Difference between revisions of "OpenFOAM/C3/Flow-over-a-flat-plate/English"
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|- | |- | ||
| Slide 1 | | Slide 1 | ||
− | | Hello and welcome to the spoken tutorial on Flow over a flat plate using | + | | Hello and welcome to the spoken tutorial on '''Flow over a flat plate using OpenFOAM'''. |
|- | |- | ||
Line 17: | Line 17: | ||
| In this tutorial I will teach you about | | In this tutorial I will teach you about | ||
− | * Geometry of the flat plate | + | * Geometry of the '''flat plate''' |
− | * Changing the grid spacing in '''meshing''' | + | * Changing the '''grid spacing''' in '''meshing''' |
− | * Post | + | * '''Post processing''' results in '''ParaView''' and |
− | * Visualizing using '''Vector Plots''' | + | * '''Visualizing''' using '''Vector Plots''' |
|- | |- | ||
Line 47: | Line 47: | ||
| Slide 5: Flow over Flat Plate | | Slide 5: Flow over Flat Plate | ||
− | |'''Flow over flat plate''' is a | + | |'''Flow''' over '''flat plate''' is a fundamental problem in '''fluid mechanics'''. |
|- | |- | ||
Line 53: | Line 53: | ||
Flow over a flat plate diagram | Flow over a flat plate diagram | ||
− | | We can visualise the growth of the '''boundary layer''' | + | | We can '''visualise''' the growth of the '''boundary layer'''. |
− | '''Boundary layer''' is a very thin region above the body | + | '''Boundary layer''' is a very thin region above the body where the velocity is 0.99 times the '''free stream velocity'''. |
− | + | ||
− | where the velocity is 0.99 times the '''free stream velocity''' | + | |
|- | |- | ||
| Slide 7: Diagram of boundary conditions. | | Slide 7: Diagram of boundary conditions. | ||
− | | This is a ''' | + | | This is a diagram of the '''flow''' over the '''flat plate'''. |
− | The''' boundary conditions''' are given as follows | + | The''' boundary conditions''' are given as follows- |
*You have the '''Inlet''' | *You have the '''Inlet''' | ||
− | * | + | *The '''Plate''' |
*'''Top''' which is the '''Farfield''' | *'''Top''' which is the '''Farfield''' | ||
*and '''Outlet''' which is the''' pressure outlet boundary''' | *and '''Outlet''' which is the''' pressure outlet boundary''' | ||
Line 72: | Line 70: | ||
| Slide 8: Inlet parameters | | Slide 8: Inlet parameters | ||
| | | | ||
− | * The Free stream velocity ''' | + | * The '''Free stream velocity U''' is '''1 m/s''', and |
− | * | + | * We are solving this for a '''Reynolds number (Re) = 100''' |
|- | |- | ||
− | | Click on | + | | Click on Home>> OpenFoam |
− | |Now let us | + | |Now let us go to the '''Home''' folder. |
− | + | In the '''Home''' folder, click on the '''OpenFoam''' folder. | |
− | + | |- | |
+ | | Click on Run >> Tutorials | ||
+ | |Then go to the '''Run''' directory. | ||
− | ''' | + | You will see '''Tutorials.''' Click on it. |
− | ''' | + | |- |
+ | | Click on Incompressible >> SimpleFoam | ||
+ | |Scroll down and then click on '''Incompressible'''. | ||
− | + | Scroll down. | |
− | + | You will see the '''simpleFoam '''folder, click on it. | |
− | This '''solver''' suits our case | + | This '''solver''' suits our '''case'''. |
|- | |- | ||
Line 98: | Line 100: | ||
| In this, create a '''folder''' by the name '''flatplate''' | | In this, create a '''folder''' by the name '''flatplate''' | ||
− | Right click '''Create New Folder | + | Right click '''Create New Folder flatplate''' |
|- | |- | ||
− | | Double-click '''pitzdaily '''folder | + | | Double-click '''pitzdaily '''folder. |
− | | Now, let us open the '''pitzdaily case''' | + | | Now, let us open the '''pitzdaily case'''. |
|- | |- | ||
Line 109: | Line 111: | ||
|- | |- | ||
− | | Select '''0 | + | | Select '''0,constant '''and '''system '''folders |
− | | Copy the | + | | Copy the three folders '''0, constant '''and '''system'''. |
|- | |- | ||
− | | | + | | Ctrl + C. |
− | | Copy this | + | | Copy this. |
|- | |- | ||
− | | Go back to '''SimpleFoam''' >> '''flatplate '''folder | + | | Go back to '''SimpleFoam''' >> '''flatplate '''folder. |
− | Paste them there | + | Paste them there. |
− | | Now let us go one level back | + | | Now let us go one level back. |
