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558 results for “Austria”
Figure 4. Anthrenus pimpinellae. A in Anthrenus (Anthrenus) querneri (Coleoptera: Dermestidae: Megatominae), a new species from Austria
Figure 4. Anthrenus pimpinellae. A) Habitus (scale bar = 1 mm). B) Abdominal ventrites (scale bar = 1mm). C) Antenna (scale bar = 100 µm).
Figure 2. Anthrenus querneri. A in Anthrenus (Anthrenus) querneri (Coleoptera: Dermestidae: Megatominae), a new species from Austria
Figure 2. Anthrenus querneri. A) Aedeagus dorsal aspect. B) Sternite IX. Scale bar = 100 µm in both cases.
Figure 1. Anthrenus querneri. A in Anthrenus (Anthrenus) querneri (Coleoptera: Dermestidae: Megatominae), a new species from Austria
Figure 1. Anthrenus querneri. A) Habitus (left elytron missing, scale bar = 1 mm). B) Abdominal ventrites (scale bar = 1mm). C) Detached antenna (scale bar = 100 µm).
Fig. 3 in An integrative taxonomic approach to reveal the status of the genus Pomphorhynchus Monticelli, 1905 (Acanthocephala: Pomphorhynchidae) in Austria
Fig. 3. Phylogenetic relationships between species of the genus Pomphorhynchus based on a 550 bp COI dataset. A. NJ tree showing uncorrected p-distances between species of the genus Pomphorhynchus. Bootstrap values (1000 replicates, in %) are shown next to the nodes. Clade names containing specimens examined in this study are colored in red and marked with an asterisk. The dataset includes sequences generated in this study and sequences obtained from NCBI GenBank. B. Medianjoining network of P. bosniacus. One frequent haplotype can be observed (n = 33). Most haplotypes are constituted of 1 sample (see legend), separated by one to two mutation steps from the main haplotype. Only two haplotypes including sequences from NCBI GenBank are separated by eight mutation steps from the main haplogroup. C. Median-joining network of P. laevis. Two different clades can be distinguished: a Western clade (dark green) and an Eastern clade (light green). Specimens of this study are represented in two separate haplotypes. D. Median-joining network of P. tereticollis. Four different haplogroups can be distinguished, indicated with dotted lines: 1. Specimens from France (Rhône) (NCBI GenBank), 2. Specimens from Northern Europe (NCBI GenBank), 3. Specimens from the Rhine and Carpathians (NCBI GenBank), including specimens of this study, 4. Specimens of this study. Mutation steps are indicated with vertical lines. Black dots represent haplotypes missing in the study sampling. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 1 in An integrative taxonomic approach to reveal the status of the genus Pomphorhynchus Monticelli, 1905 (Acanthocephala: Pomphorhynchidae) in Austria
Fig. 1. Map showing European rivers relevant for the present study. The study area in Austria is highlighted in grey. Localities of P. bosniacus are indicated as circle, the one of P. tereticollis as asterisk and the one of P. laevis as square. Different sizes are indicating higher or lower abundances.
Fig. 2 in An integrative taxonomic approach to reveal the status of the genus Pomphorhynchus Monticelli, 1905 (Acanthocephala: Pomphorhynchidae) in Austria
Fig. 2. Proboscis and longitudinal row of hook roots of the three determined Pomphorhynchus species. All images are volume rendering of the 3-D stacks. In volume rendering each grayscale value is assigned a color according to an arbitrary colormap. The depiction depends on which values and how transparent they are displayed. In the present images a glow color map is used, which assigns graded colors from black (background) to shades of red-orange-yellow. A. Volume rendering of a confocal laser scan image stack of the proboscis of P. tereticollis. B. Volume rendering of the sectioned proboscis of P. bosniacus including reconstructed hooks as surface rendering. C. Volume rendering of the sectioned proboscis of P. laevis including reconstructed hooks as surface rendering. D-F. Internal view of the sectioned proboscids including a single longitudinal row of hooks. D. P. tereticollis. E. P. bosniacus. F. P. laevis. Legend: Red arrow = last circle of hooks; green arrow = extensions on basal hook roots of P. tereticollis; blue arrow = basal hooks attached in the middle of hook roots of P. bosniacus; yellow arrow: lack of extensions on basal hook roots of P. laevis. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 1 in Delia altophila, a new species of Anthomyiidae (Diptera, Brachycera) from Austria
Fig. 1: Delia altophila SCHLUESSLMAYR nov.sp. (male). (1) terminalia in lateral view, (2) sternites II-V, (3) cerci and surstyli in lateral view, (4) same in posterior view, (5) hypandrial complex, (6) distiphallus.
