Difference between revisions of "TUFLOW CATCH Tutorial M01 Results QGIS"

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Review the time series data for the receiving polygon:
 
Review the time series data for the receiving polygon:
 
<ol>
 
<ol>
<li> In Windows File Explorer, navigate to the '''Modelling\TUFLOWCatch\bc_dbase''' folder and open '''TC01_001_catchment_hydraulic_receiving.csv'''.
+
<li> In Windows File Explorer, navigate to the '''TUFLOWCATCH\bc_dbase''' folder and open '''TC01_001_catchment_hydraulic_receiving.csv'''.
<li> This file contains incoming flow and concentrations at an interval of 5mins. This interval is defined via the <tt><font color=blue>what command?? </font><font color=red>==</font> ??</tt> command in the .tcc.  
+
<li> This file contains incoming flow and concentrations at an interval of 5mins. This interval is defined via the <tt><font color=blue>Catch BC Output Interval Lateral </font><font color=red>==</font> 300</tt> command in the .tcc.<br>
 +
 
 +
&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;→ '''<span style="color:#b300ff;">Suggestion:</span>''' <span style="color:#b300ff;">Consider:</span> <span style="color:black;">"2. This file contains incoming flow and pollutant concentrations at 5-minute intervals, as defined by the <tt><font color=blue>Catch BC Output Interval Lateral </font><font color=red>==</font> 300</tt> command in the .tcc file."<br>
 +
 
<li> Salinity and dissolved oxygen are both constant, so the outputs should be constant throughout the entire simulation. <br>
 
<li> Salinity and dissolved oxygen are both constant, so the outputs should be constant throughout the entire simulation. <br>
 +
 +
&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;→ '''<span style="color:#b300ff;">Suggestion:</span>''' <span style="color:#b300ff;">Consider:</span> <span style="color:black;">"3. Salinity and dissolved oxygen are constant throughout the simulation, and the corresponding output values should reflect this.<br>
 +
 
<br>
 
<br>
 
[[File: graph of constant pollutants over time]]<br>
 
[[File: graph of constant pollutants over time]]<br>
 
<br>
 
<br>
 
<li> Alive and dead E coli have been defined with the same pollutant export parameters, so their outputs should be equal. <br>
 
<li> Alive and dead E coli have been defined with the same pollutant export parameters, so their outputs should be equal. <br>
 +
 +
&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;→ '''<span style="color:#b300ff;">Suggestion:</span>''' <span style="color:#b300ff;">Consider:</span> <span style="color:black;">"4. Alive and dead E. coli have been assigned the same pollutant export parameters, so their outputs should be identical."<br>
 +
 
<br>
 
<br>
 
[[File: graph of ecoli over time?]]<br>
 
[[File: graph of ecoli over time?]]<br>
 
<br>
 
<br>
<li> <font color=red> what to say about flow vs pollutant?</font><br>
+
<li> When plotting flow vs pollutants, there is a noticeable spike in pollutant levels when the dry store release threshold is reached, followed by a gradual decline through the remainder of the simulation. <br>
 +
 
 +
&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;→ '''<span style="color:#b300ff;">Suggestion:</span>''' <span style="color:#b300ff;">Consider:</span> <span style="color:black;">"5. When plotting flow against pollutant levels, a noticeable spike appears once the dry store release threshold is reached, followed by a gradual decline for the remainder of the simulation."<br>
 +
 
 
<br>
 
<br>
 
[[File: graph of flow vs pollutant concentrations, pathogens on separate graph]]<br>
 
[[File: graph of flow vs pollutant concentrations, pathogens on separate graph]]<br>
 
<br>
 
<br>
:'''Note:''' The pathogen concentrations are plotted on a logarithmic scale.
+
'''Note:''' The pathogen concentrations are plotted on a logarithmic scale.
 
</ol>
 
</ol>
  
 
Review the mass balance time series data:
 
Review the mass balance time series data:
 
<ol>
 
<ol>
<li> In Windows File Explorer, navigate to the '''Modelling\TUFLOWCatch\bc_dbase''' folder and open '''TC01_001_catchment_hydraulic_mass_balance.csv'''.
+
<li> In Windows File Explorer, navigate to the '''TUFLOWCATCH\bc_dbase''' folder and open '''TC01_001_catchment_hydraulic_mass_balance.csv'''.
<li> This file contains the total of the surface and groundwater flow (m^3) and associated pollutant masses leaving the TUFLOW HPC model to the receiving polygon. The outputs are written in the same interval as the '''TC01_001_catchment_hydraulic_receiving.csv'''.  
+
<li> This file contains the total of the surface and groundwater flow (m^3) and associated pollutant masses leaving the TUFLOW HPC model to the receiving polygon. The outputs are written in the same interval as the '''TC01_001_catchment_hydraulic_receiving.csv'''.<br>
<li> <font color=red> what to plot?? volume vs time?</font><br>
+
 
