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The problems of research data management

The problems of research data management. From a scientist: “ For a software solution to succeed, it must: Make something possible that currently isn’t , or Make something easier that’s currently difficult ”. From a PI:

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The problems of research data management

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  1. The problems of research data management • From a scientist: • “For a software solution to succeed, it must: • Make something possible that currently isn’t, or • Make something easier that’s currently difficult” From a PI: “When a group member leaves, it can be extremely difficult to find out what they worked on” "Science these days has basically turned into a data management problem" From a PI (somewhat tongue-in-cheek): “Every four years we start to repeat what we’ve done before, because the people who knew have all left” From a scientist: “I just wrote a paper. It was 2 pages long . . . and had 150 pages of supporting information” One researcher spends more time finding information (6.5 hours per week) than processing it

  2. Characteristics of much biological research data • Bottom-up data flow, lacking central control • Many small research groups with diverse research topics • Distributed research activities and publication structures • Research data heterogeneous and may be poorly structured • Data collection costly in human resources • Data re-acquisition may be impossible, particularly for observational data • Datasets thus often have a high intrinsic value per bit • This stands in contrast to high-throughput sequencing or protein crystal structure determination • There data acquisition is capital-intensive, not labour-intensive • Raw data has low intrinsic value per bit • Re-acquisition becomes cheaper as capital costs fall • While much attention has been given to those who generate large data volumes, the ‘long tail’ of research groups creating moderate amounts of highly valuable data have been ignored. It is these that the ADMIRAL Project seeks to help

  3. The data publication requirements of funding bodies • Most Research Councils have recently introduced policies requiring researchers to set up formal mechanisms to manage created data, including provision for archiving, access and re-use, at the project end • e.g. BBSRC: • “BBSRC expects research data generated as a result of BBSRC support to be made available with as few restrictions as possible in a timely and responsible manner to the scientific community for subsequent research. • “Data should also be retained for a period of ten years after completion of a research project.” • In addition, BBSRC requires new grant applications to contain a data management plan as a pre-requisite for funding • Through ADMIRAL, we hopes to provide assistance in both these areas

  4. Support for ADMIRAL from Chris Holland • “It is challenging to efficiently record, organize and catalogue my data, a situation I share with many of my colleagues, especially those working in the interfacial sciences. • Research groups like mine would benefit greatly from a front-to-back data management system of the sort that you are proposing to develop in the ADMIRAL Project. • That will help us to organise, integrate and eventually publish our data with appropriate linkage to existing public sources, in a technically accessible fashion.” • Our other test users –Seb Shimeld, Alex Kacelnik and Fritz Vollrath – have also given enthusiastic support

  5. Support for ADMIRAL from Alex Kacelnik • “I believe that the ADMIRAL project is timely and that it could play a significant role both locally (in Oxford) and internationally, as it can foster a change in culture regarding the long term treatment of behavioural and related data. • In particular, it will assist me in fulfilling my intention to make the raw data from my experiments on starlings available publicly in the long run for people to re-do whatever analysis they wish on that material. • Similarly, the results of our problem solving experiments with New Caledonian crows are typically collected in video format, and experience has repeatedly shown that re-analysis of video data can lead to substantial re-interpretation of old data, hence long-term, accessible storage of video data is essential.” • Our other test users – Chris Holland, Seb Shimeld and Fritz Vollrath – have given similar enthusiastic support

  6. Support for ADMIRAL from Seb Shimeld • “We work with a dozen different species, and the resulting complexity of images (species, stages, genes, experiments, visualisation methods) generates a huge storage and management challenge. • We struggle even with the basics of efficient cataloguing and archiving of these data, and most of my colleagues are in a similar position. • I can see huge benefits in effective, integrated image data management that is technically accessible to research groups such as mine. Gaps exist from the basic level of archive, search and retrieval of data to the juicy prospect of rendering data accessible to other scientists. • I think this later point is particularly pertinent, I would estimate less than 1% of image data in my field become publicly available, as images are cherry-picked for publication.” • Our other test users – Chris Holland, Alex Kacelnik and Fritz Vollrath – have given similar enthusiastic support

