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FIGURES 36–40 in The Lace Web Spider Genus Vytfutia Deeleman-Reinhold (Araneae, Phyxelididae) in the Indo-Pacific Region
FIGURES 36–40. Vytfutia labalaba new species, genitalia-drawings, Holotype male and paratype female collected on the wall of a building at 1550 m elevation on Mt. Kinabalu, Sabah-Borneo, Malaysia, CASENT9023842. 36–38. Male left palp, tibia and tarsus. 36. Ventral. 37. Retrolateral. 38. Dorsal. 39, 40. Female genitalia. 39. Epigynum, ventral. 40. Vulva, dorsal.
FIGURES 12–14 in The Lace Web Spider Genus Vytfutia Deeleman-Reinhold (Araneae, Phyxelididae) in the Indo-Pacific Region
FIGURES 12–14. Spinnerets of female Phyxelididae. 12, 13. Vytfutia labalaba new species, Mt. Kinabalu, Borneo, CASENT9023842. 14. Ambohima ranohira Griswold, Wood and Carmichael, 2012, Ranohira, Madagascar, CASENT9019986. 12, 14. Ventral. 13. Lateral. Arrow and inset in 14 to stout, curved apicodorsal seta, which occurs in Phyxelidini and Vidoleini but not in Vytfutiini. Scale bar = 0.2 mm.
FIGURES 24, 25 in The Lace Web Spider Genus Vytfutia Deeleman-Reinhold (Araneae, Phyxelididae) in the Indo-Pacific Region
FIGURES 24, 25. Vytfutia halandrefana new species, female genitalia drawings, Tsingy de Bemaraha, Madagascar, CASENT9008848. 24. Epigynum, ventral. 25. Vulva, left half, dorsal.
FIGURES 20–23 in The Lace Web Spider Genus Vytfutia Deeleman-Reinhold (Araneae, Phyxelididae) in the Indo-Pacific Region
FIGURES 20–23. Vytfutia halandrefana new species, female, Berenty, Madagascar, CASENT9012513, habitus photos. 20. Dorsal. 21. Ventral. 22. Left metatarsus-tarsus IV and apex of abdomen with spinnerets, ventral. 23. Epigynal region, dorsal. Scale bars 20–22 = 0.5 mm, 23 = 0.25 mm.
FIGURES 1–11 in The Lace Web Spider Genus Vytfutia Deeleman-Reinhold (Araneae, Phyxelididae) in the Indo-Pacific Region
FIGURES 1–11. Vytfutia labalaba new species, Mt. Kinabalu, Borneo, CASENT9023842, female, morphology photos. 1. Cephalothorax, anterior, showing chelicerae and palps. 2. PME, dorsal, showing canoe-shaped tapeta. 3. ALE and PLE, lateral, showing canoe-shaped tapeta. 4. Cephalothorax, anterior, showing AER, clypeus and chilum. 5. Trochanter I. 6. Trochanter IV. 7. Posterior margin of carapace and pedicel, dorsal. 8. Left metatarsus IV, retrolateral, showing calamistrum. 9. Left palp, prolateral, arrows to probasal thorns. 10. Left leg I, prolateral. 11. Left leg IV, retrolateral. Scale bars, 1, 8, 9, 10, 11 = 0.5 mm, 2, 3, 4 = 0.25 mm, 5, 6, 7 = 0.1 mm.
FIGURE 1 in First study of food webs in a large glacial river: the trophic role of invasive trout
FIGURE 1 | Sampling areas in the Santa Cruz River, Argentina. Upstream area corresponds to the locally known "Labyrinth", and Midstream area correspond to "Estancia San Ramon". Map created by the authors, upper picture taken from Google Earth (R).
Figure 1. Species collected from the study area are A in Biodiversity of orb-web spiders (family: araneidae) of buner valley, Pakistan
Figure 1. Species collected from the study area are A: Neoscona theisi;B:Neoscona adianta; C:Neoscona.crucifera; D:Neoscona arabesca; E: Neoscona oaxacensis; F: Argiope pulchella; G:Argiope lobata; H: Argiope trifasciata; I: Argiope aemula; J:Cyclosa insulana; K: Cyclosa conica; L: Cyclosa bifida; M: Araneus mitificus; N: Araneus ellipticus; O: C.citricola; P: C.cicatorsa; Q: E.excelsa; R: L.chloris; S: Poltys spider.
Figure 1 in New genus of the tribe Ceutorhynchini (Coleoptera: Curculionidae) from the late Oligocene of Enspel, southwestern Germany, with a remark on the role of weevils in the ancient food web
Figure 1. Igneonasus rudolphi gen. et sp. nov., holotype PE 2013/5017-LS, habitus, lateral view. Scale bar = 1.0 mm.
Figure 3 in New genus of the tribe Ceutorhynchini (Coleoptera: Curculionidae) from the late Oligocene of Enspel, southwestern Germany, with a remark on the role of weevils in the ancient food web
Figure 3. (a) Cyprinid fish Palaeorutilus enspelensis (Böhme, 1996) with digestive tract filled with weevil elytra, specimen PW 2011/5743- LS a; (b) digestive tract of counterpart specimen enlarged, PW 2011/5743-LS b; (c) coprolite made of small weevil elytra, supposedly produced by Palaeorutilus, specimen PE 2014/5144-LS.
