MVL-589: Review comments

mevislab.github.io/content/tutorials/basicmechanisms/macromodules/globalmacromodules.md

@@ -49,6 +49,8 @@ right-click {{< mousebutton "right" >}} the macro module to open the context men
 
 {{<alert class="info" caption="Info">}}
 Make sure to chose *Directory Structure* as *self-contained*. This makes sure that all files of your module are stored in a single directory.
+
+Also keep in mind that Python files are only created automatically if selected in the Project Wizard. Converting a local macro to a global macro does NOT create a Python file automatically.
 {{</alert>}}
 
 ![Create global macro module](/images/tutorials/basicmechanics/GUI_04.png "Create global macro module")

mevislab.github.io/content/tutorials/dataobjects/curves/curvesexample1.md

@@ -77,7 +77,7 @@ You can see 2 curves. The second and third columns are printed as separate curve
 If the flag *Split columns into data sets* is set to *TRUE*, then a table with more than two columns is split into different *CurveData* objects. This gives the user the possibility to assign a different style and title for each series.
 
 ### Titles and styles
-Let's do this. Open the panel of the `SoDiagram2D` module and check *Draw legend*. Enter *"Curve1 Curve2"* into the *Title(s)* text box and click *Update* {{<mousebutton "left">}}.
+Let's do this. Open the panel of the `SoDiagram2D` module and check *Draw legend*. Enter *"Curve1 Curve2"* into the *Title(s)* text box of the `CurveCreator` module and click *Update* {{<mousebutton "left">}}.
 
 ![SoRenderArea with Legend](/images/tutorials/dataobjects/curves/SoRenderArea2.png "SoRenderArea with Legend")
 
@@ -139,4 +139,8 @@ For more complex visualizations, you can also use Matplotlib. See examples at [T
 * The `StylePalette` allows you to define the appearance of a curve
 * Details of the different curves can be visualized by using the `SoDiagram2D` module
 
+{{<alert class="info" caption="Additional Information">}}
+The attached example network shows the curves after clicking *Update* on `CurveCreator` module.
+{{</alert>}}
+
 {{< networkfile "examples/data_objects/curves/example1/Curves.mlab" >}}

mevislab.github.io/content/tutorials/dataobjects/markerobjects.md

@@ -37,6 +37,10 @@ It is, for example, possible to set markers by using the `MaskToMarkers`-module
 
 Learn how to convert markers by building the following network. Press the *Reload* buttons of the modules `MaskToMarkers` and `MarkersToSurface` to enable the conversion. Now you can see both the markers and the created surface in the module `SoExaminerViewer`. Use the toggle options of `SoToggle` and `SoWEMRenderer` to enable or disable the visualization of markers and surface.
 
+{{<alert class="info" caption="Info">}}
+Make sure to set *Lower Threshold* of the `MaskToMarkers` module to 1000 so that the 3D object is rendered correctly.
+{{</alert>}}
+
 ![Convert Markers](/images/tutorials/dataobjects/markers/DO_Markers_02.png "Convert Markers")
 
 ## Exercise

mevislab.github.io/content/tutorials/dataobjects/surfaces/surfaceexample4.md

@@ -80,6 +80,8 @@ We need to change the size of `SoCube1` and `SoCube2` to form planes, which cove
 
 ![Interactive dragging of objects](/images/tutorials/dataobjects/surfaces/DO10_09.png "Interactive dragging of objects")
 
+Change width, height and depth of the 3 cubes so that each of them represents one plane. The values need to be set to (0, 2, 2), (2, 0, 2) and (2, 2, 0). 
+
 As a next step, we like to make sure, that all planes always intersect the object, even though the object is moved. To to this, we need to synchronize the field *Translation* of all `SoMIDraggerContainer` modules and the module `WEMModify`. Draw parameter connections from one *Translation* field to the next, as shown below.
 
 ![Interactive dragging of objects](/images/tutorials/dataobjects/surfaces/DO10_10.png "Interactive dragging of objects")

mevislab.github.io/content/tutorials/dataobjects/surfaces/surfaceexample5.md

@@ -72,7 +72,7 @@ You can now interactively drag the WEM insight the viewer.
 
