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27 results for “SAMBA”
Fig. 12. Hypergastromyzon sambas, MZB 17235, 32.4 in Hypergastromyzon revisited, with descriptions of a new genus and two new species (Teleostei: Gastromyzontidae)
Fig. 12. Hypergastromyzon sambas, MZB 17235, 32.4 mm SL, holotype, female (?); composite of dorsal, lateral, and ventral views.
Fig. 7 in A new Loriciferan, Scaberiloricus samba gen. et sp. nov., links the Higgins larva and the aberrant Shira larva
Fig. 7 Light micrographs showing overviews and details of intermediate instar Higgins larva of Scaberiloricus samba gen. et sp. nov., containing next larval instar, NHMD-1184552. A Overview, focused on dorsal cuticle. B Overview, focused internally in larva, on subsequent larval instar. C Head, dorsal view. D Head, focused internally. E Posterior part of lorica, focused on posterodorsal seta. F Posterior part of lorica, focused on posterolateral seta. G Posterior part of
Fig. 1 in A new Loriciferan, Scaberiloricus samba gen. et sp. nov., links the Higgins larva and the aberrant Shira larva
Fig. 1 Map showing the three stations on the continental shelf and slope off Rio de Janeiro marked with flags. Inset shows South America with the sampling region marked
Fig. 5 in A new Loriciferan, Scaberiloricus samba gen. et sp. nov., links the Higgins larva and the aberrant Shira larva
Fig. 5 Scanning electron micrographs showing head morphology details of holotypic, early instar Higgins larva of Scaberiloricus samba gen. et sp. nov., NHMD-1184551. A Mouth cone, lateral view. B Head, frontal view, dorsal is left. C Detail showing clavoscalids of introvert Row 1. D–I Rotating series showing introvert morphol-
SAMBA: Super Area-cladogram after resolving Multiple Biogeographical Ambiguities
<p><strong>Aim</strong>: Cladistic biogeography is all about congruence: when individual area cladograms coincide, they result in a general area cladogram that reveals shared history. However, the complexities of the natural world hamper the reconstruction of fully solved biogeographical patterns. Herein, we present SAMBA (Super Area-cladogram after resolving Multiple Biogeographical Ambiguities), a pattern-based method combining supertrees and area cladograms to depict the relationships among areas. We also present a prototypical implementation of SAMBA as a web-based framework named iSAMBA.</p> <p><strong>Location:</strong> Global</p> <p><strong>Taxon:</strong> Any taxon can be analyzed with SAMBA</p> <p><strong>Methods:</strong> SAMBA is based on phylogenetic supertrees, a technique that combines previously calculated phylogenetic trees to produce a general area cladogram representing conciliatory and non-ambiguous patterns of relationships. In our method, the input topologies are individual area cladograms. SAMBA is implemented through a web-based framework named iSAMBA. We analyzed a theoretical and a real scenario to compare SAMBA with Primary BPA, Component Analysis, TAS and Transparent Method.</p> <p><strong>Results:</strong> SAMBA produces area cladograms that converge with the actual history of fragmentations of both hypothetical and real scenarios used as examples of implementation of the method. Primary BPA, Component Analysis, TAS and the Transparent Method are much more affected by the "biogeographical noise" (e.g., multiple areas in a single terminal, paralogies and missing areas) than SAMBA.</p> <p><strong>Main conclusions:</strong> SAMBA results in more informative general area cladograms than other pattern-based biogeographical methods. SAMBA reveals shared patterns of biotic distribution without generating multiple unreliable area cladograms. The main advantage of SAMBA is the simplicity of using a single technique to extract biogeographical information from individual area cladograms and combine them to depict a non-ambiguous general pattern of relationships among areas.</p>
SAMBA: Super Area-cladogram after resolving Multiple Biogeographical Ambiguities
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Drumming in the Breaks of Olodum's Samba-Reggae: Ancestrality and Black Resistance in Salvador, Brazil
<p>I presented this video at the Southeast and Caribbean Ethnomusicology Chapter conference at the University of South Florida in Tampa, Florida, on March 2nd, 2024. </p>
FIGURE 4 in A new species of Samba s. str. (Hymenoptera: Melittidae) from the Turkana Basin, Kenya with observations on the function of the metatibial spur in females
FIGURE 4. Phylogeny for species of Samba and select related genera. Small numbers above the internodes indicate the character numbers from Michez etal. (2010) (see also "Phylogeny" section above), small numbers below internodes indicate the state that the character changes to along that internode. Large numbers above and below the internodes show support for the monophyletic groups subtended by that internode: GC values and traditional bootstrap frequencies respectively. Filled in circles indicate unique apomorphies, open circles indicate homoplasious apomorphies. See text for details. The character state vector for the new species is: 101110110111---------12*01111111111.
FIGURE 5 in A new species of Samba s. str. (Hymenoptera: Melittidae) from the Turkana Basin, Kenya with observations on the function of the metatibial spur in females
FIGURE 5. Phylogeny of Samba based upon DNA barcode sequences. Branch lengths are proportional to the number of base changes. The black bar represents 2% sequence divergence.
