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997 results for “AWARENESS”
Pythia Generated Jet Images with Alternative Rotation Scheme for Location Aware Generative Adversarial Network Training
<p>Dataset containing 300k jet images that can be used to train Location Aware Generative Adversarial Networks (LAGAN) for High Energy Physics, such as the one in [arXiv:1701.05927].</p> <p><strong>Format</strong>:</p> <p>HDF5 file with the following fields:</p> <ul> <li>'image' : array of dim (300000, 25, 25), contains the pixel intensities of each 25x25 image</li> <li>'signal' : binary array to identify signal (1, i.e. W boson) vs background (0, i.e. QCD)</li> <li>'jet_eta': eta coordinate per jet</li> <li>'jet_phi': phi coordinate per jet</li> <li>'jet_mass': mass per jet</li> <li>'jet_pt': transverse momentum per jet</li> <li>'jet_delta_R': distance between leading and subleading subjets if 2 subjets present, else 0</li> <li>'tau_1', 'tau_2', 'tau_3': substructure variables per jet (a.k.a. n-subjettiness, where n=1, 2, 3)</li> <li>'tau_21': tau<sub>2</sub>/tau<sub>1</sub> per jet</li> <li>'tau_32': tau<sub>3</sub>/tau<sub>2</sub> per jet</li> </ul> <p><strong>Details</strong>:</p> <ul> <li>Simulated using Pythia 8.219 at √ s = 14 TeV</li> <li>Image pre-processing using method from in L. de Oliveira et al., <em>Jet-Images -- Deep Learning Edition </em>[arXiv:1511.05190]</li> <li>scikit-image==0.10.0 implementation of cubic spline rotation with fewer low energy artifacts than scikit-image>=0.12.0</li> <li>Finite calorimeter granularity simulated with 0.1×0.1 grid in η and φ, with η × φ ∈ [−1.25, 1.25] × [−1.25, 1.25]</li> <li>Jet clustering with anti-k<sub>t</sub> algorithm with a radius R = 1.0 using FastJet 3.2.1; constituent re-clustering into R = 0.3 k<sub>t</sub> subjets</li> <li>Intensity of pixel = p<sub>T</sub> of cell</li> <li>60 GeV < m<sup>jet</sup> < 100 GeV</li> <li>250 GeV < p<sub>T</sub><sup>jet</sup> < 300 GeV</li> <li>Sparse images (~10% NNZ)</li> </ul> <p>Full dataset description in [arXiv:1701.05927].</p>
MaDroid: A Maliciousness-aware Multifeatured Dataset for Detecting Android Malware
<p>MaDroid is a maliciousness-aware multifeatured dataset of system calls focused on APK anomaly detection. The dataset includes 50,429 well-marked normal and abnormal system call sequences, with 24,789 and 25,640 sets of normal and abnormal sequences, respectively, for a total of 1.1 billion system call feature information. Each APK is labeled with the latest VT checksum information, and the sequence data includes 81 groups of system calls, system call parameters, and return values. The size of the whole dataset is 457 GB (19 GB after compression), including 236 GB of malicious system call sequence data. The APKs from which the system call feature sequences are derived cover mobile apps of different types released at different times in the past 14 years (2010-2023), covering 10 mainstream app markets, including Google Play, PlayDrone, Anzhi, etc. The APKs are also used as the source of the system call feature sequences, and the system call sequence data is used as the source of the APKs. anzhi, etc. We store the source code and dataset in two open platforms, GitHub and Zenodo, respectively.</p><h2>DataSet</h2><p>Release address: <a href="http://doi.org/10.5281/zenodo.7997398">http://doi.org/10.5281/zenodo.7997398</a></p><ul><li>The dataset consists of two classifications, Normal and Malware, with a total of 21 zip files. The installation files of each sequence come from 10 application markets such as Google Play, PlayDrone, Anzhi, etc. The Malware classification contains information about the running system call sequences of some APKs in the Drebin dataset.</li><li>RF, MLP and GBDT models were used to establish benchmarks for the dataset, the use of the models can be found in the source code.</li><li>The file `merge_all_csv_count_online_check_replenish.csv` is the dataset APK information. We provide APK name (SHA256 name for APK only), classification, APK capacity, number of sequences, log capacity, CVT, OVT value, check time, etc.