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opencc-by-4.0Sep 2024View details →

Ground penetrating radar (GPR) measurements in the Lower Muschelkalk of a limestone quarry in Rüdersdorf near Berlin, Germany 2023

Surface Ground Penetrating Radar (GPR) was used on the exposed limestone of a quarry. Several measurements were carried out using a 200 MHz antenna, including a test field with densely spaced profiles suitable for 3D visualization. The measured features are oriented along boreholes and the actively mined demolition edge. Photographs of the wall face are provided at different stages of mining, which extended into the previously measured test field, revealing its cross section.

opencc-by-4.0Sep 2024View details →

Ground penetrating radar (GPR) monitoring of a densely gridded survey field in the Lower Muschelkalk of a limestone quarry in Rüdersdorf near Berlin, Germany 2023/24

Surface Ground Penetrating Radar (GPR) was used on the exposed limestone of a quarry to monitor a survey field of densely spaced profiles on three dates (in October 2023, December 2023 and February 2024). The different moisture conditions of these survey dates can be evaluated with linked detailed weather data (10.5281/zenodo.13867069). A time-depth conversion using CMP data to calculate the EM wave velocity suggested a GPR penetration depth of approximately 4 metres. The measurements were planned, carried out and analysed in the context of a Master's thesis on the potential of GPR to investigate the hydrodynamics of carbonate rocks relevant to groundwater recharge processes.

opencc-by-4.0Sep 2024View details →

Precipitation and Temperature data from the on-site weather station at the Rüdersdorf limestone quarry near Berlin, Germany, from January 2023 to February 2024

The weather data from the on site station is provided as Temperature [°C] every 5 minutes and the daily sums of Precipitation [mm].

opencc-by-4.0Aug 2021View details →

Table 1 in Redescription of Aspidogaster limacoides Diesing, 1834 (Aspidogastrea: Aspidogastridae) from freshwater fishes of northern Germany

Table 1 List of available ITS rDNA sequences of Aspidogaster spp. with their host, location and references<table><tbody><tr><th>Species</th><th>Host</th><th>Location</th><th>GenBank accession number</th><th>References</th></tr></tbody><tbody><tr><th>A. chongqingensis Wei et al., 2001</th><td>Spinibarbus sinensis (Cyprinidae, Teleostei)</td><td>Jialing River, Beibei, Chongqing, China</td><td>DQ345324</td><td>Chen et al. 2010</td></tr><tr><th>A. limacoides sensu Chen et al. (2010) Diesing, 1834 (Fig. 4)</th><td>Coreius guickenoti (Cyprinidae, Teleostei)</td><td>Jialing River, Beibei, Chongqing, China</td><td>DQ345319</td><td>Atopkin et al. 2017</td></tr><tr><th>A. conchicola Baer, 1827</th><td>Mylopharyngodon piceus (Cyprinidae, Teleostei)</td><td>Danjiangkou Reservoir, Danjiangkou, Hubei, China</td><td>DQ345317</td><td>Chen et al. 2010</td></tr><tr><th>A. conchicola Baer, 1827</th><td>Mylopharyngodon piceus (Cyprinidae, Teleostei)</td><td>Liangzi Lake, E’zhou, Hubei, China</td><td>DQ345318</td><td>Chen et al. 2010</td></tr><tr><th>A. conchicola Baer, 1827</th><td>Colletopterum anatinum (Unionidae, Bivalvia)</td><td>Tvertza River, Tver Region, European part of Russia</td><td>HE863962-HE863965</td><td>Atopkin et al. 2017</td></tr><tr><th>A. conchicola Baer, 1827</th><td>Cristaria herc (Unionidae, Bivalvia)</td><td>Khanka Lake, Primorskyi Region, Russia Far East</td><td>HE863958-HE863961</td><td>Atopkin et al. 2017</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Danjiangkou Reservoir, Danjiangkou, Hubei, China</td><td>DQ345320</td><td>Chen et al. 2010</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Jiangkou Reservoir, Xinyu, Jiangxi, China</td><td>DQ345321</td><td>Chen et al. 2010</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Niushan Lake, Wuhan, Hubei, China</td><td>DQ345322</td><td>Chen et al. 2010</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Jialing River, Beibei, Chongqing, China</td><td>DQ345323</td><td>Chen et al. 2010</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Khanka Lake, Primorskyi Region, Russia</td><td>HE863957</td><td>Atopkin et al. 2017</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Amur River, Nikolaevsk– na–Amure, Khabarovsk Region, Russia</td><td>HE863950-HE863957</td><td>Atopkin et al. 2017</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Amur River, near Khabarovsk, Khabarovsk Region Russia</td><td>HE866756</td><td>Atopkin et al. 2017</td></tr><tr><th>A. ijimai Kawamura, 1913</th><td>Cyprinus carpio (Cyprinidae, Teleostei)</td><td>Lake Biwa near Takashima city, Japan</td><td>MK387320-MK387330</td><td>Sokolov et al. 2019</td></tr><tr><th>A. limacoides sensu stricto Diesing, 1834</th><td>Rutilus rutilus (Cyprinidae, Teleostei)</td><td>Rybinsk Reservoir, Yaroslavl Region, European part of Russia</td><td>HE863966-HE863969</td><td>Atopkin et al. 2017</td></tr><tr><th>A. limacoides s. str. Diesing, 1834</th><td>Blicca bjoerkna (Cyprinidae, Teleostei)</td><td>Rybinsk Reservoir, Yaroslavl Region, European part of Russia</td><td>HE863970-HE863971</td><td>Atopkin et al. 2017</td></tr><tr><th>Multicalyx elegans (Olsson, 1869) (as outgroup)</th><td>Callorhinchus milii (Callorhinchidae, Chondrichthyes)</td><td>Australia, Hobart, Tasmania</td><td>DQ345325</td><td>Atopkin et al. 2017 from Gao et al. 2005 (unpublished)</td></tr></tbody></table>

