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| − | == Introduction and background == | + | == Overview == |
| − | The understanding of the fate and transport of contaminant plumes from contaminated sites in limestone aquifers is important because they are a major drinking water resource.
| + | [[ Introduction and background ]] |
| − | This is challenging because they are often heavily fractured and contain chert layers and nodules, resulting in a complex flow and transport behavior.
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| − | Modeling can help with the interpretation of measurements and the prediction of the contaminant behavior in the aquifer.
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| − | It can be used as a tool to advance the conceptual understanding and for decision support for risk assessment and the planning of remedial actions.
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| − | Several fracture flow and transport models are available for the modeling of contaminant transport in fractured media.
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| − | This wiki aims at giving an overview of modeling tools that can be used for the interpretation and prediction of flow and transport processes in fractured limestone aquifers.
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| − | The different concepts will be presented in the chapter [[Model concepts]].
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| − | They will be compared for their suitability to simulate field data and to represent typical features of fracture flow and transport using a field example ([[Example Akacievej]]).
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| − | This work is based on a collaboration project between DTU Environment and the Capital Region of Denmark (Region H).
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| − | == Overview ==
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| | [[ Conceptual modeling ]] | | [[ Conceptual modeling ]] |
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Revision as of 08:15, 14 April 2016