− | Paste these three | + | Paste these three folders inside the''' flatplate '''folder. |
|- | |- | ||
| Click on '''constant >> polyMesh''' | | Click on '''constant >> polyMesh''' | ||
− | | Open the '''constant | + | | Open the '''constant''' folder and then the '''polyMesh''' folder. |
|- | |- | ||
| | | | ||
− | | Change the geometry and boundary condition names in the '''blockMeshDict '''file | + | | Change the '''geometry''' and '''boundary condition''' names in the '''blockMeshDict '''file. |
|- | |- | ||
− | | | + | |Open '''blockMeshDict''' file >> Scroll down. |
| I have already made the changes. | | I have already made the changes. | ||
− | Let us open the '''blockMeshDict''' file . Scroll down | + | Let us open the '''blockMeshDict''' file. Scroll down. |
− | The geometry is in '''meters''' | + | The '''geometry''' is in '''meters'''. |
|- | |- | ||
| | | | ||
− | | We have set the '''dimensions''' of the '''flatplate''' | + | | We have set the '''dimensions''' of the '''flatplate'''. |
|- | |- | ||
| Simplegrading (1 3 1) | | Simplegrading (1 3 1) | ||
− | | You can see the '''simpleGrading ''' | + | | You can see the '''simpleGrading.''' |
− | It is kept as (1 3 1) as we need a finer '''mesh''' near the plate | + | It is kept as (1 3 1) as we need a finer '''mesh''' near the '''plate'''. |
|- | |- | ||
− | | | + | |Go two '''levels''' back |
− | | Now close this | + | | Now close this. |
− | Go two '''levels''' back | + | Go two '''levels''' back. |
|- | |- | ||
− | | | + | |Make changes in the '''boundary condition''' |
− | | Similarly, make changes in the '''boundary condition''' names inside the | + | | Similarly, make changes in the '''boundary condition''' names inside the files in the '''0''' folder. |
− | These | + | These files have '''pressure, velocity''' and '''wall functions'''. |
|- | |- | ||
− | | | + | |Go one '''level''' back. |
− | + | | To calculate the values of '''wall functions''', please refer to the earlier '''tutorials''' in the '''OpenFoam''' series. | |
− | + | ||
− | + | ||
− | please refer to the earlier '''tutorials''' in the '''OpenFoam''' series | + | |
− | Let us go one '''level''' back | + | Let us go one '''level''' back. |
|- | |- | ||
| | | | ||
− | | The '''system''' folder can be kept '''default''' | + | | The '''system''' folder can be kept '''default'''. |
− | Let us close this | + | Let us close this. |
|- | |- | ||
− | |Let us | + | |Let us open the '''terminal''' window : |
Press Ctrl+Alt+t keys simultaneously | Press Ctrl+Alt+t keys simultaneously | ||
− | | Now let us open the '''terminal | + | | Now let us open the '''terminal '''window. |
− | In the '''terminal | + | In the '''terminal''' window, type '''run '''and press '''Enter'''. |
|- | |- | ||
| Type cd tutorials | | Type cd tutorials | ||
− | | Now type '''cd space tutorials '' press''' Enter''' | + | | Now type '''cd space tutorials '' press''' Enter'''. |
|- | |- | ||
| Type cd incompressible | | Type cd incompressible | ||
− | | Now type '''cd incompressible '''press''' Enter''' | + | | Now type '''cd incompressible '''press''' Enter'''. |
|- | |- | ||
| Type cd simpleFoam | | Type cd simpleFoam | ||
− | | Now type '''cd space simpleFoam '''press''' Enter''' | + | | Now type '''cd space simpleFoam '''press''' Enter'''. |
|- | |- | ||
| Type ls | | Type ls | ||
− | | Now type '''ls''' and press '''Enter''' | + | | Now type '''ls''' and press '''Enter'''. |
|- | |- | ||
Line 207: | Line 206: | ||
|- | |- | ||
| Type cd flatplate | | Type cd flatplate | ||
− | | Now type '''cd space flatplate '''and press '''Enter''' | + | | Now type '''cd space flatplate '''and press '''Enter'''. |
|- | |- | ||
| Type ls | | Type ls | ||
− | | Now type '''ls''' and press '''Enter''' | + | | Now type '''ls''' and press '''Enter'''. |
|- | |- | ||
| | | | ||
− | | You can see the three | + | | You can see the three folders '''0, constant''' and '''system'''. |
|- | |- | ||
| Type blockMesh | | Type blockMesh | ||
− | | Now, we will mesh the geometry. | + | | Now, we will mesh the '''geometry'''. |