</li></ul><h2>Source Code</h2><p>Release address: <a href="https://github.com/HNUSystemsLab/MaDroid">https://github.com/HNUSystemsLab/MaDroid</a></p><ul><li>The released source code contains two folders, `Source_Code` and `ml_metadata`. Where `Source_Code` is the automated framework for data collection, the tool chain and some notes on the structure of the source files. `ml_metadata` contains the metadata used for machine learning, the partitioned data on which the article builds its benchmark.</li><li>The automation framework is described in detail in the `Readme.md` document in the `Source_Code` directory. It consists of four main parts: environment requirements, program structure, quick start (working steps), model training and evaluation (including training and evaluation). It describes in detail the preparation of the environment, the data import method, the functional description of each file in the source code directory, the working principle of model training and evaluation, and other related contents.</li></ul><h2>Tips: </h2><ul><li>MAS is another name of MaDroid, the content shown here is the final version of "Readme.md".</li><li>A Large-scale Multi-feature Dataset for Anomaly Detection of Mobile Applications, which is the name of the document during our experiment.</li></ul>
Dataset of "Towards Artefact Aware Human Motion Capture using Inertial Sensors Integrated into Loose Clothing"
<p>This dataset was used in the publication:<br> <strong>Towards Artefact Aware Human Motion Capture using Inertial Sensors Integrated into Loose Clothing</strong><br> presented at the IEEE International Conference on Robotics and Automation 2022</p> <p><strong>Abstract:</strong><br> Inertial motion capture has become an attractive alternative to optical motion capture for human joint angle estimation outside the laboratory. Usually inertial sensors are assumed to be tightly fixed to the body segments, which can be cumbersome regarding setup-time and ease-of-use. However, integrating the sensors directly into clothing, usually, results in additional clothing motion relative to the motion of the underlying bones that should be captured.<br> In this work we propose the <em>Difference Mapping</em> distributions approach that corrects the segment orientations of a given inertial motion capture system that assumes tightly coupled sensors.<br> The approach allows to reduce the joint angle errors due to clothing artefacts by at least 77.2 percent for people with similar morphology performing a similar task as seen in the training data, including an ergonomic assessments scenario at work places with 10 participants. <br> Moreover, we show that the uncertainty of the distribution can be used to measure the reliability of the predicted map if e.g. the motion is further away from the training data to allow for an artefact aware inertial motion tracking approach.<br> The experimental data for this study is available online</p> <p> </p> <p><strong>Data structure:</strong><br> The data contains trials of 12 subjects for different motions, wearing at the same time a tight setup with inertial sensors and a loose working suit with integrated inertial sensors. It contains the raw IMU data, raw Magnetometer data and the estimated segment orientations using a Sensor Fusion engine provided by Sci-Track.<br> Please note, that in the publication only the first 10 subjects were used and the upper body information was used only. The Sternum sensor of the tight setup of subjects 11, 12 and 13 tilted slowly during the long-term measurements. For this reason only 10 subjects were included in the study. However all remaining sensor of the tight setup were not tilted during recording. In particular the lower body recordings of all subjects are not corrupted.<br> <br> Code samples, a visualizer and further useful information is provided under the following git repository:<br> https://github.com/lorenzcsunikl/Dataset-of-Artefact-Aware-Human-Motion-Capture-using-Inertial-Sensors-Integrated-into-Loose-Clothing</p>
Dataset supplementing Schütz, I. & Einhäuser, W. (2018) Visual awareness in binocular rivalry modulates induced pupil fluctuations.
