fixing sphinx warnings part 1

Author: piotrkluba

docs/.vuepress/template.md

@@ -1,3 +1,7 @@
+---
+orphan: true
+---
+
 # Form Name
 
 *A concise description of the purpose of this form goes here.*

docs/02.simulation-setup/01.flow-conditions/02.farfield.md

@@ -10,15 +10,15 @@
 
 ## **Detailed descriptions**
 
-#### **Type**
+### **Type**
 
 *Setting allowing the user to choose between generating the farfield in the workflow and providing the farfield as a part of uploaded geometry.*
 
 **Possible selections:**
 - `Automated farfield` - Farfield generated by Flow360 around the geometry
 - `User defined farfield` - Farfield geometry provided by the user, has to be assigned to an appropriate boundary condition in [Boundary conditions](../03.flow-solver/01.boundary-conditions/02.freestream.md)
 
-#### **Method**
+### **Method**
 
 *Method of defining the size of an auto-generated farfield.*
 

docs/02.simulation-setup/02.mesh/01.mesh.md

@@ -4,7 +4,6 @@
 
 The Meshing Defaults define the baseline mesh generation parameters that control element size progression, boundary layer characteristics, and surface mesh properties.
 
----
 
 ## **Available Parameters**
 
@@ -19,12 +18,12 @@ The Meshing Defaults define the baseline mesh generation parameters that control
 | **Gap treatment strength** | Controls mesh behavior in narrow gaps |
 | **Preserve thin geometry** | Specifies whether thin geometry features should be resolved accurately during surface meshing|
 
----
+
 
 ## **Detailed Descriptions**
 
 ### **Surface Mesh Parameters**
----
+
 #### **Surface edge growth rate**
 
 *Controls the size progression of mesh elements grown from edges, affecting the transition between regions of different refinement (anisotropic to isotropic).*
@@ -61,7 +60,7 @@ The Meshing Defaults define the baseline mesh generation parameters that control
 >  - Lower values capture curvature more accurately but increase mesh density
 
 ### **Volume Mesh Parameters**
----
+
 #### **Boundary layer growth rate**
 
 *Defines the growth rate of prismatic layers in the boundary layer region.*
@@ -86,7 +85,6 @@ The Meshing Defaults define the baseline mesh generation parameters that control
 >  - Should be calculated based on Reynolds number and desired y+ value
 
 ### **Advanced Parameters**
----
 
 #### **Refinement factor**
 

docs/02.simulation-setup/02.mesh/03.refinements/README.md

@@ -155,4 +155,5 @@ meshing=MeshingParams(
 ./04.passive-spacing.md
 ./05.uniform-refinement.md
 ./06.axisymmetric-refinement.md
+./07.geometry-refinement.md
 ```

docs/02.simulation-setup/03.flow-solver/03.physics/01.fluid/05.stopping-criterion.md

@@ -16,8 +16,6 @@ The Fluid model consists of five primary components, each documented in detail i
 
 4. [**Initial Condition**](./04.initial-condition.md): Defines the starting flow state for the simulation, which can significantly impact convergence rates and stability, especially for complex flows.
 
-5. [**Stopping Criterion**](./05.stopping-criterion.md): Allows for automatic simulation termination based on the convergence of a specified monitored field.
-
 ## **Configuration Example**
 
 Below is a representative example of a Fluid model configuration (shown for reference purposes):

docs/02.simulation-setup/03.flow-solver/03.physics/01.fluid/README.md

@@ -2,8 +2,6 @@
 
 *Time-averaging Volume Output in Flow360 allows you to calculate and visualize time-averaged flow variables throughout the entire computational domain. This is essential for statistical analysis of unsteady flows and understanding mean flow characteristics.*
 
----
-
 ## **Available Options**
 
 | *Option* | *Description* | *Applicable* |
@@ -16,8 +14,6 @@
 | **Frequency offset** | Time step at which to start the output animation | when **Save interval** is `Custom` |
 
 
----
-
 ## **Detailed Descriptions**
 
 ### **Output fields**
@@ -53,7 +49,7 @@
 
 ### **Save interval**
 
-*Choos the points in the simulaton where the results are saved.*
+*Choose the points in the simulaton where the results are saved.*
 
 - **Default:** `Save at end`
 - **Options:**
@@ -185,6 +181,4 @@ simulation_params = fl.SimulationParams(
 )
 ```
 
-</details>
-
----
+</details>

docs/02.simulation-setup/04.output/02.outputs-list/02.time-averaging-volume-output.md

@@ -65,7 +65,7 @@ Surface probe outputs share the same output fields that are available for [Surfa
 - Choose descriptive names for both probes and outputs to easily identify them in post-processing.
 - For boundary layers, place points slightly away from the surface and project them to monitor properties at specific locations.
 
-#### Efficient Probe Placement
+**Efficient Probe Placement:**
 
 - When monitoring airfoil sections, place point arrays along chord lines at different span positions.
 - For symmetric geometries, consider placing probes on only one side to reduce output data volume.

docs/02.simulation-setup/04.output/02.outputs-list/09.surface-probe-outputs.md

@@ -169,11 +169,13 @@ User defined expressions with dimensions. By default, the following expressions
 ./05.slice-output.md
 ./06.time-averaging-slice-output.md
 ./07.probe-outputs.md
-./08.Time-averaging-probe-outputs.md
+./08.time-averaging-probe-outputs.md
 ./09.surface-probe-outputs.md
 ./10.surface-slice-output.md
 ./11.isosurface-output.md
 ./12.time-averaging-isosurface-output.md
 ./13.aeroacoustic-output.md
 ./15.streamline-output.md
+./00.output-fields.md
+./14.output-formats.md
 ```