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FIGURE 1 in A review of two large Jurassic pterodactyloid specimens from the Solnhofen of southern Germany
FIGURE 1. Overview of the described specimens. MB.R.5591.1: (1) photograph of main slab and (2) composite line tracing of slab and counter slab. SMNK PAL 6990: (3) photograph and (4) corresponding line tracing. sc, scapulocoracoid; hu, humerus; rd, radius; ul, ulna; crp, carpals (syncarpals); pt, pteroid; pac, preaxial carpal; ses, sesamoid; mc, metacarpal; wph, wing-finger phalanx (digit 4).
Рис. 1. 1 — Eriogyna koreanis (Brechlin, 2009) (Saturniidae), ♂, Казакевичево, из коΛΛекции ЗооΛогического иссΛеΑоватеΛьского музея АΛексанΑра Кёнига (Германия). Фото В. В. ЗоΛотухина; 2 — Nola confusalis; 3 — Negritothripa hampsoni; 4 — Autographa urupina; 5 — Athetis lapidea; 6–7 — Euplexia koreaeplexia; 8 — Nonagria puengeleri; 9 — Lacanobia oleracea; 10 —Actebia squalida Fig. 1. 1 — Eriogyna koreanis (Brechlin, 2009) (Saturniidae), ♂, Kazakevichevo (Kassakewitschevo), collection of the Zoological Research Museum Alexander Koenig (Germany). Photo by V. V. Zolotuhin; 2 — Nola confusalis; 3 — Negritothripa hampsoni; 4 — Autographa urupina; 5 — Athetis lapidea; 6–7 — Euplexia koreaeplexia; 8 — Nonagria puengeleri; 9 — Lacanobia oleracea; 10 —Actebia squalida in Additions To The Macromoth Fauna (Insecta, Lepidoptera, Macroheterocera) Of Bolshekhekhtsyrsky Nature Reserve (Khabarovsky Krai)
Рис. 1. 1 — Eriogyna koreanis (Brechlin, 2009) (Saturniidae), ♂, Казакевичево, из коΛΛекции ЗооΛогического иссΛеΑоватеΛьского музея АΛексанΑра Кёнига (Германия). Фото В. В. ЗоΛотухина; 2 — Nola confusalis; 3 — Negritothripa hampsoni; 4 — Autographa urupina; 5 — Athetis lapidea; 6–7 — Euplexia koreaeplexia; 8 — Nonagria puengeleri; 9 — Lacanobia oleracea; 10 —Actebia squalida Fig. 1. 1 — Eriogyna koreanis (Brechlin, 2009) (Saturniidae), ♂, Kazakevichevo (Kassakewitschevo), collection of the Zoological Research Museum Alexander Koenig (Germany). Photo by V. V. Zolotuhin; 2 — Nola confusalis; 3 — Negritothripa hampsoni; 4 — Autographa urupina; 5 — Athetis lapidea; 6–7 — Euplexia koreaeplexia; 8 — Nonagria puengeleri; 9 — Lacanobia oleracea; 10 —Actebia squalida
Dataset for acceleration measurements at the research bridge openLAB in Bautzen, Germany - Change of dynamic behavior in the concrete hardening process
<p>This data set was collected during the construction phase of the openLAB in Bautzen, Germany during the period from 22.01.2024 - 30.04.2024. It includes acceleration measurements and temperature measurements that record the dynamic behavior of the bridge over a period of 49 days (from 22.01.2024 to 11.03.2024; the remaining data cannot be uploaded due to the Zenodo upload restriction, but can be released on request). The detailed documentation of the data set can be found in the file "Bartels, Dunkel, Marx_2024_Documentation.pdf". The documentation describes the structure, the applied monitoring system and the collected data in detail.</p>
Cost and cost distribution of policy-driven investments in decentralized heating systems in residential buildings in Germany - Supplementary material
<p>This repository holds supplementary material for research concerning the <em>Cost and cost distribution of policy-driven investments in decentralized heating systems in residential buildings in Germany</em></p> <p>which was published as a working paper as</p> <p>Czock, Berit, Cordelia Frings, and Fabian Arnold. <em>Cost and cost distribution of policy-driven investments in decentralized heating systems in residential buildings in Germany</em>. No. 2024-4. Energiewirtschaftliches Institut an der Universitaet zu Koeln (EWI), 2024.</p> <p>and is available at</p> <p>https://www.ewi.uni-koeln.de/de/publikationen/cost-and-cost-distribution-of-policy-driven-investments-in-decentralized-heating-systems-in-residential-buildings-in-germany/</p> <p>This repository includes the following documents</p> <ol> <li>building list</li> <li>description of technical and economic assumptions</li> <li>detailed description of results</li> </ol> <p>Further material can be made available on request.</p> <p> </p> <p> </p> <div> <p>Cost and cost distribution of policy-driven investments in decentralized heating systems in residential buildings in Germany - Supplementary material Creators Czock, Berit1 © 2024 by Berit Hanna Czock is licensed under <a href="https://creativecommons.org/licenses/by/4.0/?ref=chooser-v1" target="_blank" rel="license noopener noreferrer"> CC BY 4.0 </a></p> </div>
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. 4. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857 in The phylogenetic position of the ornithischian dinosaur Stenopelix valdensis from the Lower Cretaceous of Germany and the early fossil record of Pachycephalosauria
Fig. 4. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857, holotype (GZG 741/2, formerly GPI Gö 741−2), from the Obernkirchen Sandstone (Early Cretaceous: Berriasian), near Bückeburg, Niedersachsen, Germany. Latex cast of ischia (small slab, both ischia are exposed in lateral view, anterior is to the right). Note the pronounced bend along the dorsal edge of the bone (arrows). Sacral and caudal centra between the ischia are exposed in ventral view.