<p>This dataset supplements the publication:</p> <p>Schütz, I. & Einhäuser, W. (2018). Visual awareness in binocular rivalry modulates induced pupil fluctuations.</p> <p><br> Raw data are available in two formats: the actual raw EDF data files as returned by the eyetracking device (*.edf) for reference, and as MATLAB files into which all relevant information has been extracted (*.mat) for analysis.</p> <p>Variables in the pft_*.mat files include<br> - raw eye position in the variable scan (t,x,y,p), where t is the timestamp of the eyetracker, x/y the position on the screen and p the pupil diameter in arbitrary units<br> - fixation, saccade and blink events in variables fix, sac and blink<br> - raw button presses in cell arrays buttonDn and buttonUp (6 - left button, 7 - right button) including timestamps<br> - stimulus presentation cycle timestamps in the variable stimperiod<br> - timestamps for auditory attentional instruction in the variable attends</p> <p>For analysis, data from all participants and sessions is imported into pftdata.mat, where it is stored in cell arrays of the format "samples{subject_no, condition}".</p> <p><br> Data Files<br> ==========</p> <p>- rawdata.zip<br> - rawdata/*.edf: raw EyeLink 2000 EDF data files<br> - rawdata/*.mat: EyeLink data converted to MATLAB data file</p> <p>- analysis.zip<br> - pftdata.mat: preprocessed eye tracking and response data for analysis<br> - face.png, house.png: stimulus images used for the experiment<br> - resp_anova.csv: response data for ANOVA (generated by preprocessing.m)<br> - fig4_anova.csv: complex plane data for R T-Test (generated by figure4_complex_plane.m)<br> - analysis code files, see below</p> <p><br> Analysis Functions<br> ==================</p> <p>Run the following functions in the listed order to reproduce figures and data in results/.</p> <p>- preprocessing.m:<br> - convert EDF data files to ASCII using SR-Research edf2asc, import into MATLAB<br> - remove EyeLink detected blinks and interpolate (cubic spline)<br> - z-score pupil data within each experimental block<br> - add button press / reported percept to sample data<br> - save response data for RM-ANOVA in R</p> <p>- figure1_methods.m:<br> - recreates Figure 1 (stimulus figure from images)</p> <p>- figure2_example_plot.m:<br> - recreate Figure 2 (example data from one participant)</p> <p>- figure3_averaged_response.m<br> - recreates Figure 2 (averaged F1 FFT component by condition)</p> <p>- figure4_complex_plane.m:<br> - recreates Figure 4 (complex plane analysis of pupil response)</p> <p>- stats_auc_decoding.m:<br> - moment-by-moment decoding analysis using AUC<br> - recreates stats_AUC.txt</p> <p>- pft_statistics.R:<br> - R statistics, recreates stats_responses.txt and stats_Zvalues.txt</p> <p><br> Output Files<br> ============</p> <p>results/<br> - Paper Figures (not layouted): figure1.tif, figure2.png, figure3.png, figure4.png<br> - stats_responses.txt: behavioral analyses results,<br> - stats_Zvalues.txt: complex plane analysis results<br> - stats_AUC.txt: moment-by-moment AUC decoding results</p> <p> </p>
Mitigating Network Noise on Dragonfly Networks through Application-Aware Routing (code, data and scripts to reproduce paper results)
<p>This repository contains the data, code, and scripts required to reproduce the results of the paper "Mitigating Network Noise on Dragonfly Networks through Application-Aware Routing" by Daniele De Sensi, Salvatore Di Girolamo and Torsten Hoefler, presented at the 2019 International Conference for High Performance Computing, Networking, Storage, and Analysis. </p> <p>This repository does not contains the code of the library used to automatically tune the routing algorithm, which can be found at http://doi.org/10.5281/zenodo.3372785</p>
Terrasar measurement data of "Sar Super-Resolution Using Physics-Aware Adaptive Compressed Sensing"
<p>This data set was used to test of the method described in "Sar Super-Resolution Using Physics-Aware Adaptive Compressed Sensing". It consists of the related Terrasar data and a MATLAB file to import the data into MATLAB.</p>
Raw data for Infrastructure and Awareness Landscape Analysis in Latin America