 ![Dragging the WEM](/images/tutorials/dataobjects/surfaces/DO12_11.png "Dragging the WEM")
 
-At last, exchange the module `WEMInitialize` with `WEMLoad` and load *venus.off*. You can decrease the *Face Alpha* in the panel of `SoWEMRenderer1` to make that WEM transparent.
+At last, exchange the `WEMInitialize` module showing the cube with `WEMLoad` and load *venus.off*. You can decrease the *Face Alpha* in the panel of `SoWEMRenderer1` to make that WEM transparent.
 
 ![WEM transparency](/images/tutorials/dataobjects/surfaces/DO12_12.png "WEM transparency")
 

mevislab.github.io/content/tutorials/summary/summary3.md

@@ -320,9 +320,9 @@ Python scripting is always necessary in case you do not want to re-use an existi
 Events can be raised by the user (i.e. by clicking a button) or by the application itself (i.e. when the window is opened).
 
 #### 3D visualization selection
-You will now add a selection possibility for the 3D viewer. This allows you to define the visibility of the 3D objects Image, Segmentation or Both.
+You will now add a selection possibility for the 3D viewer. This allows you to define the visibility of the 3D objects File, Segmented or Both.
 
-Add another field to your *Parameters* section. Define the field as *selected3DView* and set *type = Enum* and *values =Segmentation,Image,Both*.
+Add another field to your *Parameters* section. Define the field as *selected3DView* and set *type = Enum* and *values =Segmented,File,Both*.
 
 Add a *ComboBox* to your *Settings* and use the field name defined above. Set *alignX = Left* and *editable = False* and open the *Window* of the Macro module in MeVisLab.
 
@@ -349,9 +349,9 @@ Right-click {{< mousebutton "right" >}} the command select {{< menuitem "Create
 from mevis import *
 
 def viewSelectionChanged(field):
-  if field.value == "Segmentation":
+  if field.value == "Segmented":
     ctx.field("SoSwitch.whichChild").value = 0
-  if field.value == "Image":
+  if field.value == "File":
     ctx.field("SoSwitch.whichChild").value = 1
   if field.value == "Both":
     ctx.field("SoSwitch.whichChild").value = 2
@@ -667,9 +667,9 @@ Window {
 from mevis import *
 
 def viewSelectionChanged(field):
-  if field.value == "Segmentation":
+  if field.value == "Segmented":
     ctx.field("SoSwitch.whichChild").value = 0
-  if field.value == "Image":
+  if field.value == "File":
     ctx.field("SoSwitch.whichChild").value = 1
   if field.value == "Both":
     ctx.field("SoSwitch.whichChild").value = 2

mevislab.github.io/content/tutorials/summary/summary4.md

@@ -170,6 +170,7 @@ def TEST_RegionGrowing():
   ASSERT_EQ(region_growing_voxels, 0)
   ASSERT_EQ(region_growing_volume, 0)
   # Set marker and expect volumes and voxels to be larger than 0
+  reset()
   setMarkerPosition(marker_location)
   region_growing_voxels = ctx.field("TutorialSummary.RegionGrowing.numSegmentedVoxels").value
   region_growing_volume = ctx.field("TutorialSummary.RegionGrowing.segmentedVolume_ml").value
@@ -386,7 +387,7 @@ The results of your tests are shown in a Report Viewer. You can also export the
 ![ReportViewer](/images/tutorials/summary/Example4_8.png "ReportViewer")
 
 ### Screenshots
-You can also add screenshots of your inventor scene to the report. Add the following to your Python script and a Snapshot of your 3D scene is attached to your test report:
+You can also add screenshots of your inventor scene to the report. Add the following to your Python script wherever you want to capture the content of the `SoCameraInteraction` module and a Snapshot of your 3D scene is attached to your test report:
 
 {{< highlight filename="<TEST_CASE_NAME>.py" >}}
 ```Python

mevislab.github.io/content/tutorials/testing/testingexample3.md

@@ -42,7 +42,7 @@ Add a list for test data to be used as input and a prefix for the path of the te
 {{< highlight filename="IterativeTestCase.py" >}}
 ```Python
 from mevis import *
-from TestSupport import Base, Fields, ScreenShot
+from TestSupport import Base, Fields, ScreenShot, Logging
 from TestSupport.Macros import *
 
 patientPathPrefix = "$(DemoDataPath)/BrainMultiModal/"