Dataset of the publication "Cross-sectional study of prevalence of dementia, behavioural symptoms, mobility, pain and other health parameters in nursing homes in Austria and the Czech Republic: results from the DEMDATA project"
<p>Dataset of the publication Stefanie R. Auer , Margit Höfler, Elisabeth Linsmayer, Anna Beránková, Doris Prieschl, Paulina Ratajczak,<br> Michal Šteffl and Iva Holmerová (2018) "Cross-sectional study of prevalence of dementia, behavioural symptoms, mobility, pain and other health parameters in nursing homes in Austria and the Czech Republic: results from the DEMDATA project"</p>
Age distribution Austria vs. Vienna
<p>Daset produced by the Data Stewardship Project, comparing the Austrian population distribution by Age to the population distribution of Vienna.</p>
Fig. 5 in New robertinid foraminifers from the Early Jurassic of Adnet, Austria and their evolutionary importance
Fig. 5. Triassic–Early Jurassic evolution of the order Robertinida at the genus level (partly based on Rigaud et al. 2015b, with new data). Dashed lines indicate uncertain stratigraphic distribution, dotted lines indicate uncertain phyletic relationship.
Fig. 7. Strombid gastropods from Austria and Turkey. A in The Neogene strombid gastropod Persististrombus in the Paratethys Sea
Fig. 7. Strombid gastropods from Austria and Turkey. A. Juvenile specimen with protoconch of Persististrombus exbonellii (Sacco, 1893), NHMW 2013/0299/0002, from the Middle Miocene of Gainfarn in Lower Austria, in ventral (A1, A2), and apical (A3) views. B. Protoconch of Persististrombus inflexus, NHMW 2013/0299/0003, from the Serravallian of Karaman in Turkey, in ventro−apical (B1) and ventral (B2) views. Scale bars 1 mm.
Video Documentation for the Giant Human Sorting Network event in Vienna, Austria, September 19, 2019
<p>This video is a supplementary material for the article "Large and Parallel Human Sorting Networks" by Stefan Szeider, to appear in the proceeedings of CMSC 2024, the 7th Conference on Creative Mathematical Sciences Communication, Springer Verlag, 2024.</p> <p> </p>
Fig. 8 in Early Norian (Triassic) corals from the Northern Calcareous Alps, Austria, and the intra-Norian faunal turnover
Fig. 8. Astraeomorphid coral and some undetermined coral taxa, and the hydrozoan Cassianastraea reussi (Laube, 1865). Vicinity of Feisterscharte, Austria, early Norian, Triassic. A. Parastraeomorpha sp.; GBA 2009/019/3c. A colony fragment in transverse section (A1), and the same in oblique section (A2) showing synapticulae (arrows). B. A solitary coral of the smallest fossil scleractinian corals described so far; GBA 1995/2/1/2h. Note the external corallite surface micromorphology. C. Forking thick−septal coral; GBA 2007/152/3b–d. Transverse section of the distal corallite part (C1); a new centre indicated by an arrow; proximal corallite part with papillar columella (C2), and its details magnified (C4); longitudinal section (C3) showing tabuloid dissepiments. D. Cassianastraea reussi (Laube, 1865); GBA 1995/2/1/2f. Transverse section of a branch (D1), with a calice (upper arrow) and canals (lower arrow); a fragment of the same section (D2) to show a calice with five septa (marked with arrows).