  7. Support for ADMIRAL from Fritz Vollrath • “I am writing now to say how delighted I am that you wish to include our data in your development of a general data management infrastructure suitable for different types of life science research datasets. • I am particularly interested in the fact that this will be a Web-based data management system, since this means that we will be able to deposit data into it directly from Kenya, secure in the knowledge that the data will be securely managed and backed up, selectively sharable with trusted colleagues, and also securely archived for long-term preservation in the Oxford University Library Service's DataBank. • As you know, we are keen for many of our maps and datasets to be publicly available, as well as being securely archived, and we look forward to exploring with you how this might be accomplished as part of the ADMIRAL Project.” • Our other test users – Chris Holland, Seb Shimeld and Alex Kacelnik – have given similar enthusiastic support

  8. RIN survey of information use in the life sciences (Report available at http://tinyurl.com/yjawuk4) • “The availability of powerful new information and communications technologies have brought major changes for life science researchers “ • “Life scientists grapple with the new functionalities and possibilities of use offered by emerging information policies, tools and services” • “The groups expressed a strong desire for information support, if possible closely integrated with their research teams and laboratories”

  9. Barriers to data sharing (From that RIN Report, Nov 2009) • Concerns about potential misuse • Ethical constraints • Intellectual property issues • Data ownership • “Above all, as researchers, we see data as a critical part of our ‘intellectual capital’, generated through a considerable investment of time, effort and skill. • “In a competitive environment, our willingness to share is therefore subject to reservations, in particular as to the control we have over the manner and timing of sharing. • “Any sharing or publishing environment must therefore have secureembargo procedures, such that we can state at the outset when in the future we are happy for the data to be published, safe in the knowledge that our wishes will be honoured.”

  10. Characterizing research activities – three phases Information discovery Study concept and design Hypothesis generation Undertaking experiments Data acquisition Data processing Data sharing Data management Data analysis Data archiving Results and conclusions Seminars and conference presentations Articles and reports

  11. Information management in biological research can be quite complex Information flow in an epidemiological study of zoonotic diseases

  12. Where is the pain? • Remembering, a year later, what this photograph is supposed to represent • Finding that spreadsheet on my hard drive – what was its name? • Repeating experiments – which protocol did I use? • Getting hold of data created by other group members • Maintaining group knowledge when key personnel leave • Dealing with bureaucracy – COSHH forms • Keeping inventories up to date • Recording workflows • Retrieving relevant facts for paper writing • Finding the right image for the article

  13. Easing the pain of data archiving and publication

  14. ADMIRAL • Short-term goal • To make your lives easier, in terms of data management • Immediate objective • To create some simple services that works for you • Long-term goal • To create the next-generation infrastructure for research data • High-level problem • How best to capture, preserve and publish knowledge relevant to biological research • We’ve had some ideas . . . • . . . but what we do will be determined by what you want, developed in a process of ‘agile development’ in response to your feedback on early prototypes

  15. ADMIRAL ideas Phase One - Basic data management and archiving: By early autumn • Storage - a local ‘mapped’ Life Science Data Store for research data of any file format, selectively sharable, with automated daily backup, and additional Web access • Annotation – use of our Shuffl tool to permit both simple annotation of data files, and easy visualization of numerical datasets • Packaging of data files and minimal descriptive metadata for archiving • Submission of selected quality datasets to the new Oxford DataBank for long-term preservation, at a timing decided by the data owner, automatically Phase Two – Advanced annotation and data publication: By March 2011 • Web services to enrich metadata, e.g. automatic provision of full bibliographic details from a PubMed ID, mark-up of recognised entities (genes, proteins, Gene Ontology terms, etc.), and retrieval of latitude and longitude for named places • Formal annotations developed from free text tagging, for example using BioPortal to access the ~150 ontologies in the OBO Foundry. • Publication of selected datasets with descriptive metadata, citable DOIs and CC data licences, on embargo dates set by data owners, with links to relevant research papers

  16. The principle of ‘sheer curation’ • In creating the ADMIRAL infrastructure for data management, we will practice ‘sheer curation’ (http://en.wikipedia.org/wiki/Sheer_curation): • working with you rather than against you • exploiting data management tools (e.g. spreadsheets) with which you are already familiar • harvesting metadata automatically where possible • providing services that are of immediate benefit in your day-to-day activities • making curation activities sufficiently lightweight and transparent that they do not impose a significant cognitive overhead

