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Figure 16 from: Albano PG, Schnedl S-M, Janssen R, Eschner A (2019) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): Red Sea bivalves. Zoosystematics and Evolution 95(2): 557-598. https://doi.org/10.3897/zse.95.38229
Figure 16 Cuspidara brachyrhynchus Sturany, 1899, Station 121, west of Al Qunfudhah, Saudi Arabia, 18°51.9'N, 39°5.4'E, −690 m. A, B, E, F, K, L Original figures. C, D, G–J Lectotype NHMW 84323: left valve exterior (C), interior (G), and hinge detail (I); right valve exterior (D), interior (H), and hinge detail (J). M Original label. Scale bars: 1 mm.
Figure 11 from: Albano PG, Schnedl S-M, Janssen R, Eschner A (2019) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): Red Sea bivalves. Zoosystematics and Evolution 95(2): 557-598. https://doi.org/10.3897/zse.95.38229
Figure 11 Diplodonta raveyensis Sturany, 1899, locality 32, Gul Mohammad, Saudi Arabia. A, C, D, F, H Original figures. B, E, G, I Holotype NHMW 38097 left valve exterior (B) and interior (E); right valve exterior (G) and interior (I). Photo courtesy Henk Dekker. Scale bar: 3 mm.
Figure 13 from: Albano PG, Schnedl S-M, Janssen R, Eschner A (2019) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): Red Sea bivalves. Zoosystematics and Evolution 95(2): 557-598. https://doi.org/10.3897/zse.95.38229
Figure 13 Gastrochaena deshayesi Sturany, 1899, locality 37, near Jazan, Saudi Arabia. A, B, I–L Original figures. C–F, M, N Figured syntype NHMW 37892/1: left valve exterior (C), interior (F); right valve exterior (D), interior (E); case (M, N). H, O, P Syntype NHMW 37892/2: left valve exterior (O), right valve interior (P) and case (H). R–T Syntype NHMW 37892/3: case (R), left valve exterior (S), right valve interior (T). Q, U Original labels. Scale bars: 2 mm (C, N, O, S), 4 mm (R).
Figure 10 from: Albano PG, Schnedl S-M, Janssen R, Eschner A (2019) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): Red Sea bivalves. Zoosystematics and Evolution 95(2): 557-598. https://doi.org/10.3897/zse.95.38229
Figure 10 Solecurtus subcandidus Sturany, 1899, Station 94, Nuweiba, Gulf of Aqaba, Egypt, −314 m. A, C, G, I Original figures. B, D–F, H, J Holotype NHMW 84296: left valve exterior (B), interior (D), and hinge detail (J), right valve exterior (E), interior (F), and hinge detail (H). K Original label. Scale bars: 5 mm (B, E); 2 mm (H, J).
Figure 14 from: Albano PG, Schnedl S-M, Janssen R, Eschner A (2019) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): Red Sea bivalves. Zoosystematics and Evolution 95(2): 557-598. https://doi.org/10.3897/zse.95.38229
Figure 14 Gastrochaena pexiphora Sturany, 1899, locality 31, Jeddah, Saudi Arabia. A, C, E Original figures. B, D, G, H Lectotype NHMW 37983: left valve exterior (B), interior (D), right valve exterior (G), interior (H). F Original label. Scale bars: 1 mm.
Figure 12 from: Albano PG, Schnedl S-M, Janssen R, Eschner A (2019) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): Red Sea bivalves. Zoosystematics and Evolution 95(2): 557-598. https://doi.org/10.3897/zse.95.38229
Figure 12 Chione hypopta Sturany, 1899, locality 16, Jazirat Shakir, Egypt, northern Red Sea. A–C, I, J Original figures. D–H Syntypes NHMW 38049: figured syntype right valve exterior (D), interior (E) and hinge detail (F); other syntypes, right valves exterior (G–H). K Original label. Scale bars: 6 mm (D); 5 mm (G); 3 mm (F).
Figure 1 from: Albano PG, Schnedl S-M, Janssen R, Eschner A (2019) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): Red Sea bivalves. Zoosystematics and Evolution 95(2): 557-598. https://doi.org/10.3897/zse.95.38229
Figure 1 Limopsis elachista Sturany, 1899, Station 48, south of Raveya, Sudan, −638 m. A, B, H, J Original figures. C–F, G, I, K–P Figured syntype NHMW 84348: right valve interior (C, D), exterior (E, F), and hinge detail (G, I); left valve exterior (K, L), interior (M, N), and hinge detail (O, P). Q Original label. Scale bars: 1 mm (C, I, K, P); 0.2 mm (G, O).
