Boxes - Revision history

Guillaume at 14:25, 27 April 2012

2012-04-27T14:25:24Z

Guillaume: /* Initialization Boxes */

2012-04-27T14:24:59Z

‎Initialization Boxes

Guillaume: /* Module Lagrangian */

2012-04-27T14:24:42Z

‎Module Lagrangian

Guillaume at 12:52, 27 April 2012

2012-04-27T12:52:17Z

Guillaume: /* Monitoring Boxes */

2012-04-27T12:48:20Z

‎Monitoring Boxes

Guillaume at 12:42, 27 April 2012

2012-04-27T12:42:40Z

Guillaume: /* Module Lagrangian */

2012-04-27T12:40:26Z

‎Module Lagrangian

Guillaume: /* Module Lagrangian */

2012-04-27T12:40:06Z

‎Module Lagrangian

Guillaume: /* Module Lagrangian */

2012-04-27T12:39:44Z

‎Module Lagrangian

Guillaume at 12:39, 27 April 2012

2012-04-27T12:39:28Z

@@ Line 103: / Line 103: @@
 Regarding the lagrangian particules, there is one output file per box: a LBM file. This file contains the total volume of lagrangian tracers per origin at each time instant, one origin per column.
-===Module Hydrodynamic===
+===[[Module Hydrodynamic]]===
   BOXFLUXES                 : ..\General Data\Initial Conditions\Boxes.dat
-===Module WaterProperties===
+===[[Module WaterProperties]]===
   BOXFLUXES                 : ..\General Data\Initial Conditions\Boxes.dat
@@ Line 116: / Line 116: @@
   <endproperty>
-===Module Lagrangian===
+===[[Module Lagrangian]]===
   MONITOR_BOX               : ..\General Data\Initial Conditions\Boxes.dat
   ...

@@ Line 68: / Line 68: @@
 Boxes can be used to initialize a waterproperty. The waterproperty concentration for each box must be given ordered along the box id starting from Box 1 to the last Box. Box 0 is set accordingly to the default value of the waterproperty.
-===Module WaterProperties===
+===[[Module WaterProperties]]===
 Boxes values are set for Box 1 and Box 2 (3D sample). Default value will be set in Box 0.
   <beginproperty>

@@ Line 79: / Line 79: @@
   <endproperty>
-===Module Lagrangian===
+===[[Module Lagrangian]]===
 Boxes can be used to initialize a polygon with lagrangian tracers as opposed to a pointwise discharge. For each lagrangian origin, the box number (one box per origin and ID of lagrangian tracers) and the initial volume of one lagrangian particle must be given. The lagrangian box initial emission is such that the total volume of lagrangian particles is equal to the total volume of the box. Thus, if the box has a volume of <math>6\times 10^{10}\; m^3</math> and the lagrangian initial volume (set in keyword BOXVOLINIC) is <math>6\times 10^5\; m^3</math>, then a total of <math>10^5</math> lagrangian particles will be initialy distributed evenly inside the  box. The higher the number the of lagrangian particles and the longer the time of computation in a linear proportionality so the BOXVOLINIC is a critical parameter to determine the duration of the simulation.

← Older revision		Revision as of 12:52, 27 April 2012
Line 102:		Line 102:

	Regarding the lagrangian particules, there is one output file per box: a LBM file. This file contains the total volume of lagrangian tracers per origin at each time instant, one origin per column.		Regarding the lagrangian particules, there is one output file per box: a LBM file. This file contains the total volume of lagrangian tracers per origin at each time instant, one origin per column.
		+
		+	===Module Hydrodynamic===
		+	BOXFLUXES : ..\General Data\Initial Conditions\Boxes.dat

	===Module WaterProperties===		===Module WaterProperties===

← Older revision		Revision as of 12:48, 27 April 2012
Line 100:		Line 100:

	As for water fluxes the units are, for the BXF file, in m3/s, and for the BXM file in m3.		As for water fluxes the units are, for the BXF file, in m3/s, and for the BXM file in m3.
		+
		+	Regarding the lagrangian particules, there is one output file per box: a LBM file. This file contains the total volume of lagrangian tracers per origin at each time instant, one origin per column.

	===Module WaterProperties===		===Module WaterProperties===

@@ Line 110: / Line 110: @@
   ...
   <endproperty>
 ==See also==

@@ Line 80: / Line 80: @@
 ===Module Lagrangian===
-Boxes can be used to initialize a polygon with lagrangian tracers as opposed to a pointwise discharge. For each lagrangian origin, the box number (one box per origin and ID of lagrangian tracers) and the initial volume of one lagrangian particle must be given. The lagrangian box initial emission is such that the total volume of lagrangian particles is equal to the total volume of the box. Thus, if the box has a volume of <math>6x10^{10}\; m^3</math> and the lagrangian initial volume (set in keyword BOXVOLINIC) is <math>6x10^5\; m^3</math>, then a total of <math>10^5</math> lagrangian particles will be initialy distributed evenly inside the  box. The higher the number the of lagrangian particles and the longer the time of computation in a linear proportionality so the BOXVOLINIC is a critical parameter to determine the duration of the simulation.
+Boxes can be used to initialize a polygon with lagrangian tracers as opposed to a pointwise discharge. For each lagrangian origin, the box number (one box per origin and ID of lagrangian tracers) and the initial volume of one lagrangian particle must be given. The lagrangian box initial emission is such that the total volume of lagrangian particles is equal to the total volume of the box. Thus, if the box has a volume of <math>6\times 10^{10}\; m^3</math> and the lagrangian initial volume (set in keyword BOXVOLINIC) is <math>6\times 10^5\; m^3</math>, then a total of <math>10^5</math> lagrangian particles will be initialy distributed evenly inside the  box. The higher the number the of lagrangian particles and the longer the time of computation in a linear proportionality so the BOXVOLINIC is a critical parameter to determine the duration of the simulation.
   PARTIC_BOX                : ..\General Data\Initial Conditions\Boxes.dat

@@ Line 27: / Line 27: @@
   DT_BOXES                       : 300
-== Sample ==
+=== Sample ===
 This example shows the definition of a box with 4 vertices. By default [[Module BoxDif]] automatically introduces an extra vertice at the end of the list which is equal to the first vertex, thus insuring the polygon is closed.
-=== 2D box file ===
+==== 2D box file ====
   DT_OUTPUT_TIME                : 3600
@@ Line 45: / Line 45: @@
   '''<endpolygon>
-=== 3D box file ===
+==== 3D box file ====
 This example shows the definition of two boxes, defined by the same polygon, but which integrate in the vertical direction, from layer 1 to 5, and from layer 6 to 10.
@@ Line 65: / Line 65: @@
   '''<endpolygon>'''
-== Initialization with Boxes ==
+== Initialization Boxes ==
 Boxes can be used to initialize a waterproperty. The waterproperty concentration for each box must be given ordered along the box id starting from Box 1 to the last Box. Box 0 is set accordingly to the default value of the waterproperty.
-===WaterProperties_x.dat configuration===
+===Module WaterProperties===
 Boxes values are set for Box 1 and Box 2 (3D sample). Default value will be set in Box 0.
   <beginproperty>
@@ Line 78: / Line 78: @@
   ...
   <endproperty>
 == Monitoring Boxes ==
@@ Line 87: / Line 101: @@
 As for water fluxes the units are, for the BXF file, in m3/s, and for the BXM file in m3.
-===WaterProperties_x.dat configuration===
+===Module WaterProperties===
   BOXFLUXES                 : ..\General Data\Initial Conditions\Boxes.dat