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Does ring current heating generate the observed O+ shell?: Numerical information for the figures
<p>This archive contains data files needed to reproduce selected figures from the following manuscript:</p> <p>Does ring current heating generate the observed O+ shell?<br> by J. Krall, J. D. Huba, and M.-C. Fok</p> <p>This manuscript was submitted to Geophyscial Research Letters in April, 2020</p> <p>In addition, this archive contains CIMI code output giving Coulomb heating losses from the ring current<br> and a SAMI3 subroutine that describes the heating function used to mimic ring current heating.</p>
Network analysis reflects the trophic relationship between microbial colonizers and deadwood resources - supporting information
<p>Supporting tables S2 - S5 of "Network analysis reflects the trophic relationship between microbial colonizers and deadwood resources".</p> <p>The file Table_Legends_S2-S5.txt contains all legends, as given below:</p> <p>Table S2: Module-associated trees and OTUs, their relative abundances and identities for the fungal sapwood network; module – name of the module, present – proportion of network version that the OTU is present in (1 = 1000/1000), inBestModule – proportion of the network versions where the OTU is associated with the respective module, percInBestModule – proportion of the network versions where the OTU is associated with the respective module provided that the OTU is part of the network (= inBestModule/present), meanAbundanceModuleSamples – mean relative abundance of the OTU in all samples belonging to the module, meanAbundanceOtherSamples – mean relative abundance of the OTU in all other samples, relAbundanceModuleSamplesVsOthers – meanAbundanceModuleSamples / meanAbundanceOtherSamples .</p> <p>Table S3: Module-associated trees and OTUs, their relative abundances and identities for the fungal heartwood network; module – name of the module, present – proportion of network version that the OTU is present in (1 = 1000/1000), inBestModule – proportion of the network versions where the OTU is associated with the respective module, percInBestModule – proportion of the network versions where the OTU is associated with the respective module provided that the OTU is part of the network (= inBestModule/present), meanAbundanceModuleSamples – mean relative abundance of the OTU in all samples belonging to the module, meanAbundanceOtherSamples – mean relative abundance of the OTU in all other samples, relAbundanceModuleSamplesVsOthers – meanAbundanceModuleSamples / meanAbundanceOtherSamples .</p> <p>Table S4: Module-associated trees and OTUs, their relative abundances and identities for the prokaryotic sapwood network; module – name of the module, present – proportion of network version that the OTU is present in (1 = 1000/1000), inBestModule – proportion of the network versions where the OTU is associated with the respective module, percInBestModule – proportion of the network versions where the OTU is associated with the respective module provided that the OTU is part of the network (= inBestModule/present), meanAbundanceModuleSamples – mean relative abundance of the OTU in all samples belonging to the module, meanAbundanceOtherSamples – mean relative abundance of the OTU in all other samples, relAbundanceModuleSamplesVsOthers – meanAbundanceModuleSamples / meanAbundanceOtherSamples .</p> <p>Table S5: Module-associated trees and OTUs, their relative abundances and identities for the prokaryotic heartwood network; module – name of the module, present – proportion of network version that the OTU is present in (1 = 1000/1000), inBestModule – proportion of the network versions where the OTU is associated with the respective module, percInBestModule – proportion of the network versions where the OTU is associated with the respective module provided that the OTU is part of the network (= inBestModule/present), meanAbundanceModuleSamples – mean relative abundance of the OTU in all samples belonging to the module, meanAbundanceOtherSamples – mean relative abundance of the OTU in all other samples, relAbundanceModuleSamplesVsOthers – meanAbundanceModuleSamples / meanAbundanceOtherSamples .</p>
Information Leaks in Federated Learning