<p>Persistent Identifiers (PIDs), such as Digital Object Identifiers (DOIs), are foundational to connecting and enhancing the visibility of Latin American research within a global framework. Although the region is rich in diverse and impactful research, many repositories remain only partially integrated into international registries and aggregators, limiting their discoverability and reach. The adoption of PIDs across repositories in Latin America varies widely, underscoring the need for increased awareness about the role of open PIDs in advancing research accessibility and visibility.</p> <p>This dataset offers a comprehensive overview of the current landscape of repositories, publishing systems, and Open Science policies across Latin America, shedding light on the institutional and national efforts that support an open and inclusive research infrastructure. It highlights the importance of collaboration among researchers, institutions, funders, librarians, and government agencies in fostering Open Science practices and encouraging strategic PID adoption. By expanding these open practices and strengthening PID adoption, Latin American research can achieve greater integration and impact within the global research ecosystem.</p> <p>You can read the full report titled "Infrastructure and Awareness Landscape Analysis in Latin America" at <a href="https://doi.org/10.5281/zenodo.14010858" target="_blank" rel="noopener">https://doi.org/10.5281/zenodo.14010858</a> </p>
Trajectory-Aware Rate Adaptation for Aerial Networks Simulation Results
<p><strong>Introduction</strong></p> <p>Even though the concept of ubiquitous wireless connectivity is becoming a reality, there are scenarios where wireless communications coverage is insufficient or does not exist. Considering natural and man-made disaster scenarios, communications infrastructures may be damaged and become unavailable. In temporary crowded events, the existing infrastructure may not have been designed to cope with the additional traffic demand, resulting in overload. In maritime scenarios, environmental monitoring activities using autonomous vehicles will take place in offshore zones, typically not in range of existing onshore communications infrastructures.</p> <p>Flying networks, composed of Unmanned Aerial Vehicles (UAV), are emerging as a flexible and cost-effective solution to provide on-demand wireless connectivity in such scenarios. UAVs have the possibility to operate virtually everywhere, and the growing payload capacity makes them suitable platforms to carry wireless communications hardware, playing the role of mobile base stations, access points or relay nodes. A flying network may typically be composed of a fleet of UAVs, organized in a multi-tier topology with so-called Flying Edge Nodes (FENs) and Flying Gateways (FGWs) <a href="https://doi.org/10.1016/j.adhoc.2022.103000">[1]</a>. FENs can play the role of Flying Access Points that provide the access network to the users on the ground, or the role of Flying Sensor Nodes that can perform video surveillance missions. The FENs forward the traffic to the FGWs, that act as relay nodes and are responsible for forwarding the traffic to/from the backhaul (BKH) network and ultimately to/from the Internet.</p> <p>The flying network concept brings up new challenges. The flying nodes need to be properly positioned and their wireless link configuration dynamically adjusted in order to ensure the Quality of Service (QoS) expected by the end users. In addition, these scenarios are typically highly unpredictable due to the varying locations as well as the concentration/dispersion of end-users and their movements regarding direction and velocity - e.g., vehicles or pedestrians. Therefore, a static wireless link configuration and UAV positioning are not adequate. State of the art work has been mainly focused on the optimal positioning of the flying nodes, having most of the wireless link parameters statically configured with default values. The Rate Adaptation challenge is well-known in fixed or low mobility IEEE 802.11 networks, and Minstrel High Throughput (HT) <a href="https://lwn.net/Articles/376765">[2]</a> is the default Wi-Fi rate adaptation algorithm used in the Linux kernel since the IEEE 802.11n version. However, few works propose solutions designed to consider the characteristics of other communications environments, such as flying and vehicular networks <a href="https://doi.org/10.1007/s11276-020-02295-2">[3]</a>. To the best of our knowledge, solutions that use the node trajectory information to predict the wireless channel conditions and perform rate adaptation are yet to be developed.</p> <p>The main contribution of this paper is the Trajectory-Aware Rate Adaptation (TARA) algorithm. TARA takes advantage of knowing the trajectory of all nodes in the flying network to estimate future changes in the wireless link quality and perform rate adaptation accordingly. The network performance improvement achieved with TARA was evaluated using ns-3 <a href="https://doi.org/10.1007/978-3-642-12331-3_2">[4]</a>. The simulation results presented in this dataset show significant throughput gains when compared with conventional rate adaptation algorithms.