− | We are using a '''course mesh''' for this problem | + | We are using a '''course mesh''' for this problem. |
− | '''Meshing''' can be done by typing '''blockMesh''' in the '''terminal''' | + | '''Meshing''' can be done by typing '''blockMesh''' in the '''terminal'''. |
|- | |- | ||
| | | | ||
− | | Press '''Enter''' | + | | Press '''Enter'''. |
− | '''Meshing''' has been done | + | '''Meshing''' has been done. |
|- | |- | ||
| | | | ||
− | | Note that if there is some error in the '''blockMesh''' file | + | | Note that if there is some error in the '''blockMesh''' file. |
− | it will be shown in the '''terminal''' window | + | it will be shown in the '''terminal''' window. |
|- | |- | ||
| Type paraFoam | | Type paraFoam | ||
− | | To view the geometry, type | + | | To view the '''geometry''', type '''paraFoam''' and press '''Enter'''. |
− | + | ||
− | + | ||
|- | |- | ||
− | | Paraview window click on APPLY button | + | | '''Paraview''' window >> click on '''APPLY''' button |
− | | After the '''ParaView''' window opens, on the left hand side of the '''object inspector''' menu, click '''Apply''' | + | | After the '''ParaView''' window opens, on the left hand side of the '''object inspector''' menu, click '''Apply'''. |
− | We can see the '''geometry''' | + | We can see the '''geometry'''. |
− | Close the '''ParaView''' window | + | |- |
+ | |Close the '''ParaView''' window. | ||
+ | |Close the '''ParaView''' window. | ||
− | Let me switch back to the''' slides''' | + | Let me switch back to the''' slides'''. |
|- | |- | ||
| Slide 9: solver | | Slide 9: solver | ||
− | | The solver we are using here is '''simpleFoam | + | | The '''solver''' we are using here is '''simpleFoam''' |
− | + | ||
− | + | ||
− | and''' turbulent''' | + | '''SimpleFoam''' is a '''steady state solver '''for *'''incompressible''' |
+ | *and''' turbulent flows''' | ||
|- | |- | ||
Line 266: | Line 264: | ||
type simpleFoam | type simpleFoam | ||
− | | Let me switch back to the '''terminal '''window | + | | Let me switch back to the '''terminal '''window. |
− | In the '''terminal | + | In the '''terminal''' window, type '''simpleFoam''' and press '''Enter'''. |
− | You will see the '''iterations''' running in the '''terminal '''window | + | You will see the '''iterations''' running in the '''terminal '''window. |
|- | |- | ||
| Type paraFoam | | Type paraFoam | ||
− | | Once the solving is done, type '''paraFoam''' to view the results | + | | Once the solving is done, type '''paraFoam''' to view the results. |
|- | |- | ||
− | | In the Paraview window click on APPLY button on left hand side | + | | In the '''Paraview''' window click on '''APPLY''' button on left hand side |
− | | On the left hand side of the '''Object Inspector''' menu, click '''Apply | + | | On the left hand side of the '''Object Inspector''' menu, click '''Apply''' to view the '''geometry'''. |
|- | |- | ||
| Properties | | Properties | ||
− | | Scroll down the '''properties''' panel of the '''Object Inspector''' menu for '''time step | + | | Scroll down the '''properties''' panel of the '''Object Inspector''' menu for '''time step, regions''' and '''fields'''. |
|- | |- | ||
| Change the drop down menu from Solid Color to U | | Change the drop down menu from Solid Color to U | ||
− | | To view the '''contours''' from the | + | | To view the '''contours''' from the drop down menu, |
− | + | *in the '''Active Variable Control '''menu, | |
− | in the '''Active Variable Control '''menu, | + | *change from '''solid color''' to '''capital U''' |
− | + | ||
− | change from '''solid color''' to '''capital U''' | + | |
|- | |- | ||
| | | | ||
− | | You can see the initial condition of the '''velocity''' | + | | You can see the initial '''condition''' of the '''velocity'''. |
|- | |- | ||
| VCR control | | VCR control | ||
− | | Now on top of the '''ParaView''' window, you will see the '''VCR''' control | + | | Now on top of the '''ParaView''' window, you will see the '''VCR''' control. |
|- | |- | ||
| Click on Play button of VCR control | | Click on Play button of VCR control | ||
− | | Click on the '''Play''' button | + | | Click on the '''Play''' button. |
