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Fig. 3. A–B, E–G in An update on the spider genus Caponina Simon (Araneae: Caponiidae) with descriptions of three new six-eyed species from Colombia
Fig. 3. A–B, E–G. Caponina bochalema sp. nov., ♂, holotype (IAvH-I 3757). A. Habitus, dorsal view. B. Habitus, ventral view. E. Left palp, retrolateral view. F. Left palp, ventral view. G. Left palp, prolateral view. – C–D, H–J. Caponina huila sp. nov., ♂, holotype (IAvH-I 3761). C. Habitus, dorsal view. D. Habitus, ventral view. H. Left palp, retrolateral view. I. Left palp, ventral view. J. Left palp, prolateral view. Scale bars: A–D = 1.5 mm; E–J = 1 mm.
Fig. 1 in An update on the spider genus Caponina Simon (Araneae: Caponiidae) with descriptions of three new six-eyed species from Colombia
Fig. 1. Caponina alejandroi sp. nov. A–B, E–G. ♂, holotype (IAvH-I 3747). C–D, H–I. ♀, paratype (IAvH-I 3749). A. Habitus, dorsal view. B. Habitus, ventral view. C. Habitus, dorsal view. D. Habitus, ventral view. E. Left palp, retrolateral view. F. Left palp, ventral view. G. Left palp, prolateral view. H. External genitalia, ventral view. I. Internal genitalia, dorsal view. Scale bars: A–D = 1.5 mm; E–G = 1 mm; H–I = 0.5 mm. Abbreviations: see Material and methods.
Phylogenomics and biogeography of Torreya (Taxaceae) – Integrating data from three organelle genomes, morphology, and fossils and a practical method for reducing missing data from RAD-seq
<p><span>Restriction site-associated DNA sequencing (RAD-seq) enables obtaining thousands of genetic markers for phylogenomic studies. However, RAD-seq data are subject to allele dropout (ADO) due to polymorphisms at enzyme cutting sites. We developed a new pipeline, RADADOR, to mitigate the ADO in outgroups by recovering missing loci from previously published transcriptomes in our study of a gymnosperm genus </span><em>Torreya</em><span>. Using the supplemented RAD-seq data in combination with plastome and mitochondrial gene sequences, morphology, and fossil records, we reconstructed the phylogenetic and biogeographic histories of the genus and test hypotheses on diversity anomaly in eastern Asian-North American floristic disjunction. Our results showed that our pipeline recovered many loci missing from the outgroup, and the improved data yielded a more robust phylogeny for </span><em>Torreya</em><span>. Using the fossilized-birth-death model and divergence-extinction-cladogenesis method we resolved detailed biogeographic history of </span><em>Torreya</em><span> that suggested a Jurassic origin in the Laurasia and differential speciation and extinction among continents accounting for the modern diversity anomaly biased toward Eastern Asia (EA). The history also supported a vicariance origin of the modern </span><em>Torreya</em><span> from a widespread ancestor in EA and NA in the mid-Eocene, cross-Beringia exchange in the early Paleogene before the vicariant isolation, in contrast to the "Out of NA" pattern common to gymnosperms and in contrast to the "Out of EA" hypothesis previously proposed for the genus. Furthermore, we observed phylogenetic discordance between the nuclear and plastid phylogenies on </span><em>T. jackii</em><span>, suggesting differential lineage sorting of plastid genomes among </span><em>Torreya</em><span> species or plastid genome capture in </span><em>T. jackii</em><span>.</span></p>
Seasonal analysis comparison of three air-cooling systems in terms of thermal comfort, air quality and energy consumption for school buildings in Mediterranean climates
<p>Efficient air-cooling systems for hot climatic conditions, such as Southern Europe, are required in the context of nearly Zero Energy Buildings, nZEB. Innovative air-cooling systems such as regenerative indirect evaporative coolers, RIEC and desiccant regenerative indirect evaporative coolers, DRIEC, can be considered an interesting alternative to direct expansion air-cooling systems, DX. The main aim of the present work was to evaluate the seasonal performance of three air-cooling systems in terms of air quality, thermal comfort and energy consumption in a standard classroom. Several annual energy simulations were carried out to evaluate these indexes for four different climate zones in the Mediterranean area. The simulations were carried out with empirically validated models. The results showed that DRIEC and DX improved by 29.8% and 14.6% over RIEC regarding thermal comfort, for the warmest climatic conditions, Lampedusa and Seville. However, DX showed an energy consumption three and four times higher than DRIEC for these climatic conditions, respectively. RIEC provided the highest percentage of hours with favorable indoor air quality for all climate zones, between 46.3% and 67.5%. Therefore, the air-cooling systems DRIEC and RIEC have a significant potential to reduce energy consumption, achieving the user’s thermal comfort and improving indoor air quality.</p>
FIGURE 33 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 33. Thorellius wixarika, sp. nov., holotype ♂ (CNAN T01251), dextral pedipalp chela. A. Dorsal aspect. B. Retrolateral aspect. C. Ventral aspect. D. Prolateral aspect. Scale bars = 1 mm.
FIGURE 32 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 32. Thorellius wixarika, sp. nov., holotype ♂ (CNAN T01251), dextral pedipalp femur (A) and patella (B–E). A, B. Dorsal aspect. C. Retrolateral aspect. D. Ventral aspect. E. Prolateral aspect. Scale bars = 1 mm.
FIGURE 29 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 29. Thorellius tekuani, sp. nov., holotype ♂ (CNAN T01250), dextral pedipalp femur (A) and patella (B–E). A, B. Dorsal aspect. C. Retrolateral aspect. D. Ventral aspect. E. Prolateral aspect. Scale bars = 1 mm.
