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119 results for “arguments”
Fig. 3 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 3. Pitfall traps used at Subotica Sandland in 2014. A) in situ at habitat M1, Locality 1. B) Construction of the traps 1) wire mesh, 2) wooden sticks, 3) sampling cup, 4) plastic
Fig. 2 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 2. Position of the localities at Subotica Sandland (Serbia) in 2014; Locality 1: Krčevine, Locality 2: Livada kod Djavolovog Kanala, Locality 3: Livada kod Stare škole. Habitats: M1 (Chrysopogonetum pannonicum), W1 (Populus alba), W2 (P. alba + P. nigra), W3 (Quercus robur + P. alba), W4 (Robinia pseudoacacia), M2 (Festucetum vaginate danubiale), W5 (P. alba + P. canascens), F (Carex spp.), M3 (Molinietum caeruleae), W6 (Celtis ocidentalis)
Fig. 5. Gnaphosa mongolica, A–C in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 5. Gnaphosa mongolica, A–C = male left palp, A = retrolateral, B = ventral, C = prolateral, D = epigyne, ventral, E = vulva, dorsal. Scale bars: 1 mm for A–C, 0.5 mm for D–E
Fig. 4 in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 4. Argenna patula, male palp: A = conductor of the right, expanded palp, B = left palp, retrolateral. Scale bars: 0.1 mm for A, 0.5 mm for B
Fig. 13. Theridion uhligi, A–C male left palp, A in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 13. Theridion uhligi, A–C male left palp, A = retrolateral, B = ventral, C = prolateral, D–E = female epigyne in clove oil, D = ventral, E = dorsal, F = male habitus. Scale bars: 0.5
Fig. 12. Tallusia vindobonensis, A–B in Spiders (Araneae) Of Subotica Sandland (Serbia): Additional Arguments In Environmental Protection
Fig. 12. Tallusia vindobonensis, A–B = male left palp, A = retrolateral, B = detail of the lamella characteristica, C = female epigyne, D = vulva dorsal. Scale bars: 0.5 mm for A, 0.1 mm for B, 0.2 mm for C–D
Challenge or Empower: Revisiting Argumentation Quality in a News Editorial Corpus
<p>The Webis-Editorial-Quality-18 corpus is a novel corpus with 1000 news editorials. The aim of this Corpus is to study a new notion for news editorials quality. It contains the quality assessments of 1000 news editorials, each annotated by three liberals and three conservatives. The annotators also reported free-text reasons for the effects they observed.</p>
Webis-Voice-based-and-Conversational-Argument-Search-20
<p>Interface, questionnaires, and collected data for the paper "<a href="https://webis.de/publications.html#?q=stein2020b">Investigating Expectations for Voice-based and Conversational Argument Search on the Web</a>".</p> <p>Data is mostly in tab-separated values format (like csv, just with tabs). For the transcripts of the user study, only the sequence of action labels (in xml) is released for privacy reasons. The labels are described in user-study-tags-participant.txt and user-study-tags-system.txt.</p>
Figure 3 in The effects of various lake typologies on the distribution of Chironomus spp. (Diptera), and arguments on optional factors of Water Framework Directive in Türkiye
Figure 3. CCA ordination of the sampled lakes (L1 to L20, except L2), significant environmental variables and species. Environmental variables ranging over (VIF> 10) were omitted from the ordination. A total of 56.62% variance was expressed in the first two axes. Groups (Grp I–IV) spotted by using K-means algorithm were mapped on the biplot. ORP: oxidation and reduction potential.
Figure 4 in The effects of various lake typologies on the distribution of Chironomus spp. (Diptera), and arguments on optional factors of Water Framework Directive in Türkiye
Figure 4. CCA ordination of the sampled lakes (L1 to L20, except L2) based on national altitude class boundaries (R1: <800 m, R2: 800–1600 m, R3:>1600 m). A total of 62.06% variance was expressed in the first two axes. The distinction of the three groups was found to be statistically significant (p <0.05). For the significance levels of the typological factors, see Table 1.
Figure 2 in The effects of various lake typologies on the distribution of Chironomus spp. (Diptera), and arguments on optional factors of Water Framework Directive in Türkiye
Figure 2. Pearson's correlation heatmap of the 20 environmental variables and 2 taxa metrics (H` and J). Color intensity and the size of the circle are proportional to the correlation coefficients: red spectrum indicates a negative correlation, and blue spectrum indicates a positive correlation.
