Find research datasets worth reusing

opencc-by-4.0Nov 2019View details →

Fig. 2 in Morphology and developmental traits of the trilobite Changaspis elongata from the Cambrian Series 2 of Guizhou, South China

Fig. 2. Major anterior-posterior body divisions measured on oryctocephalid trilobite Changaspis elongata Lee in Chien, 1961 (D14 with 14 thoracic segments, JLZ-160-1006). A line along the sagittal axis was constructed on the image of each specimen and for each segment a line was then placed transversely to this, linking the articulating processes at the fulcral boss (the point abaxially marginal to the fulcrum). The intersections of these lines with the sagittal axis were used to calculate the length of each thoracic segment i (LTSi). LTS2 is shown as an example. Thorax plus pygidium together constitute the trunk. Cephalon, thorax and pygidium make up the body. BOL, body length; TRL, trunk length; CEL, cephalic length; LTH, length of thorax; PYL, pygidial length; LTSi, length of each thoracic segment i.

Fig. 3 in The caudal vertebral series in abelisaurid dinosaurs

Fig. 3. Middle caudal vertebrae of abelisaurids. A. Majungasaurus crenatissimus Déperet, 1896 (FMNH PR 2100) from Maastrichtian; Madagascar. B. Ekrixinatosaurus novasi Calvo, Rubilar-Roger, and Moreno, 2004 (MUCPv 294) from Cenomanian; Patagonia. C. Aucasaurus garridoi Coria, Chiappe, and Dingus, 2002 (MCF-PVPH 236) from Campanian; Patagonia, in lateral (A 1 –C 1) and dorsal (A 2 –C 2) views. Scale bars 5 cm.

Fig. 2 in The caudal vertebral series in abelisaurid dinosaurs

Fig. 2. Detail of several features of abelisaurid caudal vertebrae. A. Centrodiapophyseal lamina of Ekrixinatosaurus novasi Calvo, Rubilar-Roger, and Moreno, 2004 (MUCPv 294) from Cenomanian; Patagonia. B. Bony ridge in ventrodistal end of transverse process of MACN-PV-RN-1012 from Santonian; Patagonia. C. Expanded distal end of transverse process with anterior projection of Aucasaurus garridoi Coria, Chiappe, and Dingus, 2002 (MCF-PVPH 236) from Campanian; Patagonia. Hyposphene (D) and hypantrum (E) of Carnotaurus sastrei Bonaparte, 1985 (MACNCH 894) from Maastrichtian; Patagonia. Scale bars 5 cm.

Fig. 5 in The caudal vertebral series in abelisaurid dinosaurs

Fig. 5. Distribution of selected caudal vertebral characters in recent phylogenetic analysis (Modified from Canale et al. 2009).

Fig. 4 in The caudal vertebral series in abelisaurid dinosaurs

Fig. 4. Posterior caudal vertebra of Majungasaurus crenatissimus Déperet, 1896 (FMNH PR 2100) from Maastrichtian; Madagascar, in lateral (A), dorsal (B), and anterior (C) views. Scale bar 5 cm.

Fig. 1 in The caudal vertebral series in abelisaurid dinosaurs

Fig. 1. Anterior caudal vertebrae of abelisaurids. A. Majungasaurus crenatissimus Déperet, 1896 (UA 8678) from Maastrichtian; Madagascar. B. Abelisauridae indet. (MPM-99) from Turonian; Patagonia. C. Abelisauridae indet. (MPEF-V 1699) from Hauterivian–Barremian; Patagonia. D. Ekrixinatosaurus novasi Calvo, Rubilar-Roger, and Moreno, 2004 MUCPv 294) from Cenomanian; Patagonia. E. Abelisauridae indet. MACN-PV-RN 1012) from Santonian; Patagonia. F. Carnotaurus sastrei Bonaparte, 1985 (MACN-CH 894) from Maastrichtian; Patagonia. G. Aucasaurus garridoi Coria, Chiappe, and Dingus, 2002 (MCF-PVPH 236) from Campanian; Patagonia, in anterior (A 1 –G 1) and lateral (A 2 –G 2) views. Scale bars 5 cm.

Impact of the COVID-19 pandemic on antidepressant use in eleven European regions: a comparative time series analysis 2018–2022

Data and code supporting the article: Impact of the COVID-19 pandemic on antidepressant use in eleven European regions: a comparative time series analysis 2018–2022 Prescription, prevalence and incidence data from January 2018 to December 2022 for Croatia, the Czech Republic, Finland, Germany, Slovenia, Sweden, and the United Kingdom (England, Northern Ireland, Scotland, and Wales). Data include the numbers of dispensed defined daily doses (DDDs) and packs, aggregated by country and month, and prevalence and incidence of antidepressant dispensing. For more information, see the accompanying document ReadMe.md.

opencc-by-4.0Mar 2024View details →

Time series of electrical conductivity, temperature and relative stream stage recorded in surface water and streambed sediments of River Erpe and River Gruendlach, Germany

