Reminder of the context and the issues
VRE : Kesaco ?
Process
Resources
Heterogeneity (data types, origin, standards) &
Diversity of “objects” to be linked together1
Loss of information over time2
Computational reproducibility frequently refers to the ability to generate equivalent analytical outcomes from the same data set using the same code and software1.
[…] all raw data and metadata, code, programming scripts, and bespoke software necessary for fully replicating any analyses that lead to inferences made in a published study2.
Data life cycle
FAIR Principles
Flux and stocks of data
Earth is a complex system composed of subsystems involving physical, chemical and biological environments, characterized by interacting processes over a broad continuum of time and space scales.
Gaia Data aims to develop and implement an integrated and distributed platform of services and data for the observation, modeling and understanding of the Earth system, biodiversity and the Environment.
For more information: GAIA Data
For more information: GAIA Data
VRE, VL, SG…. ?
VRE, VL, SG…. ?
“Research done through distributed global collaboration enabled by the internet, using very large data collections, terascale computing resources and high performance visualization” (Sir John Taylor – 2001)
“A VRE comprises a set of online tools and other network resources and technologies interoperating with each other to facilitate or enhance the processes of research practitioners within and across institutional boundaries” JISC definition
“Virtual Research Environments are innovative, web-based, community-oriented, comprehensive, flexible, and secure working environments conceived to serve the needs of modern science» Candela et al. 2013
VRE, VL, SG…. ?
VRE, VL, SG…. ?
VRE, VL, SG…. ?
VRE, VL, SG…. ?
Virtual Research Environments (VREs) are increasingly being used to support a more dynamic approach to collaborative working in systematics and taxonomy. Researchers who are not co-located are seeking to work dynamically together at various scales from local to international. These shared infrastructures are funded as VREs in Europe, Virtual Laboratories (VLs) in Australia and Science Gateways (SGs) in the USA and all have similar objectives.
VRE, VL, SG…. ?
Virtual Research Environments (VREs) are increasingly being used to support a more dynamic approach to collaborative working in systematics and taxonomy. Researchers who are not co-located are seeking to work dynamically together at various scales from local to international. These shared infrastructures are funded as VREs in Europe, Virtual Laboratories (VLs) in Australia and Science Gateways (SGs) in the USA and all have similar objectives.
For more information: LTER-Life
For more information: BCCVL
For more information: The science gateways research center
Key aspects
Virtualisation (hiding complexity from the user);
access to useful resources such as datasets, software, computing power, instruments/detectors (the latter for control as well as data taking) and scholarly publications (including grey literature technical reports etc.) as well as collaboratively with other persons and organisations;
For more information: EMBL-EBI
For more information: Research Objects.org
Key aspects
Virtualisation (hiding complexity from the user);
access to useful resources such as datasets, software, computing power, instruments/detectors (the latter for control as well as data taking) and scholarly publications (including grey literature technical reports etc.) as well as collaboratively with other persons and organisations;
interoperability across resources;
For more information: LifeWatch ERIC
Key aspects
Virtualisation (hiding complexity from the user);
access to useful resources such as datasets, software, computing power, instruments/detectors (the latter for control as well as data taking) and scholarly publications (including grey literature technical reports etc.) as well as collaboratively with other persons and organisations;
interoperability across resources;
support for the ‘researcher workflow’ from research idea (and checking the literature etc.) through observations/experiments to publication and subsequent discussion with citation and accreditation (maybe including management functions such as proposals and reporting to funders).
For more information: Jisc
Key aspects
Virtualisation (hiding complexity from the user);
access to useful resources such as datasets, software, computing power, instruments/detectors (the latter for control as well as data taking) and scholarly publications (including grey literature technical reports etc.) as well as collaboratively with other persons and organisations;
interoperability across resources;
support for the ‘researcher workflow’ from research idea (and checking the literature etc.) through observations/experiments to publication and subsequent discussion with citation and accreditation (maybe including management functions such as proposals and reporting to funders).
support for workflow composition (or even autonomic composition) of (2) and ideally deployment on virtualized resources (e.g. GRIDs, CLOUDs);
For more information: Galaxy-Ecology
Choose the scale !
Then compose
issues
Personal vision
Collaboration oriented tools
Built on existing platform :
HUBzero (using Joomla)
Sakai (a first demonstrator project so old ;) )
Specific VRE framework
gCube
Microsoft Sharepoints VRE Toolkits
OpenDreamkit for mathematic
Parthenos for Humanities
Phenomenal on-demand VRE for metabolomics
Apache Airavata software framework
Scientific articles
A global biodiversity observing system to unite monitoring and guide action Gonzalez A. et al., 2023
National biodiversity data infrastructures: ten essential functions for science, policy, and practice Güntsch et al., 2024
Building essential biodiversity variables (EBVs) of species distribution and abundance at a global scale Kissling W.D. et al., 2018
PERFICT: A Re-imagined foundation for predictive ecology Mcintire E.J.B. et al., 2022
Cyberinfrastructure for sourcing and processing ecological data Recknagel F. 2023.
Guidance framework to apply good practices in ecological data analysis: Lessons learned from building Galaxy-Ecology Royaux et al., 2024
Designing a Platform for Projecting and Protecting Global Biodiversity Urban M.C. et al., 2021