 +
&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;→ '''<span style="color:#b300ff;">Suggestion:</span>''' <span style="color:#b300ff;">Consider:</span> <span style="color:black;">"2. This file contains the total surface and groundwater flow (m³) and associated pollutant masses leaving the TUFLOW HPC model and entering the receiving polygon. Outputs are written at the same interval as '''TC01_001_catchment_hydraulic_receiving.csv'''."<br>
 +
 +
<li> No groundwater has been simulated in the model, <font color=red> need to do this still</font><br>
 
<br>
 
<br>
 
[[File: ]]<br>
 
[[File: ]]<br>
Line 42: Line 57:
 
Review the TUFLOW HPC Map outputs with TUFLOW Viewer:
 
Review the TUFLOW HPC Map outputs with TUFLOW Viewer:
 
<ol>  
 
<ol>  
<li> Load the '''2d_mat_TC01_001.shp''' layer from the '''Modelling\TUFLOW\model\gis''' folder into QGIS.
+
<li> Load the '''2d_mat_TC01_001.shp''' layer from the '''TUFLOW\model\gis''' folder into QGIS.
 
<li>Open TUFLOW Viewer from the TUFLOW Plugin toolbar.<br>
 
<li>Open TUFLOW Viewer from the TUFLOW Plugin toolbar.<br>
 
<br>
 
<br>
 
[[File:tuflow_plugin_tuflow_viewer.png]]<br>
 
[[File:tuflow_plugin_tuflow_viewer.png]]<br>
 
<br>
 
<br>
<li>Open the simulation results. Select File > Load Results - Map Outputs. Navigate to the '''Modelling\TUFLOWCatch\results''' folder and select '''TC01_001_catchment_hydraulic.xmdf'''.  
+
<li>Open the simulation results. Select File > Load Results - Map Outputs. Navigate to the '''TUFLOWCATCH\results''' folder and select '''TC01_001_catchment_hydraulic.xmdf'''.  
<li>In the TUFLOW Viewer panel, select 'Conc SED_CLAY' from the Result Type list. As the output concentrations often vary significantly, making them difficult to interpret, it is recommended to adjust the symbology as shown in the video below. A smaller concentration range will enhance the visibility of finer differences in the outputs.  
+
<li>In the TUFLOW Viewer panel, select 'Conc SED_CLAY' from the Result Type list. As the output concentrations often vary significantly, making them difficult to interpret, it is recommended to adjust the symbology as shown in the video below. A smaller concentration range will enhance the visibility of finer differences in the outputs.<br>
 +
 
 +
&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;→ '''<span style="color:#b300ff;">Suggestion:</span>''' <span style="color:#b300ff;">Consider shorter sentences:</span> <span style="color:black;">"Concentration values often vary widely, which can make interpretation difficult. Adjusting the symbology, as shown in the video below, improves viewability."<br>
 +
 
<br>
 
<br>
 
{{Video|name=}}<br>
 
{{Video|name=}}<br>
<li>Review the pollutant concentrations of clay and ecoli throughout the model simulation. Notice how the water flows over the different material regions.
+
<li>Review the pollutant concentrations of clay and E. coli throughout the model simulation. Notice how the water flows over the different material regions.<br>
 +
 
 +
&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;→ '''<span style="color:#b300ff;">Suggestion:</span>''' <span style="color:#b300ff;">Consider:</span> <span style="color:black;">"'''Observe''' how water moves across different material regions."<br>
 +
 
 
<br>
 
<br>
 
{{Video|name=}}<br>
 
{{Video|name=}}<br>
Line 57: Line 78:
 
<br>
 
<br>
 
{{Video|name=}}<br>
 
{{Video|name=}}<br>
<li>Select 'Dry Mass WQ_PATH_ECOLI_ALIVE_CFU_100ML' from the result type list. This is the dry mass of the accumulated alive ecoli. Notice that at the start of the simulation, there is no dry mass, but as the model continues, the dry mass accumulates on the paddocks, and then runs off.  
+
<li>Select 'Dry Mass WQ_PATH_ECOLI_ALIVE_CFU_100ML' from the result type list. This is the dry mass of the accumulated alive E. coli. Notice that at the start of the simulation, there is no dry mass, but as the model continues, the dry mass accumulates on the paddocks, and then runs off.  
 
