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FIGURE 17 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 17. Distribution of the genus Ferricixius Hoch & Ferreira, 2012 in Brazil. Red triangle: F. davidi Hoch & Ferreira, 2012. Green diamond, F. goliathi sp. nov. Blue circle, F. michaeli sp. nov. Black circle, F. urieli sp. nov.; Diffuse areas in light blue = karst areas; The shapefile with karst areas and the occurrence of caves in Brazil was obtained from CECAV (https://www. icmbio.gov.br/cecav/projetos-e-atividades/provinciasespeleologicas.html). The limits of Brazil were obtained from ForestGis (https://forest-gis.com/download-gis-base-de-dados/)
FIGURE 5 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 5. Habitat Ferricixius urieli sp. nov.: Casas cave, Limas Duarte municipality- MG (A–C); habitus Ferricixius urieli sp. nov. (D).
FIGURE 4 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 4. Ferricixius urieli sp. nov., male genitalia: Genital capsule right lateral (A); genital capsule left lateral (B); genital capsule dorsal (C); aedeagus right lateral (D); aedeagus in dorsal view (E); aedeagus left lateral (F); genital capsule ventral (G).
FIGURE 7 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 7. Ferricixius michaeli sp. nov.: Male genitalia: Genital capsule right lateral (A); genital capsule left lateral (B); genital capsule dorsal (C); aedeagus right lateral (D); aedeagus in dorsal view (E); aedeagus left lateral (F); genital capsule ventral (G).
FIGURE 3 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 3. Ferricixius urieli sp. nov.: head (A–C), pedicel with flagellum (C1); tegmen (forewing) (D); hind tibia and tarsomeres (E); hind tarsomeres (F).
FIGURE 2 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 2. Tegmina: Ferricixius urieli sp. nov. (A); Ferricixius michaeli sp. nov. (B); Ferricixius goliathi sp. nov. (C).
FIGURE 9 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 9. Ferricixius goliathi sp. nov.: Head A–C; pedicel with flagellum and arista (C1); tegmina (forewings) (D); E hind tibia and tarsomeres (E); hind tarsomeres (F).
FIGURE 14 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 14. Ferricixius davidi Hoch & Ferreira, 2012, Female: Antenna in lateral view, with scape, pedicel, flagellum and arista (A); flagellum and arista (B); sensory plates (C); vestigial ocellus (D).
FIGURE 16 in Adaptive shifts in Neotropical planthoppers: new troglobitic species and the first surface species of Ferricixius Hoch & Ferreira, 2012 (Hemiptera: Fulgoromorpha Cixiidae) from Brazilian caves
FIGURE 16. Habitat Ferricixius davidi Hoch & Ferreira, 2012: MP-008 cave, Itabirito municipality- MG (A); Collection record by the active search method in MP-008 (B); habitus lateral Ferricixius davidi Hoch & Ferreira, 2012 (C).
Fig. 1 in Volatile constituents of Eupatorieae (Asteraceae). Compositional multivariate analysis of volatile oils from Southern Brazilian species in the subtribe Disynaphiinae
Fig. 1. Samplings for the study series showing subtribes of Eupatorieae with relative sizes (in number of species) both inside and outside the Rio Grande do Sul State territory. Fleishmanninae, Hebeclininae, Hofmeisterinae, Liatrinae, Neomirandeinae, Oaxacaninae, and Trichocoroniinae have no representatives in the area. For other subtribes, the number of species in the area and its proportion to the total number in the subtribe is represented in light green. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 5 in Volatile constituents of Eupatorieae (Asteraceae). Compositional multivariate analysis of volatile oils from Southern Brazilian species in the subtribe Disynaphiinae
Fig. 5. Compositional PCA of the chemical composition of VO of species from the subtribe Disynaphiinae (according to Rivera et al., 2016) sampled in Rio Grande do Sul, Southern Brazil. S. itatiayensis was transferred to an uncertain place, Grazielia was transferred to Neocabreria and Campovassouria was merged into Disynaphia. Samples were colored according to the newly proposed genera. Ten variables contributing the most to variability are depicted. Upper Left: PC1 and PC2; Upper Right: PC2 and PC3. The exclusion of S. itatiayensis from Symphyopappus is well-supported by the chemical data. Samples from R. tremula (green spheres in top-left (bottom panel), have a very similar chemistry to S. itatiayensis (yellow cube). Two samples of R. crenulata from the same area previously published by our group were included in the analysis (de Souza et al., 2007). (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 4 in Volatile constituents of Eupatorieae (Asteraceae). Compositional multivariate analysis of volatile oils from Southern Brazilian species in the subtribe Disynaphiinae
Fig. 4. Compositional robust PCA of the chemical composition of VO of species from the subtribe Disynaphiinae (according to Rivera et al., 2016) sampled in Rio Grande do Sul, Southern Brazil. S. itatiayensis was transferred to an uncertain place while Grazielia was transferred to Neocabreria. Samples are identified by species and colored according to the newly proposed genera. PC1 and PC2. Two samples of R. crenulata from the same area previously published by our group were included in the analysis (de Souza et al., 2007).