<p>With the surge in data collection and analytics, concerns are raised with regards to the privacy of the individuals represented by the data. In settings where the data is distributed over several data holders, federated learning offers an alternative to learn from the data without the need to centralize it in the first place. This is achieved by exchanging only model parameters learned locally at each data holder. This greatly limits the amount of data to be transferred, reduces the impact of data breaches, and helps to preserve the individual’s privacy. Federated learning thus becomes a viable alternative in IoT and Edge Computing settings, especially if the data collected is sensitive.</p> <p>However, risks for data or information leaks still persist, if information can be inferred from the models exchanged. This can e.g. be in the form of membership inference attacks. In this paper, we investigate how successful such attacks are in the setting of sequential federated learning. The cyclic nature of model learning and exchange might enable attackers with more information to observe the dynamics of the learning process, and thus perform a more powerful attack.</p> <p> </p>
GeoCoV19: A Dataset of Hundreds of Millions of Multilingual COVID-19 Tweets with Location Information
<p>We present GeoCoV19, a large-scale Twitter dataset related to the ongoing COVID-19 pandemic. The dataset has been collected over a period of 90 days from February 1 to May 1, 2020 and consists of more than 524 million multilingual tweets. As the geolocation information is essential for many tasks such as disease tracking and surveillance, we employed a gazetteer-based approach to extract toponyms from user location and tweet content to derive their geolocation information using the Nominatim (Open Street Maps) data at different geolocation granularity levels. In terms of geographical coverage, the dataset spans over 218 countries and 47K cities in the world. The tweets in the dataset are from more than 43 million Twitter users, including around 209K verified accounts. These users posted tweets in 62 different languages.</p>
Approach of concepts of public opinion, communication and information
<p>The general accepted definition of public opinion is that it can describe the attitudes held by a significant number of people on matters of government and politics, thus public opinion plays an important role in the political sphere.</p> <p>https://www.youtube.com/watch?v=nk7zXuuuuNQ&feature=youtu.be </p>
Figure 15 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 15. Distribution map: Ascogaster brevivena sp. nov., grey circle; Ascogaster ferruginegaster sp. nov., black triangle; Ascogaster prolixogaster sp. nov., grey triangle; Ascogaster rubriscapa sp. nov., black square.
Figure 13 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 13. Phanerotoma nigriscapulata sp. nov.: (a) habitus, lateral, paratype, scale line = 1 mm; (b) head, anterior, holotype, scale line = 0.5 mm; (c) mesosoma, dorsal, paratype, scale line = 1 mm; (d) fore wing, paratype, scale line = 1 mm.
Figure 2 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 2. Tree resulting from the Bayesian phylogenetic analysis of the COI data for the genus Ascogaster. Numbers on branches show posterior probabilities. Abbreviations: (a) PTP analysis; (b) GMYC (single); (c) GMYC (multi); (d) morphology.
Figure 3 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 3. Tree resulting from the Bayesian phylogenetic analysis of the COI data for the genus Phanerotoma. Numbers on branches show posterior probabilities. Abbreviations: (a) PTP analysis; (b) GMYC (single); (c) GMYC (multi); (d) morphology.
Figure 10 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 10. Phanerotoma bushblitz sp. nov.: (a) habitus, lateral, holotype, scale line = 1 mm; (b) head, anterior view, paratype, scale line = 0.5 mm; (c) metasoma, dorsal, paratype, scale line = 1 mm; (d) fore wing, paratype, scale line = 1 mm.
Figure 6 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 6. Ascogaster prolixogaster sp. nov.: (a) habitus, lateral, holotype, scale line = 1 mm; (b) head, anterior, holotype, scale line = 0.5 mm; (c) metasoma, dorsal, holotype, scale line = 1 mm, metasomal teeth arrowed; (d) fore wing, paratype, scale line = 1 mm.
Figure 8. Phanerotoma behriae Zettel, 1988a in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 8. Phanerotoma behriae Zettel, 1988a: (a) habitus, lateral, holotype, scale line = 1 mm, inset type label; (b) head, anterior, holotype, scale line = 0.5 mm; (c) head, dorsal, holotype, scale line = 1 mm; (d) metasoma, dorsal, holotype, scale line = 1 mm; (e) fore wing, other material, scale line = 1 mm.
Figure 4 in New species of Australian arid zone chelonine wasps from the genera Phanerotoma and Ascogaster (Hymenoptera: Braconidae) informed by the 'Bush Blitz' surveys of national reserves
Figure 4. Ascogaster brevivena sp. nov.: (a) habitus, lateral, holotype, scale line = 1 mm; (b) mesosoma and metasoma, dorsal view, holotype, scale line = 1 mm; (c) head, dorsal, holotype, scale line = 0.5 mm; (d) head, anterior, holotype, scale line = 0.5 mm; (e) fore wing, paratype, scale line = 0.5 mm.