  17. The importance of initial requirements analysis • To create useful data management services, we need to know • what you are currently doing • where your pain points are • what solutions and services you would really like • First, I am asking you and all your research group members to complete an initial ADMIRAL Research Data Survey by the end of this week • It should take no more than half an hour of your time • You should each regard this as an essential priority activity • I would then like each of you to keep an ADMIRAL Lab Data Notebook for the five consecutive working days next week, in which you note the information sources you use and the data sets you create, and then finally link them into an information workflow diagram • This should take no more than 10 minutes a day, and will become part of your normal lab notebook completion activities

  18. An example of a day entry in the Lab Data Notebook

  19. An example of an information workflow

  20. The importance of feedback for iterative development • As we develop ADMIRAL tools and services to meet your needs • we will let you test these out in your everyday work, and • will ask you to give us feedback to guide our iterative development • Within 6 months, we hope you will be using the Life Science Data Store on a daily basis, and archiving valuable datasets in the Oxford DataBank • By the project end, we hope to provide you with better metadata creation services, and hope that you will be publishing key datasets to the Web • The development work and user interactions will be undertaken by • my senior computing officer, Graham Klyne, who is project manager • assisted by Dr Diana Galletly, who started work on 18 January • We hope that buzz about ADMIRAL services will spread virally, so that others within the Department will wish to use them

  21. Sustainability • It is important that the ADMIRAL services we develop during this short JISC project are sustained after the end of the current grant • The Oxford University Library Service is committed to long-term archival care of datasets submitted by ADMIRAL to the Oxford DataBank • We will work with the Zoology IT support staff, Simon Ellis and his colleagues, to ensure the long-term maintenance of the local services • Given sufficient demand from research groups, financial support for the local services will be forthcoming, albeit at a cost • As part of the ADMIRAL Project, we will create a downloadable Zoology data management template that group leaders can use in grant applications • This template will have estimates of the true costs of data management, archiving and support services, that you can use in your grant applications

  22. This isn’t just a waste of time ! • We recently created FlyTED (the Drosophila Testis Gene Expression Database), for Helen White-Cooper’s gene expression research images http://www.fly-ted.org

  23. We have a track record of creating useful tools . . . • We then created OpenFlyData (http://openflydata.org), to integrate FlyTED data with data from other Drosophila gene expression databases

  24. Helen White-Cooper’s response . . . Quotes from her letter of 21 April 2009 • “Our collaborations have been very helpful to me for my research. The added value of our data being available in a well-designed searchable database is immense. • “In addition, your group’s integration of my data with that on other sites has been incredibly helpful. • “If we had had your software tools to support the organization and annotation of our data in the first place, the process would have been much more streamlined, as much effort was needed to check and correct errors in our original data.”

  25. Summary: What ADMIRAL will offer • A secure local Life Science Data Store, regularly backed up, to which you can save data files as easily as saving to your hard drive • The ability to share access to your datasets with colleagues, both here and elsewhere, under password control • A Web-based data annotation and visualization tool, Shuffl • A search facility to permit you to find your data files easily • Behind-the-scenes data management • archiving of those datasets you choose to the Oxford DataBank • implementing your embargo dates for data publication • for those datasets you choose to publish, assignment of Science Commons Open Access licenses, and DOIs, making them citable • Having citable datasets will enhance your CV • Datasets, as well as papers, count in evaluating your research record • The availability of ADMIRAL services will help you complete the required data management plan for your next grant application

  26. Scholarly publications: conference papers and journal articles Institutional repositories Publication activities Hypothesis formulation and project design Research results and conclusions Research plan Data selection and interpretation Experimentation and data creation Research datasets abandoned on local hard drives or CD-ROMs Raw data in research note-books and live PC files The conventional research data lifecycle

  27. Dissemination Open data on Web Scholarly publications: conference papers and journal articles Institutional repositories Papers and datasets Publication activities Hypothesis formulation and project design Preservation Research results and conclusions Research plan Data selection and interpretation Experimentation and data creation Local filestore Private yet sharable Raw data in research note-books and live PC files Management The enhanced ADMIRAL research data lifecycle

  28. end“Good data management is as vital to our research activities as e-mail and toilets"

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