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[[ Physical processes and properties of limestone ]] | [[ Physical processes and properties of limestone ]] | ||
| − | + | === Data acquisition and conceptual model development === | |
[[ Data acquisition | Data acquisition and field methods ]] | [[ Data acquisition | Data acquisition and field methods ]] | ||
[[ Conceptual modeling | Development of a conceptual model for a limestone site (based on example: Akacievej, Hedehusene) ]] | [[ Conceptual modeling | Development of a conceptual model for a limestone site (based on example: Akacievej, Hedehusene) ]] | ||
| − | + | === Modeling contaminant transport in limestone === | |
[[ Modeling objectives | Modeling objectives: how can models help in decision making? ]] | [[ Modeling objectives | Modeling objectives: how can models help in decision making? ]] | ||
Revision as of 09:24, 16 September 2016
Investigation of contaminant transport in fractured limestone aquifers
Authors: Klaus Mosthaf, Mette Martina Broholm, Poul Løgstrup Bjerg, Philip John Binning (DTU Environment )
This is part of a collaboration project between DTU Environment and the Capital Region of Denmark
Introduction and processes in limestone
Physical processes and properties of limestone
Data acquisition and conceptual model development
Data acquisition and field methods
Development of a conceptual model for a limestone site (based on example: Akacievej, Hedehusene)
Modeling contaminant transport in limestone
Modeling objectives: how can models help in decision making?
Available model types for flow and transport in fractured aquifers
Modeling tools and little helpers
Setup of an advanced model for fracture flow and transport in a limestone aquifer
Model calibration with field data
Model output: what do we get out of the different models?