</p> <p><strong>Folder Organization</strong></p> <p>The following dataset presents the results of the TARA Paper, organized in different folders for each Rate Adaptation Algorithm, as well as the random seeds that were used to obtain such results:</p> <p><strong>Naming Convention:</strong></p> <ul> <li>Rate Adaptation Algorithm<strong> </strong> <ul> <li><strong>tara </strong>– Trajectory-Aware Rate Adaptation</li> <li><strong>min </strong>– MinstrelHTWifiManager</li> <li><strong>id </strong>– IdealWifiManager</li> </ul> </li> </ul> <p><strong>Folder Content: </strong></p> <ul> <li><em>distances.csv - </em><strong>Distances between nodes</strong> <ul> <li>Column 1 – <strong>Simulation Time </strong>(seconds)</li> <li>Column 2 – <strong>Distance between BKH and FGW</strong> (meters)</li> <li>Column 3 – <strong>Distance between FEN and FGW </strong>(meters)</li> </ul> </li> <li><em>positions.csv</em> <em>- </em><strong>Current 3D position of nodes</strong> <ul> <li>Column 1 – <strong>Simulation Time </strong>(seconds)</li> <li>Column 2 – <strong>BKH x </strong>(meters)</li> <li>Column 3 – <strong>BKH y </strong>(meters)</li> <li>Column 4 – <strong>BKH z </strong>(meters)</li> <li>Column 5 – <strong>FEN x </strong>(meters)</li> <li>Column 6 – <strong>FEN y </strong>(meters)</li> <li>Column 7 – <strong>FEN z </strong>(meters)</li> <li>Column 8 – <strong>FGW x </strong>(meters)</li> <li>Column 9 – <strong>FGW y </strong>(meters)</li> <li>Column 10 – <strong>FGW z </strong>(meters)</li> </ul> </li> <li><em>throughput.csv</em> - <strong>Link Specific Throughput, at MAC layer level</strong> <ul> <li>Column 1 – <strong>Simulation Time </strong>(seconds)</li> <li>Column 2 – <strong>Relay Link (BKH - FGW), Throughput measured in BKH </strong>(Mbit/second)</li> <li>Column 3 – <strong>Access Link (FEN - FGW), Throughput measured in FEN </strong>(Mbit/second)</li> <li>Column 4 – <strong>Relay Link (BKH - FGW), Throughput measured in FGW </strong>(Mbit/second)</li> <li>Column 5 – <strong>Access Link (FEN - FGW), Throughput measured in FGW </strong>(Mbit/second)</li> </ul> </li> </ul>
Awareness, treatment, and control among adults living with arterial hypertension or diabetes mellitus in two rural districts in Lesotho
<p>These are pseudo-anonymised data from the ComBaCaL survey and belong to the manuscript "Awareness, treatment, and control among adults living with arterial hypertension or diabetes mellitus in two rural districts in Lesotho". </p> <p>The data dictionary explains the critical data available in the dataset. Between November 2021 and August 2022 , 6061 participants over 18 years old were visited in their households in two districts of Lesotho. Of these, data from those who were diagnosed with either hypertension or diabetes were further analysed and are documented here.</p>
Culture-Aware Music Recommendation Dataset
<p><strong>LFM-1b dataset extended by acoustic track features and cultural cues describing users</strong></p> <p> </p> <p>This dataset is based on the LFM-1b dataset (cf. <a href="http://www.cp.jku.at/datasets/LFM-1b/">http://www.cp.jku.at/datasets/LFM-1b/</a>), however, adds acoustic features describing the tracks to the original dataset as well as cultural aspects describing users (taken from Hofstede's six dimension model and the World Happiness Report) on the country-level.</p> <p>For the creation of the dataset, we extract all users for which the original dataset contains country information for. We extract the listening events of these users and match the tracks against the Spotify API to subsequently retrieve the acoustic features of these tracks (cf. [Spotify Audio Feature Description](https://developer.spotify.com/documentation/web-api/reference/object-model/#audio-features-object)). The final dataset contains only events of users with country information and tracks with acoustic features, which can be matched with the country-level data of the World Happiness Report and Hofstede's cultural dimensions to add cultural and socio-economic aspects for users.</p> <p>This new dataset contains</p> <ul> <li>55,190 users</li> <li>3,471,884 tracks including acoustic features</li> <li>351,469,333 listening events of those users for tracks we have obtained acoustic features for</li> <li>Hofstede's cultural dimensions for 47 countries</li> <li>World Happiness Report (WHR) data for 164 countries</li> </ul> <p> </p> <p><strong>Files</strong><br> All files are tab-separated, with no quoting of strings. The dataset contains the following files, whose content we describe in more detail in the following parts.</p> <p>* acoustic_features_lfm_id.tsv: acoustic features for all tracks in the dataset, identified by their LFM track identifier<br> * events.tsv: listening events for all users<br> * hofstede.tsv: Hofstede's cultural dimensions<br> * users.tsv: user metadata<br> * world_happiness_report_2018.tsv: World Happiness Report data</p> <p>For further information on the contents of these files, please cf. the Readme file.</p> <p> </p> <p>Please cite the following paper when using the dataset:<br> Zangerle, E., Pichl, M. and Schedl, M., 2020. User Models for Culture-Aware Music Recommendation: Fusing Acoustic and Cultural Cues. <em>Transactions of the International Society for Music Information Retrieval</em>, 3(1), pp.1–16. DOI: <a href="http://doi.org/10.5334/tismir.37">http://doi.org/10.5334/tismir.37</a></p>