Fig. 4 in Early Norian (Triassic) corals from the Northern Calcareous Alps, Austria, and the intra-Norian faunal turnover
Fig. 4. Reimaniphylliid corals from vicinity of Feisterscharte, Austria, early Norian, Triassic. A. Retiophyllia sp.; GBA 2009/019/4g. Septal apparatus with + thick S1 septa, transverse section. B. Retiophyllia aranea sp. nov.; GBA 2009/019/14. corallites circular in section (B1) with a large axial space (B2); longitudinal/oblique section (B3) showing sub−horizontal, large dissepiments in the axial space, and longitudinal section of distal part of the corallite (B4) showing convex dissepiments at the periphery. C. Retiophyllia aff. fenestrata (Reuss, 1854); GBA 2009/019/11a, b. Corallites in transverse (C1) and longitudinal (C2) sections showing small number of septa and large dissepiments. D. Retiophyllia aff. tolminensis Turnšek, 1987; GBA 2007/152/3f. Corallite in transverse section showing zigzag septa. E. Retiophyllia vesicularis sp. nov.; GBA 2009/019/12g, c. Corallites in longitudinal (E1) and transverse (E2) sections; note large and convex dissepiments and irregular shape of septa. F–G. Craspedophyllia? sp. F. GBA 2009/019/16b; transverse sections with corallites showing rare, obliquely directed menianes. G. Zigzag traces of septal microstructure; GBA 2009/019/17a (G1), GBA 2009/019/17b (G2).
Fig. 5 in Early Norian (Triassic) corals from the Northern Calcareous Alps, Austria, and the intra-Norian faunal turnover
Fig. 5. Margarosmiliid corals from vicinity of Feisterscharte, Austria, early Norian, Triassic. A–C. Ceriostella aff. variabilis Roniewicz and Stanley, 1998. A. GBA 2009/019/20; a colony in polished section. B. GBA 2009/019/22; transverse thin sections (B1, B2), note cerioid colony and a lack of columella; longitudinal section (B3) showing mode of growth of corallites at the periphery of lamellar colony. C. GBA 2009/019/23a; calice in longitudinal/oblique section showing rare granules on the septal side and internal border micromorphology (at the middle). D. Magarosmilia nova Turnšek, 1991; GBA 2009/019/4 i; transverse section. E. Margarophyllia cf. capitata (Münster, 1841); GBA 2009/019/2c; transverse section. F. Thamnomargarosmilia aff. prima Melnikova, 1996; GBA 1995/2/1/2f, c; transverse sections showing budding with lamellar linkages between centres (F1), and a typical circular shape of adult corallite (F2) with a new one growing laterally. G, H. Margarosmilia adhios sp. nov. G. GBA 2009/019/18a; a fragment of transverse section (G1) of a corallite with traces of microstructure; longitudinal section (G2) of corallite showing small dissepiments. H. GBA 2009/019/19a, c; transverse section of phaceloid corallum (H1); a section of the corallite at a preliminary stage of sub−symmetric division (H2).
Fig. 1 in Early Norian (Triassic) corals from the Northern Calcareous Alps, Austria, and the intra-Norian faunal turnover
Fig. 1. Southern slopes of the Dachsteinplateau: location of the Feisterscharte pass (N 47°27'10", E 13°41'08") in vicinity of which early Norian corals were sampled. Small circles indicate places of singular finds, and a large circle indicates the area, which yielded the majority of samples.
Fig. 2 in Early Norian (Triassic) corals from the Northern Calcareous Alps, Austria, and the intra-Norian faunal turnover
Fig. 2. Hexanthiniarian corals from vicinity of Feisterscharte, Austria, early Norian, Triassic. A. Pachysolenia cylindrica Cuif, 1975; GBA 2007/152/1. A fragment of phaceloid corallum in upper view (A1); transverse section (A2); a corallite with septa thickened by a cover of fine crystals (A3); a tube−like, distal part of the calice with a thick pachythecal wall (A4); a magnified fragment showing modular structure of the pachythecal wall with internal wall surface longitudinally sculptured with minute ridges at left (A5); a corallite in longitudinal section showing a thick wall and thin, rare tabulae (A6). B. Pachysolenia cf. cylindrica Cuif, 1975; GBA 2007/152/3. Transverse section of the corallite with abundant septa. C, D. Pachydendron microthallos Cuif, 1975. C. GBA 2007/152/2. Corallum in transverse section (C1); corallite with rare tabulae in longitudinal section (C2); and a corallite (C3) with traces of microstructure in the wall with lumen filled by coarse calcite crystals. D. GBA 2009/019/3. Corallite with recrystallised wall, transverse section. E. Indetermined solitary hexanthiniarian coral?; GBA 2009/019/12. Thick−walled pachythecal−like coral in transverse section (E1), and its fragment (E2) showing septa with sharp ornamentation.