Long-term data from field erosion plot studies in eastern Austria
<p>The data include measured data for three different soil tillage practices from three experimental sites in eastern Austria. The Tables 1-3 include for each site and each year the period of operation, the planted crop, the annual precipitation, the surface runoff in mm, the soil loss in t/ha and the surface losses of total nitrogen, total phosphorus and soil organic carbon in kg/ha. Crop yields were determined from 45 m² large plots with one or two replications. Yields in kg/ha are not available for all years, but relative yield in % are.</p> <p>The experiments were conducted at three sites in eastern Austria: in Mistelbach, Pixendorf and Pyhra. The soils in Mistelbach and Pyhra are classified as Typic Argiudolls while the soil in Pixendorf is an Entic Hapludoll. Soil textures range from silt loam to loam. Average annual rainfall (1994-2018) at the sites amounts from 621 to 916 mm with average annual air temperatures between 9.4 and 10.4 °C.</p> <p>Following soil tillage treatments were investigated: (1) conventional tillage system with ploughing in fall (CT), (2) mulch tillage with cover crops during winter (MT) and (3) no-till with cover crops during winter (NT). The study design was a randomized block and each treatment was replicated twice. Each treatment was equipped with one field runoff plot. The experimental plots were 6 m wide and – depending on site conditions - between 40 and 80 m long. The study design consisted of 3 (Mistelbach) and 4 m wide (Pixendorf, Pyhra) and 15 m long runoff plots for each management variation. Each plot was bordered by stainless steel metal sheets. At the lower end of the plot surface runoff and soil loss were collected in a trough and then diverted by a 100-mm PVC pipe to an Automated Erosion Wheel (AEW). The design of this AEW is similar to a tipping bucket and consists of four equal sections of five liters resulting in a resolution of each tip of 0.08 mm for 60 m² plots. A magnetic sensor system was used for continuous runoff measurement.</p> <p>Soil-water-suspension was divided by an adapted multi-tube divisor taking 3.3% of the sample that is collected in a 60 L collection tank. After each erosive storm the collection tank was emptied and the runoff sample was brought to the laboratory, weighed and dried until constant mass was achieved to determine sediment concentration. Based on the continuously measured runoff data from the data logging system and the sediment concentration the amount of soil loss from the plots was calculated for each erosive event.</p> <p>Throughout the investigation period soil erosion, surface runoff and nutrient and carbon losses and partly also pesticide losses due to erosion processes were determined for all sites and tillage systems. Immediately after planting/seeding of summer crops the erosion plots were installed and then operated until harvest. After the harvest the equipment was removed. No measurements were performed during winter due to limited accessibility and frost damages to the equipment. At each site an automatic tipping bucket rain gauge was placed to measure rainfall in 5-min intervals.</p> <p>Crop yield was determined from each treatment with three replications.</p> <p>Total nitrogen and total carbon in sediment samples was analysed by dry combustion [3](OeNorm L1080, 1989) using a C/N Analyzer (Vario Max CN, Elementar). Soil organic carbon content was obtained by subtracting inorganic carbon content measured volumetrically by the Scheibler method with a Calcimeter (OeNorm L1084, 1989). Total phosphorus of the sediment was determined using a UV/VIS spectral photometer (DU-640 Beckmann).</p> <p>Pesticides were extracted from water by solid phase extraction and from sediments using distilled water or organic solvent [6]. After shaking for several hours and centrifugation, the sample passed through a solid phase extraction. After evaporation of the extract the pesticide residues were redissolved in another solvent and analysed with high performance liquid chromatography (HPLC).</p>
Antimicrobial resistance monitoring results complementing the EU Overview Summary Report on AMR in zoonotic and indicator bacteria from humans, animals and food in 2017/2018 - Austria
<p>This dataset contains AMR monitoring results in animals and food at the isolate level pursuant to Article 9 of Directive 2003/99/EC and to Annex, part B, of Commission implementing Decision 2013/652/EU. In addition, the dataset includes any other results from isolates than the ones mentioned in the Commission implementing Decision 2013/652/EU. The quantitative minimum inhibitory concentration (MIC) data from dilution methods are included. REPORTING AUTHORITIES CONTRIBUTING TO EACH DATA COLLECTION: AMR_2018_AT_20200204: >> Austrian Agency for Health and Food Safety</p>
FIGURE 38 in Haasea Verhoeff, 1895-a genus of tumultuous history and chaotic recordsredefinition, revision of taxonomy and geographic distributions, with descriptions of two new species from Austria and Serbia (Diplopoda, Chordeumatida, Haaseidae)
FIGURE 38. Distribution of the genus Haasea.
FIGURE 10 in Haasea Verhoeff, 1895-a genus of tumultuous history and chaotic recordsredefinition, revision of taxonomy and geographic distributions, with descriptions of two new species from Austria and Serbia (Diplopoda, Chordeumatida, Haaseidae)
FIGURE 10. Attems personal collections catalogue in NHMW (photo NHMW).
