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RDA’s Recently Endorsed Outputs September 16, 2015
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2 Introduction Data Foundation and Terminology Data Type Registries PID Information Types Practical Policy Questions Agenda
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Data Foundation and Terminology - Talking the Same Language – Peter Wittenburg, Gary Berg-Cross, Raphael Ritz
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4 What is the problem? Data organizations (DOrg) and ideas about it are all different We are all speaking different languages, wasting time and misunderstanding each other in any project involving data Different DOrgs make data discovery and integration very time consuming, inefficient and thus expensive Different DOrgs prevent us developing maintainable support software Who is impacted? All efforts to integrate data (Federations, BDA projects, etc.) What are the ramifications of not having the problem resolved? Combining data of all sorts across different origins (projects, repositories, disciplines, etc.) is a nightmare and requires a lot of curation and transformation before the actual scientific analysis can start Summary of the Problem
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5 Structure 60 members Almost all regions Different types of institutions and disciplines Skillsets ranged from relative newcomers up to members with much experience from data intensive projects Outputs List of core terms essential to harmonize conceptualization of data organizations Graphical model relating the terms Set of auxiliary documents including many use cases to demonstrate the bottom-up approach and research of the WG Term Tool (using Semantic Media Wiki) to store definitions and allow editing, classification and discussion of terms (which is also open for other groups) Highlights of Data Foundation and Terminology Working Group
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6 Active Contributors to the Work Institute/ProjectCountry/ RegionDomain CNRIUSIT Research and Systems U CardiffUKIT Research and Systems AWIDEOceanography & Environment MPGDEResearch Organisation EUDATEUData Infrastructure CLARINEULinguistic Research Infrastructure EPOSEUEarth Observation Res. Infrastructure ENESIntWorld Climate Res. Infrastructure ENVRIEUEnvironmental Res. Infrastructure DataOneUSEnvironmental Infrastructure ESSD/RENCIUSEarth Science System Data NCGEN/RENCIUSClinical Genomics EuropeanaEUHumanities Infrastructure DataCite/EPICIntPID Infrastructures DICEUSIT Research and Systems CASCNEarth Science Model ADCIRC/RENCIUSOcean and Storm modeling
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7 The European data infrastructure, EUDAT Federating data from many discipline repositories where each data collection has a different data organization. If integration is not simply done at physical level (file structures), this heterogeneity makes it very costly to integrate all data to enable re- purposing and to make it accessible at different repositories. The International CLARIN Project : According to the Technology Director: Very handy to have a lingua franca when discussing research infrastructure architectures. It was good to be involved as adopting community from the start of the work. Similar experiences from international colleagues who work on large scale data integration Harmonization greatly reduces integration time Impact of Outputs
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8 EUDAT, CLARIN and others with dramatic problems in data integration Approach aligned with the progress of the DFT Working Group discussion Their repository setups adhere now to the DFT model and interaction with different communities based on it The Digital Object, that is described by metadata, is associated with a Persistent ID and whose instances are stored in trustful repositories ( see simplified diagram ) Other projects (humanities, health, bioinformatics, neuroinformatics and atmosphere research) adopted these models and the terminology Endorsements/Adopters digital object bitstreamrepository persistent ID metadata isRepresentedBy isStoredIn isReferencedBy isDescribedBy isa
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9 Endorsements/Adopters Institute/ProjectCountry/ RegionDomain CNRIUSIT Research and Systems U CardiffUKIT Research and Systems MPGDEResearch Organisation EUDATEUData Infrastructure CLARINEULinguistic Research Infrastructure EPOSEUEarth Observation Res. Infrastructure ENESIntWorld Climate Res. Infrastructure ENVRIEUEnvironmental Res. Infrastructure ESSD/RENCIUSEarth Science System Data NCGEN/RENCIUSClinical Genomics DICEUSIT Research and Systems ADCIRC/RENCIUSOcean and Storm modeling Deep Carbon ProjectUSEnvironmental/Athmospheric Research Note: There may be more projects/institutes that have endoresed or adopted the DFT model without noticing us.