<a href="../api/records/13336325/draft/files/temp_EC_timeseries.csv/content" target="_blank" rel="noopener noreferrer">temp_EC_timeseries.csv</a>: Time series of electrical conductivity (mS cm-1), temperature (degC) and relative stream stage (cm) recorded in the surface water and in streambed sediments (depth in cm) of River Erpe and River Gruendlach, Germany.   <a href="../api/records/13336325/draft/files/porewater_ec_timeseries.csv/content" target="_blank" rel="noopener noreferrer">porewater_ec_timeseries.csv</a>: Time series of electrical conductivity (mS cm-1), temperature (degC), relative stream stage (cm) and total pressure (hPa) recorded in the surface water and in streambed sediments (depth in cm) of River Erpe and River Ammer, Germany, and the Sturt River, South Australia.

opencc-by-4.0Apr 2024View details →

Cryo-EM/Cryo-ET raw images and tilt series for the figures in the paper entitled "Angle Between DNA Linker and Nucleosome Core Particle Regulates Array Compaction by Individual-Particle Cryo-Electron Tomography"

Cryo-EM and cryo-ET raw images and tilt-series for the 3D reconstructions showed in the Figures of the paper entilted "Angle between DNA linker and nucleosome core particle regulates array compaction by individual-particle cryo-electron tomography"

Dataset of article: Residual capacity of RC beams subjected to impact loading: influence of reinforcement ductility. Part 4: Series I20

Part 4: Series I20 Results in this dataset are presented in Johansson et. al. (2024). Any results used from this open access data shall be cited to: Johansson M., Leppänen J., Andersson M. and Pettersson E. (2024). Residual Capacity of RC Beams Subjected to Impact Loading: Influence of reinforcement ductility. International Journal of Protective Structures. <a href="https://doi.org/10.1177/20414196241277221">https://doi.org/10.1177/20414196241277221</a> The presented data is based on Andersson and Pettersson (2019): Andersson M. and Pettersson E. (2019). Reinforced concrete beams subjected to drop-weight impact: Experimental study of the influence of reinforcement properties on the structural response. Department of Architecture and Civil Engineering. Gothenburg, Sweden: Chalmers University of Technology. Master’s Thesis ACEX30-19-27. --- This dataset consists of the following records: Part 1: General information Andersson and Pettersson 2019 - Reinforced Concrete Beams Subjected to Drop-Weight Impact Part 2: Series S Static tests – COM Correlate files Part 3: Series I10 Static tests – COM Correlate files Impact tests – High speed images Impact tests – COM Correlate files Part 4: Series I20 Static tests – COM Correlate files Impact tests – High speed images Impact tests – COM Correlate files Part 5: Result files

Dataset of article: Residual capacity of RC beams subjected to impact loading: influence of reinforcement ductility. Part 3: Series I10

Part 3: Series I10 Results in this dataset are presented in Johansson et. al. (2024). Any results used from this open access data shall be cited to: Johansson M., Leppänen J., Andersson M. and Pettersson E. (2024). Residual Capacity of RC Beams Subjected to Impact Loading: Influence of reinforcement ductility. International Journal of Protective Structures. <a href="https://doi.org/10.1177/20414196241277221">https://doi.org/10.1177/20414196241277221</a> The presented data is based on Andersson and Pettersson (2019): Andersson M. and Pettersson E. (2019). Reinforced concrete beams subjected to drop-weight impact: Experimental study of the influence of reinforcement properties on the structural response. Department of Architecture and Civil Engineering. Gothenburg, Sweden: Chalmers University of Technology. Master’s Thesis ACEX30-19-27. --- This dataset consists of the following records: Part 1: General information Andersson and Pettersson 2019 - Reinforced Concrete Beams Subjected to Drop-Weight Impact Part 2: Series S Static tests – COM Correlate files Part 3: Series I10 Static tests – COM Correlate files Impact tests – High speed images Impact tests – COM Correlate files Part 4: Series I20 Static tests – COM Correlate files Impact tests – High speed images Impact tests – COM Correlate files Part 5: Result files

Dataset of article: Residual capacity of RC beams subjected to impact loading: influence of reinforcement ductility. Part 2: Series S

Part 2: Series S Results in this dataset are presented in Johansson et. al. (2024). Any results used from this open access data shall be cited to: Johansson M., Leppänen J., Andersson M. and Pettersson E. (2024). Residual Capacity of RC Beams Subjected to Impact Loading: Influence of reinforcement ductility. International Journal of Protective Structures. <a href="https://doi.org/10.1177/20414196241277221">https://doi.org/10.1177/20414196241277221</a> The presented data is based on Andersson and Pettersson (2019): Andersson M. and Pettersson E. (2019). Reinforced concrete beams subjected to drop-weight impact: Experimental study of the influence of reinforcement properties on the structural response. Department of Architecture and Civil Engineering. Gothenburg, Sweden: Chalmers University of Technology. Master’s Thesis ACEX30-19-27. --- This dataset consists of the following records: Part 1: General information Andersson and Pettersson 2019 - Reinforced Concrete Beams Subjected to Drop-Weight Impact Part 2: Series S Static tests – COM Correlate files Part 3: Series I10 Static tests – COM Correlate files Impact tests – High speed images Impact tests – COM Correlate files Part 4: Series I20 Static tests – COM Correlate files Impact tests – High speed images Impact tests – COM Correlate files Part 5: Result files