Figure 2 in New genus of the tribe Ceutorhynchini (Coleoptera: Curculionidae) from the late Oligocene of Enspel, southwestern Germany, with a remark on the role of weevils in the ancient food web
Figure 2. Igneonasus rudolphi gen. et sp. nov., holotype PE 2013/5017-LS, contour of body, lateral view. Scale bar = 1.0 mm.
Fig. 2 in Neriene bovista sp. nov., a new sheet-web spider (Araneae: Linyphiidae) from Korea
Fig. 2. Neriene bovista sp. nov., Holotype male: A. Habitus in dorsal view; B. Habitus in lateral view; C. Eye area from above; D. Chelicera in retrolateral view; E. Endites and labium in ventral view; F. Sternum; G. Palpus in prolateral view; H. Ditto, ventral view; I. Ditto in retrolateral view; J. Ditto in dorsal view; K. Terminal apophysis in ventral view (ALP, anterior projection of L; DLP, dorsal projection of L; DSA, distal suprategular apophysis; E, embolus; EM, embolic membrane; L, lamella; LLP, lateral projection of L; P, paracymbium; PLP, posterior projection of L; R, radix; ST, subtegulum; T, tegulum; TA, terminal apophysis). Scale bars in mm.
Fig. 1 in Neriene bovista sp. nov., a new sheet-web spider (Araneae: Linyphiidae) from Korea
Fig. 1. Distribution of Neriene bovista sp. nov. in South Korea (A), collection site (B), and a sheet-web of the new species (C).
Figure 2-Validation of a Web Application by Using a Limited Number of Web Pages
<p>Simplifying the method of verification and testing of the web applications and maximising<br> the quality of the verification is the principal objective for the time being. We consider that the<br> method we describe in the previous sections is an important step in this matter and, by combining<br> the present techniques of verification and testing with the mode of reducing the objects that need to<br> be tested we can obtain very good results in obtaining web application of very good quality that<br> function correctly. We believe that this idea of selecting certain components from a web application<br> can be developed by using other methods of comparison among the components (that can use notion<br> as those introduces in [3], [4], [7]).</p>
Figure 5. Final Ranking-Data Conflict Resolution among Same Entities in Web of Data
<p>Finally, the last score with regard to the equation 4 has been calculated and is shown in<br> figure 5. As it shows Geonames gains the highest score. Considering the proposed idea, Geonames'<br> data is the most accurate. So when we are faced with data conflicts, Geonames' data must be chosen.<br> The WordFactbook is also illustrated in the above table. We can see if WordFactbook is not<br> removed from the synonyms list it would have more accurate data compared with DBpedia data.</p>
Figure 3. Result of first fraction-Data Conflict Resolution among Same Entities in Web of Data
<p>Finally we count the entities that contain any words in the synonyms list. The result of first<br> the fraction in equation 4 is shown in figure 3.</p>
Figure 2. Ranking datasets by Page Rank-Data Conflict Resolution among Same Entities in Web of Data
<p>As depicted in Figure 2 DBpedia is the top ranked data set while GeoLinked Data and<br> Eurostat are the low ranked data sets. In this stage the data sets whose rank scores are less than half<br> of the rank scores belonging to the top ranked data set are removed from the assessment.</p>
Figure 1. General Workflow of Algorithm-.Data Conflict Resolution among Same Entities in Web of Data
<p>The Page Rank algorithm which is widely used in most search engines such as Google could<br> be easily used to rank linked data. By starting from a point and random surfing, this algorithm<br> evaluates the probability of finding any given page. The algorithm assumes a link between a page i<br> to a page j demonstrates the importance of page j. In addition, the importance of page j is associated<br> to the importance of page i itself and inversely proportional to the number of pages i point to. To<br> adapt this algorithm to web of data, any page considered as a dataset and links between pages<br> considered as links between datasets.</p>
Figure 4. Result of Second Fraction-Data Conflict Resolution among Same Entities in Web of Data
<p>In the last stage the size of the data set is examined. The number of instances of specialized<br> entities and total entities are calculated. For example "London" is an instance of a specialized entity.<br> In table 2 one of the properties of "London" is displayed in form of a triple. As is shown, the object<br> of the triple is dbpedia-owl:Place that contains "place" as a member of the specialized entity. And 'A<br> Trip to the Moon' is an instance of non-specialized entity because neither the subject nor the object<br> is in the specialized entities list. After calculating the number of specialized instances and total<br> instances the result of the second fraction of equation 4 is shown in figure 4.</p>
Figure 9. Experimental Page Rank dependency on Markov Chain length with balanced distribution-Study of a Random Navigation on the Web Using Software Simulation
<p>This paper explored different implementation choices for analyzing the most important<br> parameters about a web. Many researchers explored the use of new search engines for studying the<br> evolution of the web (Ntoulas, Cho and Olston, 2004). Another important research is realized about<br> the Link Structure Graph (LSG). The LSG captures a complete hyperlink structure from the web<br> and models link associations reflected in the page layout (Rodrigues, Milic-Frayling and Fortuna,<br> 2007). For further works ideas like extrapolation methods for accelerating page rank calculation can<br> be developed (Kamvar et al., 2003).</p>
Figure 7. Experimental Page Rank dependency on Markov Chain length-Study of a Random Navigation on the Web Using Software Simulation
<p>The next diagram proves that the values for Experimental Page Rank depend on the length<br> of the Markov Chain, while Algorithmic Page Rank remains constant.</p>
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.