Einsatzmöglichkeiten von Talsim-NG/en: Unterschied zwischen den Versionen
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[[Datei:TalsimNG_Applications.png|800px|center]] | |||
* | |||
* | Talsim-NG is the right tool for many different tasks: | ||
* | * Rainfall-runoff simulations (both flood and long-term scenarios) | ||
* | * River basin modelling and management | ||
* | * Management of reservoirs, flood control reservoirs, dams or dam systems for various uses (water supply, flood protection, low flow augmentation, energy production, compliance with minimum releases, recreational use) | ||
* Water quality simulations | |||
* Coupling of water quantity and water quality considerations | |||
* Dimensioning of water resource management facilities | |||
* [[Special:MyLanguage/Operationeller Einsatz von Talsim-NG|Operational use of Talsim-NG]] for water management in connection with a monitoring system | |||
Talsim-NG includes the necessary tools for water resource analyses: | |||
* Time series management | |||
* Management of simulations and their results including result comparison | |||
* Long-term simulations / short-term forecasts | |||
* Request and output of arbitrary state variables | |||
* Calculation of useful parameters such as balance values or probabilities | |||
====Process-based hydrological modelling==== | |||
Processes and features: | |||
* Precipitation-runoff component + snow compaction | |||
* Soil moisture and crop water requirements calculation | |||
* Up to 6 soil layers | |||
* Snow simulation | |||
* Hybrid hydrological/hydraulic flood routing | |||
* Non-linear atmosphere-vegetation-soil interface | |||
* Hybrid hydrological/hydraulic flood routing, | |||
* Hydraulic modelling of weirs, diversions, pipes | |||
* Crop water requirements | |||
* Irrigation | |||
* Reservoir operation | |||
* Water quality | |||
* Hydropower | |||
* Conceptual groundwater modelling | |||
* Nested modelling of sub-basins with high spatial resolution | |||
* Generic rule builder for water management options | |||
* Pre-processing and post-processing | |||
* Multicriteria optimization | |||
* Time series manager | |||
* Project and scenario manager | |||
* Client-Server architecture | |||
====Gridded or watershed oriented approach==== | |||
Talsim-NG can be used for both gridded or watershed oriented concepts | |||
<gallery mode="packed" heights=300px> | |||
File:Gridded model approach.png|gridded | |||
File:Hru.png|watersheds | |||
</gallery> | |||
====Atmosphere / Vegetation / Soil Interface for Crop Water Requirements and Irrigation==== | |||
[[Special:MyLanguage/Einzugsgebiet|Sub-basin]] | |||
====Linkage of flow components==== | |||
[[Datei:Linkage of flow components.png|800px|center]] | |||
Surface and sub-surface flow components between elements are interconnected. If soil downstream is saturated, flow from the upstream cell is impeded: | |||
* Backwater effects | |||
* Surface flow accumulates from element to element | |||
====Nested modelling==== | |||
A model within a model! | |||
If necessary, sub-basins can be simulated with different resolutions and levels of detail within a large river basin model. | |||
[[Datei:Nested modelling.png|800px|center]] | |||
====Crop water requirements==== | |||
Comparison CropWat (FAO) vs. Talsim-NG | |||
[[Datei:Crop water requirements.png|800px|center]] | |||
====Hybrid hydrological / hydraulic modelling==== | |||
[[Datei:Hybrid hydrological and hydraulic modelling.png|800px|center]] | |||
====Water quality and stratification modelling==== | |||
[[Datei:Water quality and stratification modelling.png|800px|center]] | |||
====Talsim-NG in operational mode==== | |||
Automation from data retrieval to sending e-mails when operational simulation runs are required | |||
[[Datei:Talsim-NG in operational mode.png|800px|center]] | |||
====Client-Server environment==== | |||
[[Datei:Client-Server environment.png|800px|center]] | |||
====Emulated Client-Server environment==== | |||
Emulated client-server environment | |||
Client and Server run on the same computer | |||
[[Datei:Emulated Client-Server environment.png|800px|center]] | |||
====Participatory modelling / serious gaming==== | |||
Talsim-NG as tool for capacity building:<br> | |||
1) Topic: Live interaction between water managers<br> | |||
2) Tool: Put operators in various positions | |||
* upstream perspective, downstream perspective | |||
* exposes stakeholders to different levels of dependencies | |||
* shows effects with/without data sharing | |||
* demonstrates effects with/without cooperation | |||
* mimics flood / drought events | |||
3) Activity: A group of water managers plays at the same time |
Aktuelle Version vom 26. Januar 2024, 12:23 Uhr
Talsim-NG is the right tool for many different tasks:
- Rainfall-runoff simulations (both flood and long-term scenarios)
- River basin modelling and management
- Management of reservoirs, flood control reservoirs, dams or dam systems for various uses (water supply, flood protection, low flow augmentation, energy production, compliance with minimum releases, recreational use)
- Water quality simulations
- Coupling of water quantity and water quality considerations
- Dimensioning of water resource management facilities
- Operational use of Talsim-NG for water management in connection with a monitoring system
Talsim-NG includes the necessary tools for water resource analyses:
- Time series management
- Management of simulations and their results including result comparison
- Long-term simulations / short-term forecasts
- Request and output of arbitrary state variables
- Calculation of useful parameters such as balance values or probabilities
Process-based hydrological modelling
Processes and features:
- Precipitation-runoff component + snow compaction
- Soil moisture and crop water requirements calculation
- Up to 6 soil layers
- Snow simulation
- Hybrid hydrological/hydraulic flood routing
- Non-linear atmosphere-vegetation-soil interface
- Hybrid hydrological/hydraulic flood routing,
- Hydraulic modelling of weirs, diversions, pipes
- Crop water requirements
- Irrigation
- Reservoir operation
- Water quality
- Hydropower
- Conceptual groundwater modelling
- Nested modelling of sub-basins with high spatial resolution
- Generic rule builder for water management options
- Pre-processing and post-processing
- Multicriteria optimization
- Time series manager
- Project and scenario manager
- Client-Server architecture
Gridded or watershed oriented approach
Talsim-NG can be used for both gridded or watershed oriented concepts
Atmosphere / Vegetation / Soil Interface for Crop Water Requirements and Irrigation
Linkage of flow components
Surface and sub-surface flow components between elements are interconnected. If soil downstream is saturated, flow from the upstream cell is impeded:
- Backwater effects
- Surface flow accumulates from element to element
Nested modelling
A model within a model!
If necessary, sub-basins can be simulated with different resolutions and levels of detail within a large river basin model.
Crop water requirements
Comparison CropWat (FAO) vs. Talsim-NG
Hybrid hydrological / hydraulic modelling
Water quality and stratification modelling
Talsim-NG in operational mode
Automation from data retrieval to sending e-mails when operational simulation runs are required
Client-Server environment
Emulated Client-Server environment
Emulated client-server environment Client and Server run on the same computer
Participatory modelling / serious gaming
Talsim-NG as tool for capacity building:
1) Topic: Live interaction between water managers
2) Tool: Put operators in various positions
- upstream perspective, downstream perspective
- exposes stakeholders to different levels of dependencies
- shows effects with/without data sharing
- demonstrates effects with/without cooperation
- mimics flood / drought events
3) Activity: A group of water managers plays at the same time