opencc-by-4.0Nov 2024View details →

Personal light exposure dataset: Shift workers in Dortmund, Germany

Archiving the repository on Zenodo. This archive not only contains the analysis script, but importantly also the dataset of personal light exposure

opencc-by-4.0Aug 2023View details →

Evolution of fault reactivation potential in the greater Ruhr region (Germany). Results from analytical and numerical studies.

This dataset presents results of analytical-probabilistic and numerical studies on the evolution of fault reactivation potential in the greater Ruhr region in western Germany. The dataset includes shapefile of major faults in the greater Ruhr region, with their specific dip angles, strike values, slip tendencies, dilation tendencies, fracture susceptibilities, and reduced-risk dilation tendencies. The results of long-term coupled thermo-hydro-mechanical simulations on two conceptual geothermal systems based on the two most prevailing fault architectures in the greater Ruhr region are also included in the dataset. The model results are saved with the COMSOL Multiphysics software format, where the simulations were carried out. Please check the README files for a detailed explanation of both datasets. _________________________________ Update on 06/11/2024 New version includes only one updated fully coupled thermo-hydro-mechanical model with a NW-SE-striking fault and a finer mesh.

opencc-by-4.0Nov 2024View details →

Long-term biochar and soil organic carbon stability– Evidence from field experiments in Germany-ROW DATA

Row data for researcher paper Long-term biochar and soil organic carbon stability– Evidence from field  experiments in Germany

opencc-by-4.0Jun 2021View details →

Monthly precipitation intensity maxima for 14 aggregation times at 132 stations in Germany

