Einsatzmöglichkeiten von Talsim-NG: Unterschied zwischen den Versionen

Aktuelle Version vom 26. Januar 2024, 12:22 Uhr

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Talsim-NG stellt für viele verschiedene Aufgabenstellungen das passende Werkzeug dar:

Niederschlag-Abfluss-Simulation (sowohl Hochwasser als auch Langzeitszenarien)
Flussgebietsmodellierung und -bewirtschaftung
Bewirtschaftung von Speichern, Hochwasserrückhaltebecken, Talsperren bzw. Talsperrensystemen für verschiedene Nutzungen (Wasserversorgung, Hochwasserschutz, Niedrigwasseraufhöhung, Energiegewinnung, Einhaltung von Mindestabgaben, Freizeitnutzung)
Wassergüteberechnung
Kopplung von Wassermengen- und Wassergütebetrachtung
Dimensionierung wasserwirtschaftlicher Anlagen
Operationeller Einsatz von Talsim-NG für den wasserwirtschaftlichen Betrieb in Verbindung mit einem Monitoringsystem

Ebenso stellt Talsim-NG für viele wasserwirtschaftliche Untersuchungen die passenden Funktionalitäten bereit:

Interne Zeitreihenverwaltung
Verwaltung der Simulationen inklusive der Ergebnisse zur Gegenüberstellung
Langzeitsimulation / Kurzfristprognosen
Beliebige Anforderung und Ausgabe von Zustandsgrößen
Berechnung aussagekräftiger Kenngrößen (Bilanzen oder Sicherheiten)

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

gridded
watersheds

Atmosphere / Vegetation / Soil Interface for Crop Water Requirements and Irrigation

Einzugsgebiet

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

Hybrid hydrological and hydraulic modelling.png

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

@@ Zeile 1: / Zeile 1: @@
 <languages/>
 <translate>
+<!--T:3-->
+[[Datei:TalsimNG_Applications.png|800px|center]]
 <!--T:1-->
 Talsim-NG stellt für viele verschiedene Aufgabenstellungen das passende Werkzeug dar:
@@ Zeile 10: / Zeile 14: @@
 * Dimensionierung wasserwirtschaftlicher Anlagen
 * [[Operationeller Einsatz von Talsim-NG]] für den wasserwirtschaftlichen Betrieb in Verbindung mit einem Monitoringsystem
 <!--T:2-->
@@ Zeile 18: / Zeile 23: @@
 * Beliebige Anforderung und Ausgabe von Zustandsgrößen
 * Berechnung aussagekräftiger Kenngrößen (Bilanzen oder Sicherheiten)
+====Process-based hydrological modelling==== <!--T:6-->
+<!--T:4-->
+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
+<!--T:5-->
+====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>
+<!--T:7-->
+====Atmosphere / Vegetation / Soil Interface for Crop Water Requirements and Irrigation====
+[[Einzugsgebiet]]
+<!--T:8-->
+====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
+<!--T:9-->
+====Nested modelling====
+A model within a model!
+<!--T:10-->
+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]]
+<!--T:11-->
+====Crop water requirements====
+Comparison CropWat (FAO) vs. Talsim-NG
+[[Datei:Crop water requirements.png|800px|center]]
+<!--T:12-->
+====Hybrid hydrological / hydraulic modelling====
+[[Datei:Hybrid hydrological and hydraulic modelling.png|800px|center]]
+<!--T:13-->
+====Water quality and stratification modelling====
+[[Datei:Water quality and stratification modelling.png|800px|center]]
+<!--T:14-->
+====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]]
+<!--T:15-->
+====Client-Server environment====
+[[Datei:Client-Server environment.png|800px|center]]
+<!--T:16-->
+====Emulated Client-Server environment====
+Emulated client-server environment
+Client and Server run on the same computer
+[[Datei:Emulated Client-Server environment.png|800px|center]]
+<!--T:17-->
+====Participatory modelling / serious gaming====
+Talsim-NG as tool for capacity building:<br>
+<!--T:18-->
+) Topic: Live interaction between water managers<br>
+) 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
+) Activity: A group of water managers plays at the same time
 </translate>