Awareness campaign video for local communities: Understanding and Preventing Rabies in the Menabe Region, Madagascar
<p>Cette courte vidéo est un outil utilisé pour la sensibilisation contre la rage. </p><p>Elle a été produite dans le cadre d'une recherche opération dans le sud ouest de Madagascar dans la région Menabe.</p><p>Elle présente en langue Malagasy, sous-titrée en Français:</p><p>- Ce qu'est la rage: la rage est une maladie due par une morsure d'un animal enragé ou le léchage de la plaie d'une personne par un animal enragé. Le chien est responsable de la rage dans près de 9 cas sur 10.</p><p>- actions à entreprendre à si une personne a été mordue par un chien</p><p>- les gestes à effectuer si une personne a été mordue par un chien</p><p>- elle insiste sur le fait que chez l'homme, la rage est traitable à 100% avant l'apparition du premier symptôme.</p><p>La vidéo est aussi disponible sur Youtube : </p><p><i>https://www.youtube.com/watch?v=RBK3Uywxszo&ab_channel=DaoudaKassi%C3%A9</i></p>
Context-Aware Activity Recognition in Logistics (CAARL) – A optical marker-based Motion Capture Dataset
<p><strong>CAARL </strong>is a freely accessible logistics-dataset for human activity recognition, which contains human movement and context information from two subjects. The context information includes the positions of objects such as two picking carts, a packaging table, different racks, a base and three entrances.</p> <p>In the ’Innovationlab Hybrid Services in Logistics’ at TU Dortmund University, two picking and one packing scenarios were recorded using an optical marker based motion capture system. Each subject and object is equipped with several markers. 140 minutes of human movements have been labelled and categorised into 8 activity classes and 19 binary coarse-semantic descriptions, also called attributes. The labelled human movements are synchronised with the context information. They have exactly the same sampling rate (same start and end).</p> <p>The oMoCap data is in csv format. Further formats (e.g. C3D) are available on request.</p> <p>CAARL is based on the set-up and scenarios of the LARa dataset, which contains only human movements. Information about LARa can be found in the dataset and the associated paper:</p> <ul> <li>Dataset: “Logistic Activity Recognition Challenge (LARa) – A Motion Capture and Inertial Measurement Dataset”, Zenodo 2020, DOI: <a href="https://doi.org/10.5281/zenodo.3862782">10.5281/zenodo.3862782</a></li> <li>Paper: “LARa: Creating a Dataset for Human Activity Recognition in Logistics Using Semantic Attributes”, Sensors 2020, DOI: <a href="https://doi.org/10.3390/s20154083">10.3390/s20154083</a></li> </ul> <p> </p> <p><strong>If you use the CAARL dataset for research, please cite the following paper: “Context-Aware Human Activity Recognition in Industrial Processes”, Sensors 2021, DOI: <a href="https://doi.org/10.3390/s22010134">10.3390/s22010134</a></strong></p>
Bayesian Online Learning for Energy-Aware Resource Orchestration in Virtualized RANs - Dataset
<p>Dataset providing a set of measurement of performance and power consumpetion of a virtualized Base Station (srseNB).</p>
Generated Data for the Manuscript "Nonideality-Aware Training for Accurate and Robust Low-Power Memristive Neural Networks"
<p>The file contains data generated and referred to in the text and the figures of the manuscript.</p>
Staff survey on awareness of gender bias in ATHENA RPOs and RFOs