FIGURES 7A–B. Fig. 7A in A new species of Samba s. str. (Hymenoptera: Melittidae) from the Turkana Basin, Kenya with observations on the function of the metatibial spur in females
FIGURES 7A–B. Fig. 7A. Samba turkana foraging on Crotalaria sp. at Nachekichok, South Turkwel, Turkana County, Kenya. Note the bee gripping the standard petal with its mandibles (a), and the use of the middle legs to force apart the wing petals (b), while exposing the keel, forced down by the bees' grip, to comb the anthers for pollen (c) passing them through the gap between the hind–tibial spur and the inner surface of the hind–leg. Fig. 7B. Apex of hind leg of a female S. turkana to show pollen collected by the metatibial spur (arrow).
FIGURE 6 in A new species of Samba s. str. (Hymenoptera: Melittidae) from the Turkana Basin, Kenya with observations on the function of the metatibial spur in females
FIGURE 6. Typical arid habitat where Samba turkana was collected (this is following rains) with Vachelia tortilis trees and Indigofera spinosa in the foreground.
FIGURES 2A–E in A new species of Samba s. str. (Hymenoptera: Melittidae) from the Turkana Basin, Kenya with observations on the function of the metatibial spur in females
FIGURES 2A–E. Samba turkana: darkest paratype female. Fig. 2A. Clypeus, oblique view to show weakly developed median longitudinal ridge (label line). Fig. 2B. Lateral view of mesosoma to show darker colouration than in holotype (compare to Figs. 1A and 1E). Fig. 2C. Cardo, mentum and prementum to show, as labelled: a) enormous inner cardinal process, b) sclerotized sides to mentum (broken and somewhat displaced at basal 1/3, and c) elongate fragmentum. Fig. 2D. Lorum to show posterior concavity (label line). Fig. 2E. Prementum, slightly oblique dorsal view to show, as labelled: a) form of ligular arm, b) membranous lateral wall; c) concave apex of ligular arm.
FIGURES 1A–G in A new species of Samba s. str. (Hymenoptera: Melittidae) from the Turkana Basin, Kenya with observations on the function of the metatibial spur in females
FIGURES 1A–G. Samba turkana: Figs. 1A&B holotype, remainder from a paratype. Fig. 1A. Lateral habitus. Fig. 1B. Head, frontal view. Figs. 1C-G a paratype. Fig. 1C. Clypeus, oblique view to show lack of medial carina or ridge (arrow). Fig. 1D. Dorsum of mesosoma to show sparse punctation. Fig. 1E. Metapleuron to show relative position of metapleural pits (arrows). Fig. 1F. Mesobasitarsus to show length to width. Fig. 1G. Metatibia and metatarsus to show enormously developed metatibial spur.
Same Day Ambulatory Appendectomy (SAMBA)
ClinicalTrials.gov study NCT05691348. IPD Sharing: Not stated. Countries: 2. Publications: 1.
FIGURE 3 in A new species of Samba s. str. (Hymenoptera: Melittidae) from the Turkana Basin, Kenya with observations on the function of the metatibial spur in females
FIGURE 3. Samba turkana: oblique lateral view of mesosoma of the palest paratype.
Fig. 11. Hypergastromyzon sambas, ZRC 61381 in Hypergastromyzon revisited, with descriptions of a new genus and two new species (Teleostei: Gastromyzontidae)
Fig. 11. Hypergastromyzon sambas, ZRC 61381, ca. 30 mm SL, male (?); live colouration; composite of dorsal, lateral, and ventral views.
Radio Complutense: Amal El Hamiti entrevista a Estrella Samba-Campos sobre Nasr Hamid Abu Zayd y su obra
<p>Trabajo realizado por Amal El Hamiti, estudiante del Grado en Estudios Semíticos e Islámicos, para la asignatura "Pensamiento: Historia del Pensamiento Árabo-Islámico". Curso: 3º. Profesor: Ignacio Álvarez-Ossorio.</p> <p>Incluye una entrevista realizada en <a href="https://listen.samcloud.com/v2/72489?page=page-overview">Radio Complutense</a> con la Dra. Estrella Samba-Campos sobre su trabajo de D.E.A. (Diploma de Estudios Avanzados) acerca del pensador Nasr Hamid Abu Zayd y su obra.</p>
NARRATIVAS DE ENTERRO: O SAMBA DE CACETE E AS LADAINHAS
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NARRATIVAS DE ENTERRO: SAMBA DE CACETE
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Fig. 3 in A new Loriciferan, Scaberiloricus samba gen. et sp. nov., links the Higgins larva and the aberrant Shira larva
Fig. 3 Diagram of larval mouth cone and introvert in Scaberiloricus samba gen. et sp. nov., showing distribution of scalids
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International Brain Laboratory public data
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OpenNeuro
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