|- | |- | ||
| | | | ||
− | | You will see the '''contour''' of '''Pressure''' or '''Velocity''' on the flat plate accordingly | + | | You will see the '''contour''' of '''Pressure''' or '''Velocity''' on the '''flat plate''' accordingly. |
|- | |- | ||
| Toggle on the '''Color legend''' | | Toggle on the '''Color legend''' | ||
− | | This is the '''velocity contour''' | + | | This is the '''velocity contour'''. |
− | '''Toggle''' on the '''Color legend''' | + | '''Toggle''' on the '''Color legend'''. |
|- | |- | ||
| Color legend left hand side top icon | | Color legend left hand side top icon | ||
− | | To do this, click on the '''color legend '''icon on the '''Active Variable Control''' menu | + | | To do this, click on the '''color legend '''icon on the '''Active Variable Control''' menu. |
|- | |- | ||
| Click on APPLY button | | Click on APPLY button | ||
− | | Click '''Apply''' in the '''Object inspector '''menu | + | | Click '''Apply''' in the '''Object inspector '''menu. |
|- | |- | ||
| Click on Display | | Click on Display | ||
− | | In the '''Object inspector '''menu, click on '''Display''' | + | | In the '''Object inspector '''menu, click on '''Display'''. |
|- | |- | ||
| Click on rescale to data range | | Click on rescale to data range | ||
− | | | + | |Scroll down and click on '''Rescale to data range'''. |
|- | |- | ||
| Shift color legend on top of the geometry | | Shift color legend on top of the geometry | ||
− | | Let me shift this '''Color legend''' on top | + | | Let me shift this '''Color legend''' on top. |
|- | |- | ||
Line 342: | Line 338: | ||
|- | |- | ||
− | | | + | |Go to '''Properties''' |
− | | Go to the '''Properties''' in '''Object Inspector menu''' | + | | Go to the '''Properties''' in '''Object Inspector menu'''. |
|- | |- | ||
− | | | + | |Click '''Apply''' |
− | | Click '''Apply''' on the left hand side of '''Object Inspector | + | | Click '''Apply''' on the left hand side of '''Object Inspector''' menu. |
|- | |- | ||
| Changing vector size | | Changing vector size | ||
− | | You can change the number of '''vectors''' by changing their size at the bottom | + | | You can change the number of '''vectors''' by changing their size at the bottom. |
|- | |- | ||
− | | Scroll down and click on | + | | Scroll down and click on '''Edit''' button |
set scale factor 0.1 | set scale factor 0.1 | ||
− | | Also, the size of the '''vectors''' can be changed by | + | | Also, the size of the '''vectors''' can be changed by clicking on the '''Edit''' button. |
− | The '''set scale | + | The '''set scale factor''' can be changed to '''0.1''' |
|- | |- | ||
− | | Click the | + | | Click the '''Apply''' button |
− | | Again, click the '''Apply''' button | + | | Again, click the '''Apply''' button. |
|- | |- | ||
| | | | ||
− | | Now let me zoom this | + | | Now let me zoom this. |
|- | |- | ||
| Click on ZoomToBox icon | | Click on ZoomToBox icon | ||
− | | To do this, in the '''Active Variable Control '''menu, click on the '''zoomToBox '''option | + | | To do this, in the '''Active Variable Control '''menu, click on the '''zoomToBox '''option. |
|- | |- | ||
| | | | ||
− | | And | + | | And zoom over any area that you desire. |
|- | |- | ||
| Parabolic variation of vector plot | | Parabolic variation of vector plot | ||
− | | We can see the '''parabolic variation''' of '''vector plots '''as the '''flow''' moves over the''' plate''' | + | | We can see the '''parabolic variation''' of '''vector plots '''as the '''flow''' moves over the''' plate'''. |
|- | |- | ||
| Delete the vector plot | | Delete the vector plot | ||
− | | Delete this. Now delete the '''vector plot''' | + | | Delete this. Now delete the '''vector plot'''. |
|- | |- | ||
| Corresponding to color of 1 in color legend | | Corresponding to color of 1 in color legend | ||
− | | Also, we can see that the color near to 1 | + | | Also, we can see that the color near to 1 corresponds to the '''velocity''' of '''0.99 '''times the '''free stream velocity'''. |
− | + | ||
− | corresponds to the '''velocity''' of '''0.99 '''times the free stream velocity | + | |