Fig. 3. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857 in The phylogenetic position of the ornithischian dinosaur Stenopelix valdensis from the Lower Cretaceous of Germany and the early fossil record of Pachycephalosauria
Fig. 3. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857, holotype (GZG 741/2, formerly GPI Gö 741−2), from the Obernkirchen Sandstone (Early Cretaceous: Berriasian), near Bückeburg, Niedersachsen, Germany. Latex casts of sacral region. A. Large slab, dorsal view. B. Small slab, ventral view. Abbreviations: na, neural arches and spines; s1, s2, s3, s4, s5, sacral centra;?s6, possible 6th sacral centrum (may instead represent first caudal centrum); sr, sr1, sr2, sr5, sacral ribs; sr6, possible 6th sacral rib (may instead represent first caudal rib).
Fig. 2. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857 in The phylogenetic position of the ornithischian dinosaur Stenopelix valdensis from the Lower Cretaceous of Germany and the early fossil record of Pachycephalosauria
Fig. 2. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857, holotype (GZG 741/2, formerly GPI Gö 741−2), from the Obernkirchen Sandstone (Early Cretaceous: Berriasian), near Bückeburg, Niedersachsen, Germany. Latex cast of right ilium (large slab) in lateral view.
Fig. 6. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857 in The phylogenetic position of the ornithischian dinosaur Stenopelix valdensis from the Lower Cretaceous of Germany and the early fossil record of Pachycephalosauria
Fig. 6. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857, holotype (GZG 741/2, formerly GPI Gö 741−2), from the Obernkirchen Sandstone (Early Cretaceous: Berriasian), near Bückeburg, Niedersachsen, Germany. Latex cast of right tibia and fibula, partial right femur, and right pes (large slab). Tibia and fibula are exposed in posterior view; pes is exposed in anterior view. Note first phalanx of digit I. Roman numerals I–IV correspond to respective digits.
Fig. 5. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857 in The phylogenetic position of the ornithischian dinosaur Stenopelix valdensis from the Lower Cretaceous of Germany and the early fossil record of Pachycephalosauria
Fig. 5. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857, holotype (GZG 741/2, formerly GPI Gö 741−2), from the Obernkirchen Sandstone (Early Cretaceous: Berriasian), near Bückeburg, Niedersachsen, Germany. Latex cast of distal left scapula and associated elements of the forelimb (large slab).
Fig. 1. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857 in The phylogenetic position of the ornithischian dinosaur Stenopelix valdensis from the Lower Cretaceous of Germany and the early fossil record of Pachycephalosauria
Fig. 1. Ornithischian dinosaur Stenopelix valdensis Meyer, 1857, holotype (GZG 741/2, formerly GPI Gö 741−2), from the Obernkirchen Sandstone (Early Cretaceous: Berriasian), near Bückeburg, Niedersachsen, Germany. A. Large sandstone slab. B. Interpretative outline drawing of large latex cast (prepared from large sandstone slab), showing majority of postcranial skeleton in dorsal view. C. Small sandstone slab. D. Interpretative outline drawing of small latex cast (prepared from small sandstone slab), showing sacrum and caudals, pelvic region and partial hindlimbs in ventral view. For clarity elements in and around the sacral region have not been labelled—these areas are shown in greater detail in Fig. 3. Roman numerals II–IV correspond to respective digits. Abbreviations: mt, metatarsals; f, femur;?, unidentified element.
