmann, 1989, With The Description Of M. Petofii Sp. N. From Singapore (Acari: Mesostigmata: Urodinychidae)
Figs 13–16. Photos of Micherdzinskiiobovella petofii sp. n., holotype, female: 13 = idiosoma in dorsal view, 14 = idiosoma in ventral view, 15 = peritrema and female genital shield, 16 =
Figs 25–26 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 25–26. Brueelia (Painjunirmus) alba sp. nov. 25. Holotype, ♂ (NHMUK010709544), habitus, dorsal and ventral views. 26. Paratype, ♀ (NHMUK010709545), habitus, dorsal and ventral views.
Figs 17–18 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 17–18. Brueelia (Painjunirmus) pengya (Ansari, 1947). 17. ♂, habitus, dorsal and ventral views. 18. ♀, habitus, dorsal and ventral views.
Figs 9–10 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 9–10. Brueelia (Painjunirmus) brevipennis Ansari, 1956. 9. Paratype, ♂ (NHMUK010708241), habitus, dorsal and ventral views. 10. ♀ (NHMUK010708242), habitus, dorsal and ventral views.
Figs 3–8 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 3–8. Brueelia (Painjunirmus) chilchil Ansari, 1955. 3. ♂, head, dorsal and ventral views. 4. ♀, antenna, ventral side. 5. ♂, genitalia, dorsal view. 6. ♂, mesosome, ventral view. 7. ♂, paramere, dorsal view. 8. ♀, subgenital plate and vulval margin, ventral view.
Figs 1–2 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 1–2. Brueelia (Painjunirmus) chilchil Ansari, 1955. 1. ♀, dorsal and ventral views. 2. ♀, habitus, dorsal and ventral views.
Figs 11–16 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 11–16. Brueelia (Painjunirmus) brevipennis Ansari, 1956. 11, 13–15. Paratype, ♂ (NHMUK010708241). 12, 16. ♀ (NHMUK010708242). 11. Head, dorsal and ventral views. 12. Antenna, ventral side. 13. Genitalia, dorsal view. 14. ♂, mesosome, ventral view. 15. Paramere, dorsal view. 16. Subgenital plate and vulval margin, ventral view.
Figs 35–40 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 35–40. Brueelia (Painjunirmus) magnini Ansari, 1956a. 35. ♂, head, dorsal and ventral views. 36. ♀, antenna, ventral side. 37. ♂, genitalia, dorsal view. 38. ♂, mesosome, ventral view. 39. ♂, paramere, dorsal view. 40. ♀, subgenital plate and vulval margin, ventral view.
Figs 19–24 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 19–24. Brueelia (Painjunirmus) pengya (Ansari, 1947). 19. ♂, head, dorsal and ventral views. 20. ♀, antenna, ventral side. 21. ♂, genitalia, dorsal view. 22. ♂, mesosome, ventral view. 23. ♂, paramere, dorsal view. 24. ♀, subgenital plate and vulval margin, ventral view.
Figs 27–32 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 27–32. Brueelia (Painjunirmus) alba sp. nov. 27, 29–31. Holotype, ♂ (NHMUK010709544). 28, 32. Paratype, ♀ (NHMUK010709545). 27. Head, dorsal and ventral views. 28. Antenna, ventral side. 29. Genitalia, dorsal view. 30. Mesosome, ventral view. 31. Paramere, dorsal view. 32. Subgenital plate and vulval margin, ventral view.
Figs 33–34 in Resurrection of Painjunirmus Ansari, 1947 (Phthiraptera: Ischnocera) as a subgenus of Brueelia Kéler, 1936, with description of one new species
Figs 33–34. Brueelia (Painjunirmus) magnini Ansari, 1956. 33. ♂, habitus, dorsal and ventral views. 34. ♀, habitus, dorsal and ventral views.
Monitoring demography of resurrected populations of locally extinct and extant species to investigate drivers of species loss
<p>Extinctions are predicted to rise by an order of magnitude over the next century. Although contemporary documented extinctions are uncommon, local extirpations likely provide hints about global extinction risks. Comparing responses to global change of locally extinct versus extant species pairs in a phylogenetic framework could highlight why certain species are more vulnerable to extinction than others and which anthropogenic changes are most relevant to their decline. As anthropogenic changes likely interact to affect population declines, demographic studies partitioning the effects of multifactorial stressors are needed but remain rare. I examine demographic responses to nitrogen addition and deer herbivory, two major drivers of species losses in grasslands, in experimental reintroductions of fourteen locally extinct and extant confamilial native plants from Michigan prairies. Nitrogen consistently reduces survival, especially in locally extinct species, and growth of locally extinct species benefits less from nitrogen than growth of extant species. Nitrogen reduces population growth rates, largely via reductions in survival. Deer herbivory, meanwhile, had inconsistent effects on vital rates among species and did not affect population growth. Nitrogen and herbivory rarely interacted to affect vital rates. These results link community-level patterns of species loss under nitrogen addition to the population-level processes underlying those losses.</p>
Fig. 26 in Arboreal gems: resurrection of Isometrus sankeriensis Tikader & Bastawade, 1983 and descriptions of two new species of Isometrus Ehrenberg, 1828 (Scorpiones: Buthidae) from the Western Ghats, India
Fig. 26. Distribution of Indian species of Isometrus Ehrenberg, 1828 with elevation data. Stars represent type localities and circles represent additional sampled localities.
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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)
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
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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.
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