Dataset - What enabled the forest transition? A socio-ecological counterfactual assessment for Austria, 1830-1910
<p>This excel file contains data on forest change, food and energy provision, as well as greenhouse gas emissions from agriculture, forestry and energy use in Austria 1830-1910, and assessments of five counterfactual scenarios in the absence of specific forest relief processes. The data were used to create figures 1a and b, 2a, b, c, and d, 3a, b, c, and d, and 4a and b in the manuscript "What enabled the forest transition? A socio-ecological counterfactual assessment for Austria, 1830-1910" submitted to Global Biogeochemical Cycles in July 2020 by Simone Gingrich, Christian Lauk, Fridolin Krausmann, Karl-Heinz Erb, Julia Le Noë.</p> <p> </p> <p>Dr. Simone Gingrich<br> Institute of Social Ecology (SEC)<br> Department of Economics and Social Sciences (WiSo)</p> <p>University of Natural Resources & Life Sciences, Vienna (BOKU)</p> <p><br> Post: Schottenfeldgasse 29, 1070 Vienna, Austria<br> Fon: <a>+43 1 47654-73724</a><br> Web: <a href="http://www.wiso.boku.ac.at/wiso/sec/">http://www.wiso.boku.ac.at/wiso/sec/</a></p>
Fig. 2 in Malacological mapping in Austria distribution of the Austrian spring snail Bythinella austriaca (v. F , 1857) in the federal state of Salzburg
Fig. 2: Distribution map of B. austriaca for the federal state of Salzburg. The results presented here are based upon local abundances of the gastropod published in literature and detected during own faunistic mapping campaigns.
Fig. 3 in Malacological mapping in Austria distribution of the Austrian spring snail Bythinella austriaca (v. F , 1857) in the federal state of Salzburg
Fig. 3: Main biotopes colonized by the Austrian spring snail and their statistical evaluations. As can be clearly recognized from the graph, highest probabilities of occurrence and related population densities could be determined for spring brooks, followed by ponds, larger brooks, moors, and intermediately sized lakes.
Figure 1 from: Albano PG, Schnedl S-M, Eschner A (2020) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): more Red Sea species. Zoosystematics and Evolution 96(2): 571-576. https://doi.org/10.3897/zse.96.54707
Figure 1 Drillia levanderi Sturany, 1905, Massaua, Eritrea. A, C. Original figures in Sturany, 1905; B, D, E. Holotype NHMW-Mollusca 39903: front (B), side (D), apex detail (E); F. Original label. Scale bars: B, D: 3 mm, E: 0.5 mm.
Figure 3 from: Albano PG, Schnedl S-M, Eschner A (2020) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): more Red Sea species. Zoosystematics and Evolution 96(2): 571-576. https://doi.org/10.3897/zse.96.54707
Figure 3 Raeta jickelii Sturany, 1905, Massaua, Eritrea. A, D. Original figures in Sturany, 1905; B, C, E. Illustrated syntype NHMW-Mollusca 39925: left valve outside view (B), left valve inside view (C), hinge detail (E). Scale bars: B, C: 10 mm, E: 2 mm.
Figure 2 from: Albano PG, Schnedl S-M, Eschner A (2020) An illustrated catalogue of Rudolf Sturany's type specimens in the Naturhistorisches Museum Wien, Austria (NHMW): more Red Sea species. Zoosystematics and Evolution 96(2): 571-576. https://doi.org/10.3897/zse.96.54707
Figure 2 Levanderia erythraeensis Sturany, 1905, Massaua, Eritrea. A, B. Original figures in Sturany, 1905; C, D. Holotype NHMW-Mollusca 39894: outside view (C), inside view (D); E. Original label. Scale bar: 1 mm.
FIGURE 1 in A new iphiculid crab (Crustacea, Brachyura, Leucosioidea) from the Middle Miocene of Austria, with notes on palaeobiogeography of Iphiculus
FIGURE 1. Study area with the type locality of Iphiculus eliasi sp. nov. indicated (asterisk).
Open Science Austria 2017 - SPSS Rohdaten
<p><strong>Open Science in Austria 2017</strong></p> <p>Based on the hypothesis that the currently heated debate on Open Science is shaped by strategic action to preserve the prevailing power relations rather than mutual understanding based on free recognition and equality, it is assumed that the respective position of power held by scientists within the scientific field, has an impact on their attitude towards an opening of science and the practical application of Open Science principles in their daily work.</p> <p>To test this assumption, a quantitative online survey was conducted at eight Austrian universities (n=454) to ascertain each participating scientist’s position of power within the academic field. In a second step both the attitude of the participants toward seven predefined Open Science principles as well as their active application of these principles was empirically determined and analysed with regard to any possible correlation with their position of power.</p> <p> </p> <p>*this raw SPSS file contains all 454 data sets which were used for the evaluation</p> <p>** please note that incomplete questionnaires were not considered and have been deleted from this file </p>
Fig. 2 in The aquatic malacofauna (Gastropoda et Bivalvia) in the Bluntau Valley in the Federal State of Salzburg (Austria)
Fig. 2: Small portable gauges used for the in-situ measurement of physical and chemical water parameters: (a) portable thermometer, (b) analyzer of electric conductivity, (c) pH-meter. For the analysis of total hardness respective test sticks were used.
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International Brain Laboratory public data
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OpenNeuro
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