<p>Task 2.3.1 from WP2 required the collection of data on awareness of gender bias to staff from the ATHENA RPOs and RFOs. An online survey was distributed among the staff of the ATHENA consortium institutions developing a gender equality plan (GEP). ATHENA institutions were requested that the sample was representative as much as possible, meaning this to consist proportionally of female/male, junior/senior positions and staff by occupations depending of the total staff composition in each institution.</p> <p>The aim of the staff survey is:</p> <ul> <li>To identify how aware are the respondents on gender equality in science and research institutions. </li> <li>To identify the biases/stereotypes related to the women´s and men´s role in science and research institutions.</li> <li>To identify gender imbalances and disadvantages in: <ul> <li>Recruitment and promotion,</li> <li>Gaining academic/scientific degree,</li> <li>Participation in decision making,</li> <li>Working conditions and workload,</li> <li>Work-life balance</li> <li>Experiences in harassment</li> </ul> </li> <li>The staff survey results will complement the results of the interviews and focus groups to provide a comprehensive picture of gender equality imbalances in the particular institution.</li> </ul> <p>The staff survey was realised through a standardised questionnaire developed by the WP2 coordinator (UVSK SAV) and approved by the Project Coordinator.</p> <p>The questionnaire consisted of 8 sections devoted to the particular gender areas- dimensions of interest:</p> <ul> <li>Introduction</li> <li>Information on the respondents ´current job</li> <li>Information of respondents´ background</li> <li>Opinions and perception of gender equality in research</li> <li>Recruitment and career development</li> <li>Striving for scientific/academic degree</li> <li>Gender balance in decision-making positions</li> <li>Workload and work-life balance</li> <li>Bulling and harassment</li> </ul> <p>Each section contained 4 – 8 closed and open questions. </p> <p>The results of the data served as support for the WP2 gender equality audit and assessment of procedures and practices at organizational level in D2.3 – Gender equality reports.</p>
Improving students' privacy awareness – Analysis of a pilot survey to design a VR environment for self-paced learning
<p>In this research, we measured the knowledge of students at the University of Debrecen in the field of data privacy awareness, online and password security.</p> <p><strong>Description</strong></p> <ul> <li>In the questionnaire, green-highlighted answer signs the correct answer to each question.</li> <li>Total data set contains the answers to each question and the respondent's age.</li> <li>Correct/incorrect data set contains information if the answer is correct to each question, and it also contains the respondent's age. One means the answer was correct, and zero means the answer was incorrect.</li> </ul>
Learned value modulates the access to visual awareness during continuous flash suppression
<p>Data from Experiment 1 and Experiment 2 are reported in separate files. </p> <p>Each line contains the mean suppression time of a target grating under continuous flash suppression expressed in seconds for one participant. </p> <p>Each column refers to a different condition:<br> HREV = visual stimuli associated with high monetary reward<br> LREV = visual stimuli associated with low monetary reward<br> base = baseline measurements before associative learning<br> P1 = first measurement after associative learning<br> P2 = second measurement after associative learning<br> P3 = third measurement after associative learning</p> <p>For experiment 1, a short (20 trials) associative learning recall session was performed between P1 and P2 and between P2 and P3.</p> <p> </p> <p> </p> <p> </p>
Fair Data Awareness Survey - Australia - 2017
<p>This record describes a survey around the awareness of the FAIR data principles, undertaken in Australia in 2017 by ANDS, Nectar and RDS. ANDS (Australian National Data Service), Nectar (National eResearch Collaboration Tools and Resources), and RDS (Research Data Services) are NCRIS facilities. NCRIS is an Australian Federal Government investment in research infrastructure. ANDS(ands.org.au), Nectar(nectar.org.au) and RDS(rds.edu.au) have integrated their work in line with proposals laid out in the NCRIS Roadmap (https://docs.education.gov.au/node/43736), early in 2017.</p> <p>The survey was conducted as a Google Form, and analysed in a 12 page report (see Summary of Full Results - attached). Results of the demographics and quantitative responses are shared attached to this record. The qualitative responses are not shared, for reasons of confidentiality.</p> <p><strong>Background (from Summary Report)</strong></p> <p>ANDS/RDS/Nectar undertook a baseline survey to assess level of awareness around FAIR in the research community at eResearch Australasia conference (Oct 2017) and through an online survey. The online survey was closed a few weeks later on 16.11.17. A list of questions is provided (see Are you FAIR aware? Google Form.pdf). There were 249 responses.</p>
Context-Aware 3D Object Anchoring for Mobile Robots Dataset