Fig. 13 in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 13. Niutoushania (A, B) and Edriosteges (C–G) from the 1st member of the Lungtan Formation of Daijiagou. A, B. Niutoushania chongqingensis Chen sp. nov., anteroventral (A1), posterior (A2), and dorsal (A3) views of holotype NMV P309641 (A). B. Fragment of a ventral external mold NMV P309642 showing regularly spaced costae and fine spine bases. C–G. Edriosteges poyangensis (Kayser, 1883), dorsal (C, D2, E, F), anterodorsal (D1), and ventral (G) views of four dorsal external molds NMV P309632 (C), NMV P309630 (D), NMV P309629 (E), NMV P309631 (F), and a ventral valve NMV P309633 (G).

Fig. 11 in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 11. Ventral interior of Transennatia gratiosa (Waagen, 1884); based on a ventral internal mold NMV P309639.

Fig. 14 in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 14. Cardinal process of Chengxianoproductus cf. changxingensis Liao and Meng, 1986 (based on specimen NMV P309640).

Fig. 12 in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 12. Interiors of Niutoushania chongqingensis Chen sp. nov. (based on specimen NMV P309641); ventral valve (A) and dorsal valve (B).

Fig. 15 in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 15. Ventral interior of Permophricodothyris grandis (Huang, 1933) showing well−developed muscle scars (based on specimen NMV P309621).

Fig. 9 in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 9. Selected serial sections of the ventral umbo of Meekella beipeiensis Chen sp. nov. (based on specimen NMV P309627) showing closely situated, parallel dental plates. The numbers are distance from the ventral beak; the orientation of the sections is with ventral surfaces upward.

Fig. 10. A in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 10. A. Meekella kueichowensis (Huang, 1933), dorsal (A1), ventral (A2), and lateral (A3) views of NMV P309622. B. Chengxianoproductus cf. changxingensis Liao and Meng, 1986, ventral (B1), posterior (B2), lateral (B3), and dorsal (B4) views of NMV P309640 (B); B5, enlargement of fine, densely arranged spine bases of B1. C, D. Spinomarginifera alpha Huang, 1932, lateral (C1), posterior (C2), ventral (C3), and dorsal (D) views of a complete specimen NMV P309643 and a dorsal external mold NMV P309644. E–H. Transennatia gratiosa (Waagen, 1884), ventral (E1, G, H1), anteroventral (E2, H2), posterior (E3, H3), lateral (E4, H4), and internal (F) views of a ventral internal mold NMV P309639 (E), and latex replica NMV P309638 (F) of the ventral internal mold (E –E), a ventral internal mold NMV P309636 (G) and a dorsal external mold NMV P309637 (H –H). A, E, F, G, from the 4th member of the Lungtan For1 4 1 4 mation of Daijiagou; B, from the 1st member of the Lungtan Formation of Daijiagou; C, D, H, from the 5th member of the Lungtan Formation of Daijiagou.

Fig. 6 in Post-extinction brachiopod faunas from the Late Permian Wuchiapingian coal series of South China

Fig. 6. Global stratigraphic distributions of the Lungtan brachiopod faunas. Permian chronostratigraphic framework follows International Union of Geological Sciences (2002). Conodont zones are after Mei et al. (1994) and Jin et al. (1998). The G/L mass extinction horizon corresponds to the biostratigraphic G/L boundary. The extinction interval is defined by the late Capitanian conodonts Jinogondolella granti Zone and the earliest Wuchiapingian Clarkina postbitteri Zone. Brachiopod genera include 1, Spinomarginifera; 2, Edriosteges; 3, Meekella; 4, Transennatia; 5, Perigeyerella; 6, Permophricodothyris; 7, Paraspiriferina; 8, Magniderbyia; 9, Niutoushania; 10, Chengxianoproductus; 11, Peltichia. Brachiopod species include 12, Edriosteges poyangensis; 13, Transennatia gratiosa; 14, Permophricodothyris grandis; 15, Magniderbyia sp. indet.; 16, Meekella pusilloplicata; 17, Me. kueichowensis; 18, Me. beipeiensis; 19, Spinomarginifera lopingensis; 20, Niutoushania chongqingensis; 21, Chengxianoproductus cf. changxingensis; 22, Paraspiriferina sp.; 23, Perigeyerella costellata; 24, Peltichia zigzag; 25, Spinomarginifera alpha.