Fig. 8 in Toward the origin of amniotes: Diadectomorph and synapsid footprints from the early Late Carboniferous of Germany
Fig. 8. Stratocladogram of tetrapod phylogeny. Although extending the known body fossil record, the stratigraphic position of the diadectomorph and synapsid footprints from the Bochum Formation of western Germany fits well the phylogenetic pattern. Black bars indicate the known record of skeletal remains (Reisz 1986; Kissel and Reisz 2004a, b). Cladogram topology and minimum times of divergence are based on Kissel and Reisz (2004a, b), Müller and Reisz (2004), and Reisz (2007). The chronostratigraphic scale is adopted from Menning (2005).
Fig. 7 in Toward the origin of amniotes: Diadectomorph and synapsid footprints from the early Late Carboniferous of Germany
Fig. 7. Comparison of trackway pattern and selected parameters of Dimetropus sp. from the Late Carboniferous Bochum Formation, Ruhr area, Germany, DBM 060003260001 to DBM 060003260005 (A) and Dimetropus leisnerianus from the Early Permian Tambach Formation, Thuringian Forest, Germany, MNG 1762 (B), MNG 1828 (C), MNG 13490 (D). E, F. Derived trackway and imprint parameters graphically expressing the mean, minimum, and maximum values. G, H. Relative lengths of the manus and pes imprint digit lengths expressed as a percentage of the length of digit IV. Data source for E–H, see Appendix 4.
Fig. 3 in Toward the origin of amniotes: Diadectomorph and synapsid footprints from the early Late Carboniferous of Germany
Fig. 3. Undertrack preservation in Ichniotherium tetrapod footprints. A. Ichniotherium praesidentis (Schmidt, 1956) from the Late Carboniferous Bochum Formation, Ruhr area, Germany; DBM 060003309003. B–D. Ichniotherium cottae (Pohlig, 1885) from Early Permian strata of the Thuringian Forest area, Germany; MNG 2049 (B), MNG 1871 (C), and MNG 2016 (D). Semicircularly arranged spherical imprints of the digit tips of the digits I–III or I–IV, which are typical in appearance to the undertrack preservation of Ichniotherium. Scale bars 100 mm.
Fig. 6 in Toward the origin of amniotes: Diadectomorph and synapsid footprints from the early Late Carboniferous of Germany
Fig. 6. Comparison between tracks of Dimetropus sp. from the Late Carboniferous Bochum Formation, Ruhr area, Germany, DBM 060003260001 (A) and DBM 060003260003 (B) and Dimetropus leisnerianus (Geinitz, 1863) from the Early Permian Tambach Formation, Thuringian Forest, Germany, MNG 1762 (C). Scale bars 100 mm.
Fig. 4 in Toward the origin of amniotes: Diadectomorph and synapsid footprints from the early Late Carboniferous of Germany
Fig. 4. Graphic comparisons of the trackway pattern and selected parameters of three Ichniotherium ichnospecies. A. Ichniotherium praesidentis from the Bochum Formation, Late Carboniferous, Germany; DBM 060003309001 to DBM 060003309004, part). B–D. Ichniotherium sphaerodactylum from the Tambach Formation, Early Permian, Germany; MB ICV.2 (B), MNG 1351 (C), and GZG 1270 (D). E–G. Ichniotherium cottae from the Tambach Formation, Early Permian, Germany; MNG 10179 (E), UGBL F1 (F), and MNG 1352 (G). H, I. Derived trackway and imprint parameters graphically expressing the mean, minimum, and maximum values. J, K. Relative lengths of the manus and pes imprint digit lengths expressed as a percentage of the length of digit IV. Data source for H–K, see Appendix 2.
Fig. 2 in Toward the origin of amniotes: Diadectomorph and synapsid footprints from the early Late Carboniferous of Germany
Fig. 2. Tetrapod footprints of Ichniotherium praesidentis (Schmidt, 1956) from the Late Carboniferous Bochum Formation, Ruhr area, Germany, represented by the longest and best preserved trackway of the holotype. Photograph and drawing are based on the four−part resin replica (DBM 060003309001 to DBM 060003309004). Note: the first two imprints are erroneously replicated twice and therefore not shown in the outline drawing. Dotted zigzag line links the pes imprints, and dotted track outlines indicate the position of imprints, which are reasoned from the step cycle but not preserved on the cast.
Fig. 7 in New skeleton from the early Oligocene of Germany indicates a stem-group position of diomedeoidid birds
Fig. 7. Relationships between crown group Procellariiformes and the Diomedeoididae. The two nodes are characterized by the characters: 1, cotyla scapularis of coracoid shallow; 2, mandibular symphysis short; processus supracondylaris dorsalis large; legs short (note that the Hydrobatinae are intermediate in the last two characters mentioned).
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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.