|- | |- | ||
| To plot the data along x and y axis | | To plot the data along x and y axis | ||
− | | We can also plot the '''variation''' of velocity along the '''x '''and '''y '''axes using the '''plot data over line''' | + | | We can also plot the '''variation''' of velocity along the '''x '''and '''y '''axes using the '''plot data over line'''. |
|- | |- | ||
| Slide 10: Summary | | Slide 10: Summary | ||
− | | This brings us to the end of the tutorial | + | | This brings us to the end of the tutorial. |
In this tutorial we learnt : | In this tutorial we learnt : | ||
− | * '''Geometry and meshing''' of the '''flat plate geometry''' and | + | * '''Geometry''' and '''meshing''' of the '''flat plate geometry''' and |
− | * Vector plotting in '''ParaView''' | + | * '''Vector''' plotting in '''ParaView''' |
|- | |- | ||
| Slide 11: Assignment | | Slide 11: Assignment | ||
− | | As an | + | | As an assignment, |
− | Create a '''geometry''' of '''flow over the flat plate''' | + | Create a '''geometry''' of '''flow''' over the '''flat plate'''. |
− | ''' | + | Refine the '''grid spacing''' near the '''plate'''. |
|- | |- |
Latest revision as of 10:56, 16 August 2019
Tutorial: Flow over a flat plate using OpenFOAM.
Script and Narration: Rahul Joshi
Keywords: Video tutorial, CFD, Flat plate, Boundary layer, glyph (vector plotting).
Visual Cue | Narration |
---|---|
Slide 1 | Hello and welcome to the spoken tutorial on Flow over a flat plate using OpenFOAM. |
Slide 2 : Learning Objectives | In this tutorial I will teach you about
|
Slide 3:
System Requirement |
To record this tutorial
I am using
|
Slide 4:
System Requirement
|
|
Slide 5: Flow over Flat Plate | Flow over flat plate is a fundamental problem in fluid mechanics. |
Slide 6: Flow over Flat Plate
Flow over a flat plate diagram |
We can visualise the growth of the boundary layer.
Boundary layer is a very thin region above the body where the velocity is 0.99 times the free stream velocity. |
Slide 7: Diagram of boundary conditions. | This is a diagram of the flow over the flat plate.
The boundary conditions are given as follows-
|
Slide 8: Inlet parameters |
|
Click on Home>> OpenFoam | Now let us go to the Home folder.
In the Home folder, click on the OpenFoam folder. |
Click on Run >> Tutorials | Then go to the Run directory.
You will see Tutorials. Click on it. |
Click on Incompressible >> SimpleFoam | Scroll down and then click on Incompressible.
Scroll down. You will see the simpleFoam folder, click on it. This solver suits our case. |
Right click >> Create new folder >> flatplate | In this, create a folder by the name flatplate
Right click Create New Folder flatplate |
Double-click pitzdaily folder. | Now, let us open the pitzdaily case. |
Zoom in | Let me zoom this. |
Select 0,constant and system folders | Copy the three folders 0, constant and system. |
Ctrl + C. | Copy this. |
Go back to SimpleFoam >> flatplate folder.
Paste them there. |
Now let us go one level back.
Paste these three folders inside the flatplate folder. |
Click on constant >> polyMesh | Open the constant folder and then the polyMesh folder. |
Change the geometry and boundary condition names in the blockMeshDict file. | |
Open blockMeshDict file >> Scroll down. | I have already made the changes.
Let us open the blockMeshDict file. Scroll down. The geometry is in meters. |
We have set the dimensions of the flatplate. | |
Simplegrading (1 3 1) | You can see the simpleGrading.
It is kept as (1 3 1) as we need a finer mesh near the plate. |
Go two levels back | Now close this.
Go two levels back. |
Make changes in the boundary condition | Similarly, make changes in the boundary condition names inside the files in the 0 folder.
These files have pressure, velocity and wall functions. |
Go one level back. | To calculate the values of wall functions, please refer to the earlier tutorials in the OpenFoam series.
Let us go one level back. |
The system folder can be kept default.
Let us close this. | |
Let us open the terminal window :
Press Ctrl+Alt+t keys simultaneously |
Now let us open the terminal window.