This dataset contains monthly precipitation intensity maxima for 14 aggregation times at 132 stations in Germany that serve as the basis of the study Modeling seasonal variations of extreme rainfall on different time scales in Germany.   Generation of the dataset: We use precipitation measurements at 132 stations in Germany that provide a temporal resolution of one minute.  The majority (129) of these stations are operated by the  German Meteorological Service (DWD) and were obtained via ftp://ftp-cdc.dwd.de/climate_environment/CDC/observations_germany/climate. The available time series at these stations range from 19 to 28 years. Additionally we use three stations operated by the  Wupperverband (https://www.wupperverband.de) with time series of more than 43 years. The observations were accumulated to the following durations: \(d \in 2^{\left\lbrace 0,1,2,..,13 \right\rbrace}\,\text{min} = \left\lbrace 1,2,4,...,8192 \right\rbrace\,\text{min}\). Thus, resulting in 14 time series per station.   Files and variables meta_data_seasonal_variations_IDF_germany.csv <ul> <li>Meta information about the stations</li> <li>Variables: station name, station id (as provided by DWD), position (longitude, latitude), length of timeseries available</li> <li>Variable names: "StationName", "StationID", "Longitude", "Latitude", "NumberYears"</li> </ul> monthly_maxima_seasonal_variations_IDF_germany.csv <ul> <li>Monthly maxima for different durations (aggregation times)</li> <li>Variables: station id (as in meta file), year and month of observation, duration [h], observed monthly intensity maximum [mm/h]</li> <li>Variable names: "StationID", "Year", "Month", "Duration [h]", "MonthlyIntensityMaximum [mm/h]"</li> </ul>   Abstract of the study We model monthly precipitation maxima at 132 stations in Germany for a wide range of durations from one minute to about six days using a duration-dependent generalized extreme value (d-GEV) distribution with monthly varying parameters. This allows for the estimation of both monthly and annual intensity--duration--frequency (IDF) curves: (1) The monthly IDF curves are steeper in summer and exhibit higher intensities for short durations than in the rest of the year. Thus, everywhere in Germany short convective extreme events occur very likely in summer. In contrast, extreme events with a duration of several hours up to about one day are more likely to occur within a longer period or even spread throughout the whole year, depending on the station. There are major differences within Germany with respect to the months in which long-lasting stratiform extreme events are more likely to occur. At some stations the IDF curves (for a given quantile) for different months intersect. The meteorological interpretation of this intersection is that the season at which a certain extreme event is most likely to occur shifts from summer towards autumn or winter for longer durations. (2) We compare the annual IDF curves resulting from the monthly model with those estimated conventionally, that is, based on modeling annual maxima. We find that adding information in the form of smooth variations during the year leads to a considerable reduction of uncertainties. We additionally observe that at some stations, the annual IDF curves obtained by modeling monthly maxima deviate from the assumption of scale invariance, resulting in a flattening in the slope of the IDF curves for long durations.   Acknowledgements The authors would like to thank the Wupperverband, and in particular Marc Scheibel, as well as the Climate Data Center of the DWD, for providing and maintaining the precipitation time series.

Fig. 18 in Stenocephus janseni sp. nov., a new species of stem-sawfly from Germany (Hymenoptera: Cephidae)

Fig. 18. Maximum likelihood tree of Cephidae based only on mitochondrial COI gene. Numbers at branches show SH-aLRT support (%) / ultrafast bootstrap support (%) values. Support values for weakly supported branches (<90) are not shown. Letters "f" and "m" stand for "female" and "male" if known. Numbers at the end of the tip labels refer to the length of the sequence. The tree was rooted according to the results of Mൺඅආ & Nඒආൺඇ (2015) and Aඒൽൾආං*© & Kඈ*©κආൺඓ (2020). The scale bar shows the number of estimated substitutions per nucleotide position.

Figs 13–17 in Stenocephus janseni sp. nov., a new species of stem-sawfly from Germany (Hymenoptera: Cephidae)

Figs 13–17. Stenocephus janseni sp. nov., holotype, female. 13 – valvula 3 and cerci, lateral; 14 – maxillary palp; 15 – left mandible [broken tip of external tooth outlined]; 16 – antenna; 17 – lancet.

Figs 7–12 in Stenocephus janseni sp. nov., a new species of stem-sawfly from Germany (Hymenoptera: Cephidae)

Figs 7–12. Stenocephus janseni sp. nov., holotype, female. 7 – anterior thorax, lateral; 8 – mesoscutellum, dorsal; 9 – metatibial claw; 10 – metatibial spurs; 11 – abdomen base, lateral; 12 – abdomen apex, dorsal.