<br>
 
<br>
 
{{Video|name=}}<br>
 
{{Video|name=}}<br>

Latest revision as of 22:04, 24 April 2025

Page Under Construction

Introduction

Review the TUFLOW CATCH timeseries outputs:

  • Mass balance files
    • Surface water: Cumulative surface water flow and associated pollutant masses leaving the TUFLOW HPC model and entering the receiving polygon.
    • Groundwater: Cumulative groundwater water flow and associated pollutant masses leaving the TUFLOW HPC model and entering the receiving polygon.
    • Total: The combined data from the above surface water and groundwater mass balance outputs.
  • Receiving polygon inflows and concentrations

Additionally, review the TUFLOW HPC mesh results (.xmdf file) using the TUFLOW Viewer.

TUFLOW CATCH Timeseries Outputs

Review the time series data for the receiving polygon:

  1. In Windows File Explorer, navigate to the TUFLOWCATCH\bc_dbase folder and open TC01_001_catchment_hydraulic_receiving.csv.
  2. This file contains incoming flow and concentrations at an interval of 5mins. This interval is defined via the Catch BC Output Interval Lateral == 300 command in the .tcc.
            → Suggestion: Consider: "2. This file contains incoming flow and pollutant concentrations at 5-minute intervals, as defined by the Catch BC Output Interval Lateral == 300 command in the .tcc file."
  3. Salinity and dissolved oxygen are both constant, so the outputs should be constant throughout the entire simulation.
            → Suggestion: Consider: "3. Salinity and dissolved oxygen are constant throughout the simulation, and the corresponding output values should reflect this.

    File:Graph of constant pollutants over time

  4. Alive and dead E coli have been defined with the same pollutant export parameters, so their outputs should be equal.
            → Suggestion: Consider: "4. Alive and dead E. coli have been assigned the same pollutant export parameters, so their outputs should be identical."

    File:Graph of ecoli over time?

  5. When plotting flow vs pollutants, there is a noticeable spike in pollutant levels when the dry store release threshold is reached, followed by a gradual decline through the remainder of the simulation.
            → Suggestion: Consider: "5. When plotting flow against pollutant levels, a noticeable spike appears once the dry store release threshold is reached, followed by a gradual decline for the remainder of the simulation."

    File:Graph of flow vs pollutant concentrations, pathogens on separate graph

    Note: The pathogen concentrations are plotted on a logarithmic scale.

Review the mass balance time series data:

  1. In Windows File Explorer, navigate to the TUFLOWCATCH\bc_dbase folder and open TC01_001_catchment_hydraulic_mass_balance.csv.
  2. This file contains the total of the surface and groundwater flow (m^3) and associated pollutant masses leaving the TUFLOW HPC model to the receiving polygon. The outputs are written in the same interval as the TC01_001_catchment_hydraulic_receiving.csv.
            → Suggestion: Consider: "2. This file contains the total surface and groundwater flow (m³) and associated pollutant masses leaving the TUFLOW HPC model and entering the receiving polygon. Outputs are written at the same interval as TC01_001_catchment_hydraulic_receiving.csv."
  3. No groundwater has been simulated in the model, need to do this still

    [[File: ]]

TUFLOW HPC Map Results

Review the TUFLOW HPC Map outputs with TUFLOW Viewer:

  1. Load the 2d_mat_TC01_001.shp layer from the TUFLOW\model\gis folder into QGIS.
  2. Open TUFLOW Viewer from the TUFLOW Plugin toolbar.

    Tuflow plugin tuflow viewer.png

  3. Open the simulation results. Select File > Load Results - Map Outputs. Navigate to the TUFLOWCATCH\results folder and select TC01_001_catchment_hydraulic.xmdf.
  4. In the TUFLOW Viewer panel, select 'Conc SED_CLAY' from the Result Type list. As the output concentrations often vary significantly, making them difficult to interpret, it is recommended to adjust the symbology as shown in the video below. A smaller concentration range will enhance the visibility of finer differences in the outputs.
            → Suggestion: Consider shorter sentences: "Concentration values often vary widely, which can make interpretation difficult. Adjusting the symbology, as shown in the video below, improves viewability."


  5. Review the pollutant concentrations of clay and E. coli throughout the model simulation. Notice how the water flows over the different material regions.
            → Suggestion: Consider: "Observe how water moves across different material regions."


  6. Zoom in to the downstream end of the model. Use the Plot Time Series tool to see the pollutant concentrations at various locations around the receiving polygon. These time series concentrations should be similar to the TC01_001_catchment_hydraulic_receiving.csv output.


  7. Select 'Dry Mass WQ_PATH_ECOLI_ALIVE_CFU_100ML' from the result type list. This is the dry mass of the accumulated alive E. coli. Notice that at the start of the simulation, there is no dry mass, but as the model continues, the dry mass accumulates on the paddocks, and then runs off.



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