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Dirk: /* References */

2016-09-15T21:53:02Z

‎References

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Dirk: Created page with "== The Main Window == After starting OpenOpal, the main '''GUI''' appears (Fig. 1). The figure contains an example for an optimization using 4 '''Module'''s. Each module has a..."

2013-02-04T14:04:51Z

Created page with "== The Main Window == After starting OpenOpal, the main '''GUI''' appears (Fig. 1). The figure contains an example for an optimization using 4 '''Module'''s. Each module has a..."

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== The Main Window ==

After starting OpenOpal, the main '''GUI''' appears (Fig. 1). The figure contains an example for an optimization using 4 '''Module'''s. Each module has a name and an unique ID. OpenOpal is a strictly modular software. All functionality for automated optimization and machine learning is encoded in the modules. Here:

Module 1 (<code>OptAlgCMA</code>) is an optimization algorithm. It is connected via Module 3 (<code>Protocoller</code>) with Module 2 (<code>ProblemSimple</code>). Module 2 contains the optimization problem, i.e. the function to minimize. Here, it is a simple continuous, quadratic function.
Module 3 (<code>Protocoller</code>) is a protocoling module, i.e. it stores all evaluated solutions of an optimization run. These solutions can be visualized with Module 4 (<code>DataViewer</code>).
[[Image:OpenOpalMainGUI.png|frame|center|Figure 1: Main GUI of OpenOpal]]

== Adding, Editing, and Connecting Modules ==

Right-clicking on the dotted area or on a module opens a dialogue as shown in Fig. 2. This dialogue supports:
* adding modules (if clicked on a free space)
* removing modules or changing the options of a module when clicking on a module
* adding/removing connections between modules
* checking and running modules
In Fig. 2, the right-click is made on Module 4, e.g. for setting the options of this module.

[[Image:OpenOpalModuleRightclick.png|frame|center|Figure 2: Editing Modules]]

== Running an Optimization ==

Right-clicking Module 1 and selecting the option <code>Run</code> starts an optimization. The standard output of the optimization is given in the lower part of the main window in Fig. 3.

[[Image:OpenOpalOptimization.png|frame|center|Figure 3: Running an Optimization]]

== Postprocessing an Optimization ==

Right-clicking Module 4 and selecting the option <code>Run</code> starts an the data viewer. Figure 4 shows the evolution of the objective function ''f'' over the number of evaluations. As the objective function is a simple quadratic function (x^2), the minimal function value is zero, which is approximated by 1e-12.

[[Image:OpenOpalDataViewer.png|frame|center|Figure 4: Postprocessing an Optimization with the DataViewer module. ]]

== References ==

Input file behind screen shots is stored in the SVN repository ToDo: Link.

@@ Zeile 1: / Zeile 1: @@
 == The Main Window ==
-After starting software, the main '''GUI''' appears (Fig. 1).  The figure  contains an example for an optimization using 4 '''Module'''s. Each module has a name and an unique ID. The software is a strictly modular. All functionality for automated optimization and machine learning is encoded in the modules. Here:
+After starting software, the main '''GUI''' appears (Fig. 1).  The figure  contains an example for an optimization using 4 '''Module'''s. Each module has a name and an unique ID. The software is strictly modular. All functionality for automated optimization and machine learning is encoded in the modules. Here:
 Module 1 (<code>OptAlgCMA</code>) is an optimization algorithm. It is connected via Module 3 (<code>Protocoller</code>) with Module 2 (<code>ProblemSimple</code>). Module 2 contains the optimization problem, i.e. the function to minimize. Here, it is a simple continuous, quadratic function.

← Nächstältere Version		Version vom 15. September 2016, 21:53 Uhr
Zeile 29:		Zeile 29:

	[[Image:DataViewer.png\|frame\|center\|Figure 4: Postprocessing an Optimization with the DataViewer module. ]]		[[Image:DataViewer.png\|frame\|center\|Figure 4: Postprocessing an Optimization with the DataViewer module. ]]
−
−	~~== References ==~~
−
−	~~Input file behind screen shots is stored in the SVN repository ToDo: Link.~~

@@ Zeile 5: / Zeile 5: @@
 Module 1 (<code>OptAlgCMA</code>) is an optimization algorithm. It is connected via Module 3 (<code>Protocoller</code>) with Module 2 (<code>ProblemSimple</code>). Module 2 contains the optimization problem, i.e. the function to minimize. Here, it is a simple continuous, quadratic function.
 Module 3 (<code>Protocoller</code>) is a protocoling module, i.e. it stores all evaluated solutions of an optimization run. These solutions can be visualized with Module 4 (<code>DataViewer</code>).
-[[Image:MainGUI.png|frame|center|Figure 1: Main GUI of OpenDINO]]
+[[Image:MainGUI.png|frame|center|Figure 1: Main GUI of OpenDino]]
 == Adding, Editing, and Connecting Modules ==

@@ Zeile 5: / Zeile 5: @@
 Module 1 (<code>OptAlgCMA</code>) is an optimization algorithm. It is connected via Module 3 (<code>Protocoller</code>) with Module 2 (<code>ProblemSimple</code>). Module 2 contains the optimization problem, i.e. the function to minimize. Here, it is a simple continuous, quadratic function.
 Module 3 (<code>Protocoller</code>) is a protocoling module, i.e. it stores all evaluated solutions of an optimization run. These solutions can be visualized with Module 4 (<code>DataViewer</code>).
-[[Image:OpenOpalMainGUI.png|frame|center|Figure 1: Main GUI of OpenDINO]]
+[[Image:MainGUI.png|frame|center|Figure 1: Main GUI of OpenDINO]]
 == Adding, Editing, and Connecting Modules ==
@@ Zeile 16: / Zeile 16: @@
 In Fig. 2, the right-click is made on Module 4, e.g. for setting the options of this module.
-[[Image:OpenOpalModuleRightclick.png|frame|center|Figure 2: Editing Modules]]
+[[Image:ModuleRightclick.png|frame|center|Figure 2: Editing Modules]]
 == Running an Optimization ==
@@ Zeile 22: / Zeile 22: @@
 Right-clicking Module 1 and selecting the option <code>Run</code> starts an optimization. The standard output of the optimization is given in the lower part of the main window in Fig. 3.
-[[Image:OpenOpalOptimization.png|frame|center|Figure 3: Running an Optimization]]
+[[Image:Optimization.png|frame|center|Figure 3: Running an Optimization]]
 == Postprocessing an Optimization ==
@@ Zeile 28: / Zeile 28: @@
 Right-clicking Module 4 and selecting the option <code>Run</code> starts an the data viewer. Figure 4 shows the evolution of the objective function ''f'' over the number of evaluations. As the objective function is a simple quadratic function (x^2), the minimal function value is zero, which is approximated by 1e-12.
-[[Image:OpenOpalDataViewer.png|frame|center|Figure 4: Postprocessing an Optimization with the DataViewer module. ]]
+[[Image:DataViewer.png|frame|center|Figure 4: Postprocessing an Optimization with the DataViewer module. ]]
 == References ==
 Input file behind screen shots is stored in the SVN repository ToDo: Link.