Fig. 3 in Volatile constituents of Eupatorieae (Asteraceae). Compositional multivariate analysis of volatile oils from Southern Brazilian species in the subtribe Disynaphiinae
Fig. 3. Compositional PCA of the chemical composition of VO of species from the subtribe Disynaphiinae (King and Robinson, 1987) sampled in Rio Grande do Sul, Southern Brazil. Samples are colored according to genera. Ten variables contributing the most to variability are depicted. Top: PC2 and PC3; Bottom: PC2, PC3, and PC4 with Mahalanobis distances (Aconthostyles buniifolius was excluded for clarity). Two samples of R. crenulata from the same area previously published by our group were included in the analysis (de Souza et al., 2007).
Fig. 2 in Volatile constituents of Eupatorieae (Asteraceae). Compositional multivariate analysis of volatile oils from Southern Brazilian species in the subtribe Disynaphiinae
Fig. 2. The number of genera and species recognized in the subtribe Disynaphiinae is given in white, while the number of genera and species reported in the area as well as the number of sampled species is given in black. The number of species in the genus, species in the sampled area, and sampled species are given in gray alongside each genus.
Fig. 6 in Volatile constituents of Eupatorieae (Asteraceae). Compositional multivariate analysis of volatile oils from Southern Brazilian species in the subtribe Disynaphiinae
Fig. 6. Compositional robust PCA of the chemical composition of VO of species from the subtribe Disynaphiinae (according to Rivera et al., 2016) sampled in Rio Grande do Sul, Southern Brazil. Samples are identified at the species level and colored according to the newly proposed genera. Neocabreria serrulata (Critoniinae) and Urolepis hecatantha (Gyptidinae) are included after transference from their respective subtribes. Top panel: Grazielia was merged into Neocabreria. Bottom panel: Neocabreria and Grazielia were merged into Symphyopappus (excluding S. itatiayensis). Two samples of R. crenulata from the same area previously published by our group were included in the analysis (de Souza et al., 2007).
FIGURE 17 in On a new genus and four new species of the subfamily Cyprettinae (Crustacea, Ostracoda) from Brazilian floodplains
FIGURE 17. Appendages of Triangocypretta nates gen. et spec. nov. A, T1 protopodite (MZUSP 44404); B, T1 endopodite (MZUSP 44404); C, T2 (MZUSP 44404); D, T3 (MZUSP 44404); E, T3 pincer (MZUSP 44404); F, CR (MZUSP 44404); G, CR attachment (MZUSP 44404). Scale bars: 50µm.
FIGURE 18 in On a new genus and four new species of the subfamily Cyprettinae (Crustacea, Ostracoda) from Brazilian floodplains
FIGURE 18. Anterior margins of LV (A, C, E, G) and RV (B, D, F, H) in inner views showing the marginal septa. A–B, Triangocypretta hirsuta gen. et spec. nov.; C–D, Triangocypretta labiata gen. et spec. nov.; E–F, Triangocypretta angustus gen. et spec. nov.; G–H, Triangocypretta nates gen. et spec. nov.
FIGURE 16 in On a new genus and four new species of the subfamily Cyprettinae (Crustacea, Ostracoda) from Brazilian floodplains
FIGURE 16. Appendages of Triangocypretta nates gen. et spec. nov. A, MdCoxa (MZUSP 44404); B, Mx1 (MZUSP 44404); C, MdPalp (MZUSP 44404); D, MdPalp terminal segment (MZUSP 44404). Scale bars: 50µm.
FIGURE 15 in On a new genus and four new species of the subfamily Cyprettinae (Crustacea, Ostracoda) from Brazilian floodplains
FIGURE 15. Appendages of Triangocypretta nates gen. et spec. nov. A, A1 (MZUSP 44405); B, A2 (MZUSP 44405); C, A2 terminal segment (MZUSP 44405). Scale bars: 50µm.
FIGURE 13 in On a new genus and four new species of the subfamily Cyprettinae (Crustacea, Ostracoda) from Brazilian floodplains
FIGURE 13. Appendages of Triangocypretta angustus gen. et spec. nov. A, T1 protopodite (MZUSP 44395); B, T1 endopodite (MZUSP 44396); C, T2 (MZUSP 44395); D, T3 (MZUSP 44395); E, CR (MZUSP 44396); F, CR attachment (MZUSP 44397). Scale bars: 50µm.
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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
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.