FIGURE 5 in Re-evaluation of the very large Eomellivora fricki (Pia, 1939) (Carnivora, Mustelidae, Mellivorinae) from the Late Miocene of Austria
FIGURE 5. Main comparative material of mandible and lower dentition of species of Eomellivora considered in this manuscript. 1-2, Eomellivora fricki NHMW 1977/1948/0130 from Gaiselberg (Austria), MN9.1, lateral view, 2, occlusal view; 3-4, Eomellivora piveteaui Bat-3´13.230 from Batallones (Spain), MN10. 3, lateral view, 4, occlusal view; 5-6, Eomellivora wimani PMU-M3693 from Shangyingou (China), MN12-13 (same specimen as PMU-M3692). 5, lateral view, 6, occlusal view; 7-8, Holotype of Eomellivora ursogulo PIN-No.269a from Grebeniki (Ukraine), MN11. 7, lateral view, 8, occlusal view; 9-10, Holotype of Eomellivora hungarica MFGI-Ob-2676 from Polgárdi 2 (Hungary), MN13. 9, lateral view, 10, occlusal view. Scale bar equals 5 cm.
FIGURE 6 in Re-evaluation of the very large Eomellivora fricki (Pia, 1939) (Carnivora, Mustelidae, Mellivorinae) from the Late Miocene of Austria
FIGURE 6. Scatter diagrams of measurements (mm) of the dentition of Eomellivora and Ekorus ekakeran. 1, P4; 2, M1; 3, c; 4, p4; 5, m1; 6, m2. Sources: WXII (Wien XII-Altmannsdorf) present manuscript; GAI (Gaiselberg) present manuscript; SH (Shangyingou), and LI (Liuwangou), Zdansky (1924); GRT (Gritsev), Wolsan and Semenov (1996); NO (Novaya Emetovka), Orlov (1948); GYÖ (Györszentmárton), Kretzoi (1965), KRF (Kern River Formation site 50), Stock and Hall (1933); CIM (Cimislia), Wolsan and Semenov (1996); YAS (Yassiören), Ozansoy (1965) and for P4 and M1, estimations based on pictures of MNHN-TRQ-1005, rather than the evidently confusing original data provided in Ozansoy (1965); WSS (Wissberg), Tobien (1955); RPI (Ravin de la Pluie), Koufos (2012); BAT (Batallones), Valenciano et al. (2015); LVF (Los Valles de Fuentidueña), Crusafont-Pairó and Ginsburg (1973) and for p2 Valenciano et al. (2015); KLF (Kalfa), Lungu (1978) and for M1 Valenciano et al. (2015); GRE (Grebeniki), Orlov (1948); CSA (Csákvár), Kretzoi (1942); POL (Polgárdi 2); LOT (Lothagam) Werdelin, 2003.
FIGURE 4 in Re-evaluation of the very large Eomellivora fricki (Pia, 1939) (Carnivora, Mustelidae, Mellivorinae) from the Late Miocene of Austria
FIGURE 4. Main comparative material of the upper dentition of species of Eomellivora considered in the present manuscript. 1, Holotype of Eomellivora fricki NHMW 2016/0065/0001 from Wien XII-Altmannsdorf (Austria), MN9; 2, Eomellivora piveteaui MNHN-TRQ-1005 from type locality Yassiören (Turkey), MN9; 3, Eomellivora piveteaui Bat- 3´13.185 from Batallones (Spain), MN10; 4, Holotype of Eomellivora ursogulo PIN-No.268 from Grebeniki (Ukraine), MN11; 5, Lectotype of Eomellivora wimani PMU-M3692 from Shangyingou (China), MN12-13; 6, Paratype (M1) of Eomellivora hungarica MFGI-Ob-3831 from Polgárdi 2 (Hungary), MN13; 8, cast of the holotype of Eomellivora ursogulo NHMW 2016/0085/0001 from Grebeniki (Ukraine), MN11; 9, cast of the holotype of Ekorus ekakeran KNM- LT 23125 from Lothagan (Kenya), 7 m.y.a. 1-6, occlusal view, 7-9, lateral view. Scale bar equals 5 cm.
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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
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