<p>This dataset accompanies the following publication:</p> <p>Günther, M.; Ruiz-Sarmiento, J. R.; Galindo, C.; González-Jiménez, J. & Hertzberg, J. <strong>Context-Aware 3D Object Anchoring for Mobile Robots.</strong> <em>Robot. Auton. Syst.</em>, 2018 (accepted)</p> <p>The dataset consists of 15 scenes inspected by a robot equipped with a RGB-D camera driving around a table and turning towards it from different locations. The table contained a number of objects in varying table settings. In total, the dataset contains 1387 seconds of observation and 144 unique objects from 9 categories:</p> <ul> <li>SugarPot</li> <li>MilkPot</li> <li>CoffeeJug</li> <li>MobilePhone</li> <li>Mug</li> <li>Dish</li> <li>Fork</li> <li>Knife</li> <li>Spoon</li> <li>TableSign</li> </ul> <p>Segmentation, tracking and local object recognition was run on the recorded sensor data, and its output (tracked objects and local recognition results) was added to the dataset. Since the objects were observed from multiple perspectives and tracking was lost while the robot was moving from one observation pose to another, the dataset contains more than one track ID for most objects (one for each subsequent observation of the object). Each track ID was manually labeled with the ground truth category of the object it represented. Additionally, all track IDs belonging to the same object were manually grouped together to allow evaluation of the anchoring process. Track IDs that did not correspond to any object on the table (but instead to objects on different tables, pieces of the table itself or other artifacts) were manually removed. In total, out of 432 track IDs, 410 (94.9 %) were associated with true objects, while 22 (5.1 %) were removed as artifacts.</p> <p><br> <strong>File contents</strong></p> <p>All data is provided as rosbags. The naming scheme is as follows:</p> <ul> <li>`*-sensordata.bag.bz2`: The raw sensor data from the robot and all transform data, including localization in a map.</li> <li>`*-perception.bag.bz2`: The object recognition results and ground truth information for the tracked objects.</li> <li>`scene??-pr2-*.bag.bz2`: 5 scenes that were recorded using the PR2 robot.</li> <li>`scene??-calvin-*.bag.bz2`: 10 scenes that were recorded using the Calvin robot.</li> </ul> <p>Both robots used an ASUS Xtion Pro Live as 3D camera.</p> <p>`race_vision_msgs.tar.bz2`: The custom messages used in the `-perception` rosbags, as a ROS Kinetic package.</p> <p><br> <strong>Videos</strong></p> <p>To get a first impression of the dataset, `scene10.mp4` and `scene19.mp4` show the corresponding scenes from the point of view of the robot's RGB camera.</p>
Context-Aware Dataset: STS - South Tyrol Suggests IoT Mobile App Data
<p><strong>STS dataset </strong>was collected by a context-aware recommender system mobile app named as<strong> <a href="https://play.google.com/store/apps/details?id=it.unibz.sts.android&hl=en">"South Tyrol Suggests"</a></strong>. The app provides <strong>context-aware recommendations</strong> for attractions, events, public services, restaurants, and much more based on the rating preferences and personality factors of users.</p> <p><strong>Contextual</strong> <strong>variables</strong> includes </p> <ul> <li><strong>distance:</strong> far away, near by</li> <li><strong>time available:</strong> half day, one day, more than one day</li> <li><strong>temperature:</strong> burning, hot, warm, cool, cold, freezing</li> <li><strong>crowdedness:</strong> crowded, not crowded, empty</li> <li><strong>knowledge of surroundings:</strong> new to area, returning visitor, citizen of the area</li> <li><strong>season:</strong> spring, summer, autumn, winter</li> <li><strong>budget:</strong> budget traveler, price for quality, high spender</li> <li><strong>daytime:</strong> morning, noon, afternoon, evening, night</li> <li><strong>weather:</strong> clear sky, sunny, cloudy, rainy, thunderstorm, snowing</li> <li><strong>companion:</strong> alone, with friends/colleagues, with family, with girlfriend/boyfriend, with children</li> <li><strong>mood:</strong> happy, sad, active, lazy weekday: weekday, weekend</li> <li><strong>travel goal:</strong> visiting friends, business, religion, health care, social event, education, scenic/landscape, hedonistic/fun, activity/sport</li> <li><strong>means of transport:</strong> no transportation means, a bicycle, a car, public transport</li> </ul> <p>More details can be found here:</p> <p><em>Braunhofer, Matthias, Mehdi Elahi, and Francesco Ricci. <a href="https://www.researchgate.net/profile/Mehdi_Elahi2/publication/283502363_Techniques_for_cold-starting_context-aware_mobile_recommender_systems_for_tourism/links/56ccaa7608ae059e37507cc0.pdf">"<strong>Techniques for cold-starting context-aware mobile recommender systems for tourism</strong>."</a> Intelligenza Artificiale 8, no. 2 (2014): 129-143.</em></p>
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.