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10 Outputs are openly available to: Anyone who wants to run a project, including those with large data collections Organizations should be strictly compliant to the basic model to guarantee independence and thus easy re-purposing of all components Anyone who is working in a data federation project, integrating data from different sources, or wants to re-purpose data for data intensive science Projects could use the model as a common reference model to design transformations Projects could use the suggested terminology to achieve quick, mutual understanding Software developers, who can adopt the basic model to ensure their software can be used by almost everyone adhering to state of the art principles How You Can Endorse
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11 “Core Terms and Model” document available on website Provides the final model and corresponding terms that can be applied to your project Additional Resources Supplementary documents providing information on conceptualization and background for choices Contact the Working Group co-chairs via email or at upcoming plenary Contribute to the now functioning DFT Interest Group via email, wiki, Term Tool Send a request to the RDA Europe support team How to Access and Use Outputs
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12 Since Working Group focused only on the basic set of core terms, work needs to be continued Much more out there, in particular also in other RDA groups, where terminology harmonization would help substantially We also see the need to consider the dynamics of the field and to be ready to adapt current definitions and perhaps even the model A follow-up Data Foundation and Terminology Interest Group has been established and will meet at Plenary 6 Group is meeting at RDA’s 6 th Plenary in Paris next week A larger scope of integrated work is being discussed as part of the Data Fabric IG Next Steps
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13 DFT WG: https://rd-alliance.org/groups/data-foundation-and-terminology-wg.html DFT IG: https://rd-alliance.org/groups/data-foundations-and-terminology-ig.html TeD-T Term Definition Tool: http://smw-rda.esc.rzg.mpg.de/index.php/Main_Page RDA EU Support Team: dmp@europe.rd-alliance.org Contact Information
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14 DFT WG: https://rd-alliance.org/groups/data-foundation-and-terminology-wg.html DFT IG: https://rd-alliance.org/groups/data-foundations-and-terminology-ig.html TeD-T Term Definition Tool: http://smw-rda.esc.rzg.mpg.de/index.php/Main_Page RDA EU Support Team: dmp@europe.rd-alliance.org Contact Information
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Data Type Registries Larry Lannom, CNRI Daan Broeder, Meertens Institute, KNAW
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16 Data sharing requires that data can be parsed, understood, and reused by people and applications other than those that created the data How do we do this now? For documents – formats are enough, e.g., PDF, and then the document explains itself to humans This doesn’t work well with data – numbers are not self-explanatory What does the number 7 mean in cell B27? Data producers may not have explicitly specified certain details in the data: measurement units, coordinate systems, variable names, etc. Need a way to precisely characterize those assumptions such that they can be identified by humans and machines that were not closely involved in its creation Affects all data producers and consumers Summary of the Problem
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17 Evaluate and identify a few assumptions in data that can be codified and shared in order to… Produce a functioning Registry system that can easily be evaluated by organizations before adoption Highly configurable for changing scope of captured and shared assumptions depending on the domain or organization Supports several Type record dissemination variations Design for allowing federation between multiple Registry instances The emphasis is not on Identifying every possible assumption and data characteristic applicable for all domains Technology Goal of the DTR Effort: Explicate and Share Assumptions using Types and Type Registries
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18 Confirmation that detailed and precise data typing is a key consideration in data sharing and reuse and that a federated registry system for such types is highly desirable and needs to accommodate each community’s own requirements Deployment of a prototype registry implementing one potential data model, against which various use cases can be tested Involvement of multiple ongoing scientific data management efforts, across a variety of domains, in actively planning for and testing the use of data types and associated registries in their data management efforts Integration with one additional RDA WG (Persistent Identifier Types) and at least one Interest Group (RDA/CODATA Materials Data, Infrastructure & Interoperability IG) Development of a set of questions that require further consideration before a detailed recommendation on data typing can be issued Highlights of the Output