Figs 1–6 in Stenocephus janseni sp. nov., a new species of stem-sawfly from Germany (Hymenoptera: Cephidae)

Figs 1–6. Stenocephus janseni sp. nov., holotype, female. 1 – lateral, scale bar 5 mm; 2 – head, dorsal; 3 – head, frontal; 4 – head, lateral; 5 – thorax, dorsal; 6 – pronotum, dorsal.

Fig. 19 in Stenocephus janseni sp. nov., a new species of stem-sawfly from Germany (Hymenoptera: Cephidae)

Fig. 19. Maximum likelihood tree of Cephidae based on combined COI and nuclear (POL2 + NaK) genes. Numbers at branches show SH-aLRT support (%) / ultrafast bootstrap support (%) values. Support values for weakly supported branches (<90) are not shown. Letters "f" and "m" stand for "female" and "male" if known. Numbers at the end of the tip labels refer to the length of the sequence. The tree was rooted according to the results of Mൺඅආ & Nඒආൺඇ (2015) and Aඒൽൾආං*© & Kඈ*©κආൺඓ (2020). The scale bar showsthe number of estimated substitutions per nucleotide position.

FIG. 24 in Redescription of a Nearly Complete Skull of Plateosaurus (Dinosauria: Sauropodomorpha) from the Late Triassic of Trossingen (Germany)

FIG. 24. Vomers (with anterior ends of palatine and pterygoid) of Plateosaurus erlenbergiensis (AMNH FARB 6810). Abbreviations in appendix 2. A, left vomer in lateral view. B, left and right vomer in dorsal view. C, right vomer in lateral view. Abbreviations in appendix 2

FIG. 13 in Redescription of a Nearly Complete Skull of Plateosaurus (Dinosauria: Sauropodomorpha) from the Late Triassic of Trossingen (Germany)

FIG. 13. Left postorbital of Plateosaurus erlenbergiensis (AMNH FARB 6810). A, lateral; B, posterior; C, medial; D, anterior. Abbreviations in appendix 2.

FIG. 11 in Redescription of a Nearly Complete Skull of Plateosaurus (Dinosauria: Sauropodomorpha) from the Late Triassic of Trossingen (Germany)

FIG. 11. Left lacrimal of Plateosaurus erlenbergiensis (AMNH FARB 6810). A, dorsal; B, lateral; C, medial; D, ventral. Abbreviations in appendix 2.

FIG. 6 in Redescription of a Nearly Complete Skull of Plateosaurus (Dinosauria: Sauropodomorpha) from the Late Triassic of Trossingen (Germany)

FIG. 6. Right nasal of Plateosaurus erlenbergiensis (AMNH FARB 6810). A, lateral; B, dorsal; C, medial; D, ventral. Abbreviations in appendix 2.

opencc-by-4.0May 2010View details →

Figure 3 in A New Cormorant-like Bird (Aves: Phalacrocoracoidea) from the Early Miocene of Rauscheröd (Southern Germany)

Figure 3.?Borvocarbo tardatus n.sp. from the Early Miocene of Rauscheröd, left ulna (BSPG 1990 IV 17, paratype) in (A) cranial, (B) ventral, (C) caudal and (D) dorsal aspects, and right radius (BSPG 1990 IV 18, paratype) in (E) proximal, (F) ventral and (G) caudal aspects. Grey-shaded areas indicate damages.

opencc-by-4.0May 2010View details →

Figure 2 in A New Cormorant-like Bird (Aves: Phalacrocoracoidea) from the Early Miocene of Rauscheröd (Southern Germany)

Figure 2.?Borvocarbo tardatus n.sp. from the Early Miocene of Rauscheröd, left tibiotarsus (BSPG 1990 IV 16, holotype) in (A) caudal, (B) medial, (C) cranial, (D) lateral and (E) proximal, (F) distal aspects. Grey-shaded areas indicate damages.