FIGURE 28 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 28. Thorellius tekuani, sp. nov., habitus, dorsal (A, C) and ventral (B, D) aspects. A, B. Holotype ♂ (CNAN T01250). C, D. Paratype ♀ (CNAN T01250). Scale bars = 5 mm.
FIGURE 27 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 27. Thorellius intrepidus (Thorell, 1876), ♂ (AMNH), dextral pedipalp chela. A. Dorsal aspect. B. Retrolateral aspect. C. Ventral aspect. D. Prolateral aspect. Scale bars = 1 mm.
FIGURE 26 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 26. Thorellius intrepidus (Thorell, 1876), ♂ (AMNH), dextral pedipalp femur (A) and patella (B–E). A, B. Dorsal aspect. C. Retrolateral aspect. D. Ventral aspect. E. Prolateral aspect. Scale bars = 1 mm.
FIGURE 23 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 23. Thorellius cristimanus (Pocock, 1898), ♂ (AMNH), dextral pedipalp femur (A) and patella (B–E). A, B. Dorsal aspect. C. Retrolateral aspect. D. Ventral aspect. E. Prolateral aspect. Scale bars = 1 mm.
FIGURE 21 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 21. Kuarapu purhepecha Francke and Ponce-Saavedra, 2010, paratype ♂ (AMNH), dextral pedipalp chela. A. Dorsal aspect. B. Retrolateral aspect. C. Ventral aspect. D. Prolateral aspect. Scale bars = 1 mm.
FIGURE 24 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 24. Thorellius cristimanus (Pocock, 1898), ♂ (AMNH), dextral pedipalp chela. A. Dorsal aspect. B. Retrolateral aspect. C. Ventral aspect. D. Prolateral aspect. Scale bars = 1 mm.
FIGURE 19 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 19. Kuarapu purhepecha Francke and Ponce-Saavedra, 2010, habitus, dorsal (A, C) and ventral (B, D) aspects. A, B. Paratype ♂ (AMNH). C, D. Paratype ♀ (AMNH). Scale bars = 1 mm.
FIGURE 16 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 16. Balsateres cisnerosi (Ponce-Saavedra and Sissom, 2004), habitus, dorsal (A, C) and ventral (B, D) aspects. A, B. ♂ (CNAN SC2441). C, D. ♀ (CNAN SC2441). Scale bars = 5 mm.
FIGURE 18 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 18. Balsateres cisnerosi (Ponce-Saavedra and Sissom, 2004), ♂ (CNAN SC2441), dextral pedipalp chela. A. Dorsal aspect. B. Retrolateral aspect. C. Ventral aspect. D. Prolateral aspect. Scale bars = 1 mm.
FIGURE 13 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 13. Thorellius Soleglad and Fet, 2008, dextral hemispermatophores, ventral aspect (A, C, F, I), dorsal aspect (B, E, H, K), and ental aspect (D, G, J). A, B. Thorellius intrepidus (Thorell, 1876), ♂ (AMNH). C–E. Thorellius wixarika, sp. nov., holotype ♂ (CNAN T01251). F–H. Thorellius tekuani, sp. nov., holotype ♂ (CNAN T01250). I–K. Thorellius yuyuawi, sp. nov., holotype ♂ (CNAN T01252), Scale bars = 1 mm.
FIGURE 35 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 35. Thorellius yuyuawi, sp. nov., holotype ♂ (CNAN T01252), dextral pedipalp femur (A) and patella (B–E). A, B. Dorsal aspect. C. Retrolateral aspect. D. Ventral aspect. E. Prolateral aspect. Scale bars = 1 mm.
FIGURE 12 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 12. Balsateres González-Santillán and Prendini, 2013, Kuarapu Francke and Ponce-Saavedra, 2010, and Thorellius Soleglad and Fet, 2008, dextral hemispermatophores, ventral aspect (A, D, G), ental aspect (B, E, H), and dorsal aspect (C, F, I). A–C. Balsateres cisnerosi (Ponce-Saavedra and Sissom, 2004), ♂ (CNAN SC2441). D–F. Kuarapu purhepecha Francke and Ponce-Saavedra, 2010, paratype ♂ (AMNH). G–I. Thorellius cristimanus (Pocock, 1898), ♂ (AMNH), Scale bars = 1 mm (A–C, G–I), 0.5 mm (D–F).
FIGURE 11 in Systematic Revision Of The North American Syntropine Vaejovid Scorpion Genera Balsateres, Kuarapu, And Thorellius, With Descriptions Of Three New Species
FIGURE 11. Balsateres González-Santillán and Prendini, 2013, Kuarapu Francke and Ponce-Saavedra, 2010, and Thorellius Soleglad and Fet, 2008, dextral leg III, basitarsus and telotarsus, ventral aspect. A. Balsateres cisnerosi (Ponce-Saavedra and Sissom, 2004), ♂ (CNAN SC2441). B. Kuarapu purhepecha Francke and Ponce-Saavedra, 2010, paratype ♂ (AMNH). C. Thorellius cristimanus (Pocock, 1898), ♂ (AMNH). D. Thorellius intrepidus (Thorell, 1876), ♂ (AMNH). E. Thorellius tekuani, sp. nov., holotype ♂ (CNAN T01250). F. Thorellius wixarika, sp. nov., holotype ♂ (CNAN T01251). G. Thorellius yuyuawi, sp. nov., holotype ♂ (CNAN T01252). Scale bars = 1 mm.
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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
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.