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19 Users Typed Data ID Type Payload ID Type Payload ID Type Payload ID Type Payload ID Type Payload ID Type Payload 10100 11010 101…. Visualization I Agree Terms:… Rights Services Data Processing Data Set Dissemination Client (process or people) encounters unknown data type.1 Resolved to Type Registry. 2 Response includes type definitions, relationships, properties, and possibly service pointers. Response can be used locally for processing, or, optionally 3 typed data or reference to typed data can be sent to service provider. 4 1 2 3 4 4 Impact of Use Case: Process Use Case Federated Set of Type Registries
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20 Materials Science Adoption Project Demo at RDA’s 6 th Plenary in Paris X-ray diffraction use case normalize data sets resulting from multiple proprietary instruments Enable a homogenous analysis platform for data consumers to perform their analyses Deep Carbon Observatory Goal: given a dataset identifier, discover detailed information about the structure(s) within that dataset, and act accordingly DTR is a registry used for explicating structures in the form of type records Facilitate norms of behavior relevant to data curation and re-use Digital Object Identifier Given a DOI, what services are relevant and applicable Having chosen a service, how can a client invoke that service? Having invoked a service, how can a client process the returned data? DOI, Materials Science, DCO, EUDAT Endorsements/Adopters
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21 Start a new prototype effort Follow existing prototype efforts Attend the BOF at P6 Join the Data Typing WG when it starts Try the public prototype at typeregistry.org How You Can Endorse
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22 A follow-up Working Group (WG) is planned: Data Typing Leverage results of Data Type Registries Working Group Collect results from multiple prototypes Best practices for federation Bird of a Feather session on Data Typing at RDA’s 6 th Plenary in Paris (24 Sept., Breakout #6) Proposed Chairs of Data Typing WG Giridhar Manepalli, CNRI Simon Cox, CSIRO Tobias Weigel, DKRZ Larry and Daan are still around Next Steps and Contact Information
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PID Information Types: Towards PID Interoperability Tobias Weigel (DKRZ / University of Hamburg) Tim DiLauro (Data Conservancy / Johns Hopkins University)
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24 Move from management of files towards management of objects How does object management scale with increasing numbers? How do we further automate our processes? Issues independent from particular disciplines, repositories, management approaches Understanding the most elemental characteristics of digital objects – for machine agents and human users Facilitate interoperability across PID systems and simplify PID record usage Avoid insular solutions and reiteration of efforts – open licenses Summary of the Problem IDENTIFIER
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25 More than 50 group members from EU/US/AU A lot of technical expertise and community experience Key Ouptuts (cf. summary report): Conceptual insights on types and their possible structures Practical type examples geared towards diverse use cases Openly licensed API specification and Java-based prototype Highlights of the Outputs IDENTIFIER size checksum timestamps aggregation version license format properties Size: Format: Checksum: Date: Size: Checksum: Format: License: Verification service
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26 Some initial types were registered in the TR prototype, making it possible to explore further applications Information on how to register new types available in the report Incited plans in communities and projects about concrete applications PIDs and typing increasingly seen as a crucial component to decouple management of objects from contents Simplify client access to data across domains, implementations and changes in information models More lightweight access to information on less accessible objects Impact of the Outputs
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27 Adopters can be: Communities who can use existing types and share custom types, as well as build tools and services that exploit them PID service providers who can offer a typing service as added value beyond registration and resolution, increasing PID interoperability Endorsements/Adopters AdopterCategoryCountryScope / Goal ENES/ESGFCommunityInt.Climate data management (CMIP6) DCO-DS/RPICommunityUSEnhancing existing PID usage EUDATCommunity/Service provider EUAdded-value service to various disciplinary communities MGI/NISTCommunityUSAutomation of data type conversions EPICService providerEU Generic added-value service CNRIService providerUS DONAService providerInt.