Fig. 3 in Thomasaria vs. Pyramidalia conundrum in Devonian brachiopod systematics solved: An argument to formalize epitypification under the ICZN
Fig. 3. Transverse serial sections of spiriferide brachiopod Thomasaria simplex (Phillips, 1841) through shell NHMUK PI B 2807 (topotype) from the Givetian of Wolborough, England, UK. Sections through ventral (A) and dorsal (B) valves. The schematic drawings on the left of each section describe the direction of sectioning (see text). Distances measured in millimetres from the tip of the ventral and dorsal umbos, respectively. Gray areas denote local silicification.
Fig. 2 in Thomasaria vs. Pyramidalia conundrum in Devonian brachiopod systematics solved: An argument to formalize epitypification under the ICZN
Fig. 2. Spiriferide brachiopod Thomasaria simplex (Phillips, 1841) from the Middle Devonian of south-western England, UK (type region). A–C. Articulated shells (TCD 16991c, A; TCD 16991b, B; TCD 16991a, C) from Port Stephens, in dorsal (A1–C1), ventral (A2–C2), lateral (A3–C3), anterior (A4–C4), and posterior (A5–C5) views. D. Lectotype, articulated shell GSM 6915 from Wolborough, in dorsal (D1), ventral (D2), lateral (D3), anterior (D4), and posterior (D5) views. Reproduced with the permission of the British Geological Survey ©UKRI. All rights reserved. E. Topotype, articulated shell NHMUK PI B 2807 (specimen serially sectioned, see Fig. 3) from Wolborough, in dorsal (E1), ventral (E2), lateral (E3), anterior (E4), and posterior (E5) views, enlargement (SEM micrograph) of the secondary shell layer showing impunctate condition (E6). F. Articulated shell TCD 16991d from Port Stephens, fragmentary posterior view showing the delthyrium partially closed by a convex pseudodeltidium.
Fig. 1. A in Thomasaria vs. Pyramidalia conundrum in Devonian brachiopod systematics solved: An argument to formalize epitypification under the ICZN
Fig. 1. A. Geographical location of the study area in north-western Europe. B. Geological map of eastern Cornwall and southern Devon (Devonian after House and Selwood 1966, otherwise simplified and modified after British Geological Survey 1957). Black asterisks show fossil localities mentioned in the text. The white asterisk shows the presumed position of "Port Stephens" (see text for further explanation).
Zero marking and the order of core arguments
CLDF version of Sinnemäki 2010's dataset on zero marking and word order
Fig. 12 in Aragonitic rostra of the Turonian belemnitid Goniocamax: Arguments from diagenesis
Fig. 12. Water salinities (in ppt) calculated from Recent and fossil aragonite samples. Abbreviations: op, outer prismatic layer; ip, inner prismatic layer; nac, nacreous layer; cl, crossed lamellar layer.
Fig. 11 in Aragonitic rostra of the Turonian belemnitid Goniocamax: Arguments from diagenesis
Fig. 11. Principal component plots based on the chemical compositions of the Recent and fossil shells, sediments and sedimentary calcite. Sedimentary calcite (labelled "calcite" in the diagram) is clearly separated from the Recent and fossil shell calcites.
Fig. 8 in Aragonitic rostra of the Turonian belemnitid Goniocamax: Arguments from diagenesis
Fig. 8. Element distribution maps for Sr (A), Mg (B), Fe (C), and S (D) across the aragonite/calcite boundaries in Goniocamax sp. from the Turonian of N Siberia.
Fig. 7 in Aragonitic rostra of the Turonian belemnitid Goniocamax: Arguments from diagenesis
Fig. 7. Minor element contents (in ppm) in fossil shells. A. Average compositions of aragonite and calcite in Goniocamax. B. Average compositions of inner prismatic and nacreous layers in ammonites. C. The compositions of a crossed lamellar aragonite layer in a gastropod; a nacreous aragonite layer in an inoceramid shell, and a foliated calcite layer in Pecten.
Fig. 6 in Aragonitic rostra of the Turonian belemnitid Goniocamax: Arguments from diagenesis
Fig. 6. Box and whisker plots for selected minor elements in Recent and fossil shells, and sedimantary calcite. Details of analysed samples are given in the section "Materials and methods". Plots are for magnesium Mg (A), strontium Sr (B), sodium Na (C), iron Fe (D), sulphur S (E), and phosphorus P (F). Recent samples: left part of the graph; fossil samples: right part of the graph.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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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.