In the terminal window, type run and press Enter. |
Type cd tutorials | Now type cd space tutorials press' Enter. |
Type cd incompressible | Now type cd incompressible press Enter. |
Type cd simpleFoam | Now type cd space simpleFoam press Enter. |
Type ls | Now type ls and press Enter. |
We can see the flatplate folder. | |
Type cd flatplate | Now type cd space flatplate and press Enter. |
Type ls | Now type ls and press Enter. |
You can see the three folders 0, constant and system. | |
Type blockMesh | Now, we will mesh the geometry.
We are using a course mesh for this problem. Meshing can be done by typing blockMesh in the terminal. |
Press Enter.
Meshing has been done. | |
Note that if there is some error in the blockMesh file.
it will be shown in the terminal window. | |
Type paraFoam | To view the geometry, type paraFoam and press Enter. |
Paraview window >> click on APPLY button | After the ParaView window opens, on the left hand side of the object inspector menu, click Apply.
We can see the geometry. |
Close the ParaView window. | Close the ParaView window.
Let me switch back to the slides. |
Slide 9: solver | The solver we are using here is simpleFoam
SimpleFoam is a steady state solver for *incompressible
|
Demo :
type simpleFoam |
Let me switch back to the terminal window.
In the terminal window, type simpleFoam and press Enter.
|
Type paraFoam | Once the solving is done, type paraFoam to view the results. |
In the Paraview window click on APPLY button on left hand side | On the left hand side of the Object Inspector menu, click Apply to view the geometry. |
Properties | Scroll down the properties panel of the Object Inspector menu for time step, regions and fields. |
Change the drop down menu from Solid Color to U | To view the contours from the drop down menu,
|
You can see the initial condition of the velocity. | |
VCR control | Now on top of the ParaView window, you will see the VCR control. |
Click on Play button of VCR control | Click on the Play button. |
You will see the contour of Pressure or Velocity on the flat plate accordingly. | |
Toggle on the Color legend | This is the velocity contour.
Toggle on the Color legend. |
Color legend left hand side top icon | To do this, click on the color legend icon on the Active Variable Control menu. |
Click on APPLY button | Click Apply in the Object inspector menu. |
Click on Display | In the Object inspector menu, click on Display. |
Click on rescale to data range | Scroll down and click on Rescale to data range. |
Shift color legend on top of the geometry | Let me shift this Color legend on top. |
Top menu >> Filter > Common > glyph | To visualize the Vector Plot,
go to the Filters Menu > Common > glyph |
Go to Properties | Go to the Properties in Object Inspector menu. |
Click Apply | Click Apply on the left hand side of Object Inspector menu. |
Changing vector size | You can change the number of vectors by changing their size at the bottom. |
Scroll down and click on Edit button
set scale factor 0.1 |
Also, the size of the vectors can be changed by clicking on the Edit button.
The set scale factor can be changed to 0.1 |
Click the Apply button | Again, click the Apply button. |
Now let me zoom this. | |
Click on ZoomToBox icon | To do this, in the Active Variable Control menu, click on the zoomToBox option. |
And zoom over any area that you desire. | |
Parabolic variation of vector plot | We can see the parabolic variation of vector plots as the flow moves over the plate. |
Delete the vector plot | Delete this. Now delete the vector plot. |
Corresponding to color of 1 in color legend | Also, we can see that the color near to 1 corresponds to the velocity of 0.99 times the free stream velocity. |
To plot the data along x and y axis | We can also plot the variation of velocity along the x and y axes using the plot data over line. |
Slide 10: Summary | This brings us to the end of the tutorial.
In this tutorial we learnt :
|
Slide 11: Assignment | As an assignment,
Create a geometry of flow over the flat plate. Refine the grid spacing near the plate. |
Slide 12 : About Spoken tutorials |
http://spoken-tutorial.org/What_is_a_Spoken_Tutorial
|
Slide 13: Spoken Tutorial Worekshops | The Spoken Tutorial Project Team
-Conducts workshops using spoken tutorials -Gives certificates to those who pass an online test -For more details, please write to contact at the rate spoken hyphen tutorial dot org |
Slide 14: Forum to answer questions
|
|
Slide 15: Forum to answer questions
|
|
Slide 16: Lab Migration Project
For more details visit this site: http://cfd.fossee.in/ |
|
Slide 17: Case Study Project
For more details visit this site: http://cfd.fossee.in/ |
|
Slide 18:
Acknowledgement
|
Spoken Tutorial project is a part of the Talk to a Teacher project,
It is supported by the National Mission on Education through ICT, MHRD, Government of India More information on this mission is available at this URL http://spoken-tutorial.org/NMEICT-Intro |
About the contributor | This is Rahul Joshi from IIT BOMBAY signing off
Thanks for joining |