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Institut for Vand og Miljøteknologi, DTU Miljø, Danmarks Tekniske Universitet Side 266 • LCA of remediation technologies • Cost effectiveness analysis • Decision support tools Reactive transport modeling: • Scaling of reactions. The modeling of reactions is dependent on scale. Processes can appear to be at equilibrium, but are then kinetic at larger scale. Work is being conducted on the appropriate representation of reactions at the required scales. • Vadose zone modeling. Contaminant transport in the unsaturated zone is being researched with active development of coupled gas and aqueous phase transport, risk assessment models, models of plant uptake of contaminants in soils. • Reactive solute transport models for application at contaminated sites or simulation of remediation technologies. Of certain interest is the coupling between solute transport, degradation and redox processes. Here the use of models coupled to advanced geochemical models as PHREEQC will be in focus. In addition reactive models geared towards heterogeneous aquifers, where the interaction between diffusion processes in low permeable strata and transport in sand layers is a key issue. • Computational methods. State of the art computational methods are required to obtain accurate solutions of the mathematical equations that are used to represent contaminant transport processes. Research is being conducted on various aspects of numerical methods. For example, the Eulerian Localised Adjoint Method for solution of the advection diffusion equation. Water resources - Integrated water resources management • Trade-off between environmental flows and consumptive water use • Impact and mitigation of regional droughts • Coupled hydro-economic modeling at the catchment scale • Integrated urban water management Water resources - Catchment hydrology: • Distributed modeling at the catchment scale • Reservoir design and operation • Flood forecasting and data assimilation • Parameter identification and model uncertainty • Coupled hydrological/atmospheric modelling • Flood frequency and reliability analyses • Eco-Hydrological Feedback Mechanisms Water resources - Groundwater: • Well field analysis • Groundwater-surface water interaction • The natural flushing and up-coning of saltwater in limestone aquifers • Advective transport of oxygen in the unsaturated zone Water resources – Hydrogeophysics and remote sensing methods in hydrology: • Using gravity-derived storage changes for hydrological model calibration • Saline groundwater quality monitoring and modeling
Institut for Vand og Miljøteknologi, DTU Miljø, Danmarks Tekniske Universitet • Mapping and modeling of structurally complex hydrological systems Water resources - Computational methods in water resources: • Eulerian Lagrangian Localised Adjoint Methods • Automatic time stepping schemes • Model uncertainty analysis • Parameter estimation and model validation Water treatment • Efficient and stable removal of natural compounds in filters (N-compounds, Fe, Mn, As, particles) investigated in a recently developed model water works • Removal of pesticides by activated carbon • Biological removal of MTBE, pesticides and iron • Desalination of sea-water, including economic evaluation • Evaluation of advanced oxidations processes - AOP • Evaluation of alternative drinking water resources Materials in water supply systems: • Migration of specific organic compounds from plastic pipes to drinking water • Microbial growth on plastic pipes (biofilms) and compounds released from plastic pipes • Biological degradation and transformation of specific organic compounds from plastic pipes in drinking water • Biocorrosion • Investigation of ‘smart’ active self-disinfecting surfaces • Modeling of migration and degradation of organic compounds • Integrate established knowledge into conceptual models to predict and evaluate long term consequences of different choices of materials. Monitoring and control of water quality and risk factors: • Development of new micro-nano technology based sensors • Development of the ‘Universal sensor’, screening for anormalities to identify hazards • Development and implementation of an online, automatized, real-time monitor for ATP Management of risk factors • Coupling of sensors and water quality software in order to be able to identify on-line the water quality in water supply systems and to correct poor water quality in critical areas of distribution systems Water quality: • Particle transport – sedimentation / re-suspending • Ammonium-compounds dynamics • Effects of UV disinfection in distribution systems Side 267
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Vidensinstitutioner, miljøteknolog
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Forord Hensigten med dette katalog
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Under hver institution er der infor
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Katalog over institutioner: Afdelin
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Afdeling for Terrestrisk Økologi,
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Afdeling for Vildtbiologi og Biodiv
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Afdeling for Vildtbiologi og Biodiv
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AgroTech A/S afgasset biomasse. Yde
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Biologisk Institut, Det Naturvidens
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Center for Energi- og Miljøeffekti
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Danmarks Meteorologiske Institut (D
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DHI afprøvning af miljøteknologie
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Institut for kemi, DTU Kemi, Danmar
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