Video: Crashkurs Digitale Langzeitarchivierung - Das Referenzmodell Open Archival Information System (OAIS)
<p>Dieser Crashkurs stellt das Referenzmodell Open Archival Information System (OAIS) vor, das die verschiedenen Tätigkeitsbereiche eines Langzeitarchivs beschreibt. Als internationaler Standard (ISO 14721) bietet das OAIS-Modell eine Kommunikationsgrundlage zum Thema der Digitalen Langzeitarchivierung. So sind zentrale OAIS-Begriffe wie Preservation Planning, Archival Information Package und Designated Community in der Langzeitarchivierungs-Community etabliert.</p> <p>In dieser Einführung werden die Aufgaben eines Digitalen Langzeitarchivs anhand der verschiedenen OAIS-Funktionseinheiten beschrieben. Ebenso bietet der Crashkurs einen Überblick über die verschiedenen Verarbeitungsstadien von Informationspaketen (SIP, AIP, DIP) in einem Langzeitarchiv.</p> <p>Dieser Crashkurs wurde als Lehrvideo für das Teil-Modul "Digitale Langzeitarchivierung" des <a href="https://www.th-koeln.de/weiterbildung/zertifikatskurs-data-librarian_63393.php">Zertifikatskurses "Data Librarian"</a> erstellt. Der Zertifikatskurs wurde 2019/2020 vom Zentrum für Bibliotheks- und Informationswissenschaftliche Weiterbildung der Technischen Hochschule Köln unter wissenschaftlicher Leitung von Prof. Dr. Konrad Förstner ausgerichtet.</p>
Data for The impact of information about tobacco-related reproductive vs. general health risks on South Indian women's tobacco use decisions
<p>Tobacco Intervention Study Mysore India March-April 2016</p> <p>Published version: <a href="https://doi.org/10.1017/ehs.2020.61">https://doi.org/10.1017/ehs.2020.61</a></p>
Figure 9 in Descriptions of Pelodera scrofulata sp. nov. and Pelodera aligarhensis sp. nov. (Nematoda: Rhabditidae) with supplementary information on Pelodera teres (Schneider, 1866).
Figure 9. Pelodera teres (Schneider, 1866). (A–E) Anterior end (A and B, scanning electron micrographs); (F) anterior pharyngeal region (lateral); (G) posterior pharyngeal region (lateral); (H) posterior intestinal region; (I) anterior genital branch; (J, K) uterine region with embryonating eggs; (L) vulval region (lateral); (M) vulval region (Ventral); (N) female posterior region (lateral); (O–Q) male posterior region (lateral) (Q is scanning electron micrograph); (R) male posterior region (ventral) (R is scanning electron micrograph). Scale bars: 10 μm.
Figure 7 in Descriptions of Pelodera scrofulata sp. nov. and Pelodera aligarhensis sp. nov. (Nematoda: Rhabditidae) with supplementary information on Pelodera teres (Schneider, 1866).
Figure 7. Pelodera aligarhensis sp. nov. male. (A–C) Anterior end (A is scanning electron micrograph); (D) anterior pharyngeal region (lateral); (E) posterior pharyngeal region (lateral); (F) male genital tract at level of ejaculatory gland (ventral); (G) posterior region (lateral); (H–J) tail end showing bursa and genital papillae (lateral) (J is scanning electron micrograph); (K–N) Tail end showing bursa and genital papillae (ventral) (K is scanning electron micrograph). Scale bars: 10 μm.
Figure 8 in Descriptions of Pelodera scrofulata sp. nov. and Pelodera aligarhensis sp. nov. (Nematoda: Rhabditidae) with supplementary information on Pelodera teres (Schneider, 1866).
Figure 8. Cluster analysis (complete linkage) showing relationship between species of Pelodera (coarctata-group) based on morphological data.
Figure 4 in Descriptions of Pelodera scrofulata sp. nov. and Pelodera aligarhensis sp. nov. (Nematoda: Rhabditidae) with supplementary information on Pelodera teres (Schneider, 1866).
Figure 4. Cluster analysis (complete linkage) showing relationship between species of Pelodera (strongyloides-group) based on morphological data.
Figure 1 in Descriptions of Pelodera scrofulata sp. nov. and Pelodera aligarhensis sp. nov. (Nematoda: Rhabditidae) with supplementary information on Pelodera teres (Schneider, 1866).
Figure 1. Pelodera scrofulata sp. nov. (all lateral) (A) Entire female; (B) entire male; (C) female anterior end; (D) female pharyngeal region; (E) female reproductive system; (F) female tail region; (G) male tail region.
ScienceDex guides
Understand access before you commit
These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.