Hydrogeological data modelling in groundwater studies

Managing, handling, exchanging and accessing hydrogeological information depend mainly on the applied hydrogeological data models, which differ between institutions and across countries. Growing interest in hydrogeological information diffusion, combined with a need for information availability, req...

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Main Author: Wojda, Piotr
Other Authors: JELLEMA, Jan
Format: Others
Published: Universite de Liege 2009
Subjects:
Online Access:http://bictel.ulg.ac.be/ETD-db/collection/available/ULgetd-02262009-181604/
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spelling ndltd-BICfB-oai-ETDULg-ULgetd-02262009-1816042013-01-07T15:43:44Z Hydrogeological data modelling in groundwater studies Wojda, Piotr model standardization/standardisation de donnees entity-relationship/entite-association unified modeling language/unified modeling language hydrogeological information/information hydrogeologique data modelling/modelisation de donnees Managing, handling, exchanging and accessing hydrogeological information depend mainly on the applied hydrogeological data models, which differ between institutions and across countries. Growing interest in hydrogeological information diffusion, combined with a need for information availability, require the convergence of hydrogeological data models. Model convergence makes hydrogeological information accessible to multiple institutions, universities, administration, water suppliers, and research organisations, at different levels: from the local level (on-site measurement teams), to national and international institutions dealing with water resources management. Furthermore, because hydrogeological studies are complex, they require a large variety of high-quality hydrogeological data with appropriate metadata in clearly designed and coherent structures. To respond to the requirement of model convergence, easy information exchange and hydrogeological completeness, new data models have been developed, using two different methodologies. At local-regional level, the HydroCube model has been developed for the Walloon Region in Belgium. This logical data model uses entity-relationship diagrams and it has been implemented in the MS Access environment, further enriched with a fully functional user-interface. The HydroCube model presents an innovative holistic project-based approach, which covers a full set of hydrogeological concepts and features, allowing for effective hydrogeological project management. This approach enables to store data about the project localisation, hydrogeological equipment, related observations and measurements. Furthermore, topological relationships facilitate management of spatially associated data. Finally, the model focuses on specialized hydrogeological field experiments, such as pumping tests and tracer tests. At the international level, a new hydrogeological data model has been developed which guarantees hydrogeological information availability in one standard format in the scope of the FP6 project GABARDINE (Groundwater Artificial recharge Based on Alternative sources of wateR: aDvanced Integrated technologies and management). The model has been implemented in the ArcGIS environment, as a Geospatial Database for a decision support system. The GABARDINE Geospatial Database uses advantages of object-oriented modelling (UML), it follows standards for geoscientific information exchange (ISO/TC211 and OGC), and it is compliant with the recommendations from the European Geospatial Information Working Group. Finally, these two developed models have been tested with hydrogeological field data on different informatics platforms: from MS Access, through a proprietary ArcGIS environment, to the open source, free Web2GIS on-line application. They have also contributed to the development of the GroundWater Markup Language (GWML) Canadian exchange standard, compliant with Geographic Markup Language (GML). GWML has the potential of becoming an international HydroGeology Markup Language (HgML) standard with a strong and continuous support from the hydrogeological community. JELLEMA, Jan BENSABAT, Jacques DASSARGUES, Alain NGUYEN, Frédéric DELIEGE, Jean-François THERRIEN, René DONNAY, Jean-Paul PIRARD, Eric BROUYERE, Serge Universite de Liege 2009-01-19 text application/pdf http://bictel.ulg.ac.be/ETD-db/collection/available/ULgetd-02262009-181604/ http://bictel.ulg.ac.be/ETD-db/collection/available/ULgetd-02262009-181604/ unrestricted Je certifie avoir complété et signé le contrat BICTEL/e remis par le gestionnaire facultaire.
collection NDLTD
format Others
sources NDLTD
topic model standardization/standardisation de donnees
entity-relationship/entite-association
unified modeling language/unified modeling language
hydrogeological information/information hydrogeologique
data modelling/modelisation de donnees
spellingShingle model standardization/standardisation de donnees
entity-relationship/entite-association
unified modeling language/unified modeling language
hydrogeological information/information hydrogeologique
data modelling/modelisation de donnees
Wojda, Piotr
Hydrogeological data modelling in groundwater studies
description Managing, handling, exchanging and accessing hydrogeological information depend mainly on the applied hydrogeological data models, which differ between institutions and across countries. Growing interest in hydrogeological information diffusion, combined with a need for information availability, require the convergence of hydrogeological data models. Model convergence makes hydrogeological information accessible to multiple institutions, universities, administration, water suppliers, and research organisations, at different levels: from the local level (on-site measurement teams), to national and international institutions dealing with water resources management. Furthermore, because hydrogeological studies are complex, they require a large variety of high-quality hydrogeological data with appropriate metadata in clearly designed and coherent structures. To respond to the requirement of model convergence, easy information exchange and hydrogeological completeness, new data models have been developed, using two different methodologies. At local-regional level, the HydroCube model has been developed for the Walloon Region in Belgium. This logical data model uses entity-relationship diagrams and it has been implemented in the MS Access environment, further enriched with a fully functional user-interface. The HydroCube model presents an innovative holistic project-based approach, which covers a full set of hydrogeological concepts and features, allowing for effective hydrogeological project management. This approach enables to store data about the project localisation, hydrogeological equipment, related observations and measurements. Furthermore, topological relationships facilitate management of spatially associated data. Finally, the model focuses on specialized hydrogeological field experiments, such as pumping tests and tracer tests. At the international level, a new hydrogeological data model has been developed which guarantees hydrogeological information availability in one standard format in the scope of the FP6 project GABARDINE (Groundwater Artificial recharge Based on Alternative sources of wateR: aDvanced Integrated technologies and management). The model has been implemented in the ArcGIS environment, as a Geospatial Database for a decision support system. The GABARDINE Geospatial Database uses advantages of object-oriented modelling (UML), it follows standards for geoscientific information exchange (ISO/TC211 and OGC), and it is compliant with the recommendations from the European Geospatial Information Working Group. Finally, these two developed models have been tested with hydrogeological field data on different informatics platforms: from MS Access, through a proprietary ArcGIS environment, to the open source, free Web2GIS on-line application. They have also contributed to the development of the GroundWater Markup Language (GWML) Canadian exchange standard, compliant with Geographic Markup Language (GML). GWML has the potential of becoming an international HydroGeology Markup Language (HgML) standard with a strong and continuous support from the hydrogeological community.
author2 JELLEMA, Jan
author_facet JELLEMA, Jan
Wojda, Piotr
author Wojda, Piotr
author_sort Wojda, Piotr
title Hydrogeological data modelling in groundwater studies
title_short Hydrogeological data modelling in groundwater studies
title_full Hydrogeological data modelling in groundwater studies
title_fullStr Hydrogeological data modelling in groundwater studies
title_full_unstemmed Hydrogeological data modelling in groundwater studies
title_sort hydrogeological data modelling in groundwater studies
publisher Universite de Liege
publishDate 2009
url http://bictel.ulg.ac.be/ETD-db/collection/available/ULgetd-02262009-181604/
work_keys_str_mv AT wojdapiotr hydrogeologicaldatamodellingingroundwaterstudies
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