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28 Make use of existing type examples, invent your own types and please tell us about it! Follow-up RDA WGs on Collections and Data Typing will continue the work on concrete types. The PID Interest Group is also a good place to provide general feedback. Specification and prototype source code are openly available Possible development by EUDAT, DCO, ENES and others as interested adopters Offer by PID service providers as a service beyond registration and resolution Contribution to a unified type registry is encouraged How You Can Endorse
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29 PID Information Types WG https://rd-alliance.org/groups/pid-information-types-wg.html https://rd-alliance.org/groups/pid-information-types-wg.html PID Interest Group https://rd-alliance.org/groups/pid-interest-group.html https://rd-alliance.org/groups/pid-interest-group.html PID Collections candidate WG https://rd-alliance.org/groups/pid-collections-wg.html https://rd-alliance.org/groups/pid-collections-wg.html https://rd-alliance.org/pid-collections-p6-bof-session.html https://rd-alliance.org/pid-collections-p6-bof-session.html Data Typing BoF https://rd-alliance.org/data-typing-p6-bof-session.html https://rd-alliance.org/data-typing-p6-bof-session.html Next Steps and Contact Information
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Practical Policy Reagan Moore, Rainer Stotzka
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31 Summary of the Problem Computer actionable policies are used to enforce data management automate administrative tasks validate compliance with assessment criteria automate scientific data processing and analyses Users motivated by issues related to scale, distribution
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32 Practical Policy members represented 11 types of data management systems 30 institutions 2 testbeds iRODS Renaissance Computing Institute, DataNet Federation Consortium – DFC GPFS Institute of Physics of the Academy of Sciences, CESNET Garching Computing Centre – RZG Published two documents Moore, R., R. Stotzka, C. Cacciari, P. Benedikt, “Practical Policy Templates” February, 2015, http://dx.doi.org/10.15497/83E1B3F9-7E17-484A-A466- B3E5775121CC.http://dx.doi.org/10.15497/83E1B3F9-7E17-484A-A466- B3E5775121CC Moore, R., R. Stotzka, C. Cacciari, P. Benedikt, “Practical Policy Implementations”, February, 2015, http://dx.doi.org/10.15497/83E1B3F9-7E17-484A-A466- B3E5775121CC.http://dx.doi.org/10.15497/83E1B3F9-7E17-484A-A466- B3E5775121CC Policy Templates
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33 Computer actionable rules to enforce: Preservation standards Authenticity, integrity, chain of custody, arrangement Data management plans Collection creation, product generation, publication, storage, archives Data distribution Replication, content distribution network Publication Descriptive metadata, time dependent access controls Processing pipelines Workflow execution Production Environments
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34 Distributed data management environments EUDAT Data Policy Manager B2SAFE use case International Neuroinformatics Coordinating Facility Institut national de physique nucléaire et de physique des particules New Zealand BESTGRID DataNet Federation Consortium NSF data management plans Odum Institute preservation archive The iPlant Collaborative genomics data grid Science Observatory Network digital library SILS LifeTime Library HydroShare NOAA National Climatic Data Center NASA Center for Climate Simulations Endorsements/Adopters
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35 Policy-based collection management Purpose for assembling the collection Properties required to support the purpose Policies that control when and where the properties are enforced Procedures that execute operations controlled by the policies Persistent state information that is generated by the procedures Periodic assessment criteria that verify compliance RDA Publications Policy templates Constraints, operations, required state information Policy implementations Computer actionable rules to automate policy enforcement Applications
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36 Data Fabric Interest Group Policies to support Federation Interoperability Data Foundations and Terminology Interest Group Vocabulary for policy management Interoperability testbeds EUDAT http://eudat.eu/data-access-and-reuse-policies-darup http://eudat.eu/data-access-and-reuse-policies-darup National Data Service http://www.nationaldataservice.org http://www.nationaldataservice.org DataNet Federation Consortium http://datafed.org http://datafed.org Next Steps and Contact Information
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37 Thank you. Questions?
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