😊😊😊 How to change workspace in Ansys Workbench (Design Modeler)? 😊😊😊

 If U want to change, for example background in Ansys Design Modeler, U only need follow two simple steps. Below You can find short instruction how to do it. 

1. First U need to open Ansys Workbench Workspace 

2. Click on Tools (red frame)  - and pick Options (1) 

3. Next click on Apperance  - Then U can change Graphic Style 

I think , that after changes, your workflow will be more efficient. 

Below U can find other instructions how to change workspace in Ansys Workbench

To change the workspace in DesignModeler ANSYS, you can follow these steps:

• Open Workbench and create a new project or open an existing one.
• Right-click on the Geometry cell and select DesignModeler as the geometry editor. If DesignModeler is not listed, you may need to install it separately from the ANSYS Student website.
• Double-click on the Geometry cell to launch DesignModeler. You will see a default workspace with a 3D view and a tree outline on the left.
• To customize the workspace, you can use the View menu to change the display options, such as grid, axes, units, etc. You can also use the Tools menu to access various tools, such as sketching, modeling, parameters, etc.
• To save the workspace settings, you can use the File menu and select Save Settings As. You can also load a previously saved workspace by selecting Load Settings.
• To exit DesignModeler and return to Workbench, you can use the File menu and select Exit.

I hope this helps you with your question. If you need more information, you can check out these web search results . 😊

To change the background color in ANSYS DesignModeler, you can follow these steps:

• Launch DesignModeler from Workbench by right-clicking on the Geometry cell and selecting DesignModeler as the geometry editor.
• In DesignModeler, go to the View menu and select Background Style. You can choose from Uniform, Gradient, or Image options.
• If you choose Uniform, you can select a single color for the background by clicking on the color box and choosing from the palette.
• If you choose Gradient, you can select two colors for the background by clicking on the color boxes and choosing from the palette. You can also adjust the gradient angle and intensity by dragging the sliders.
• If you choose Image, you can browse for an image file to use as the background. You can also adjust the image position, size, and transparency by dragging the sliders.
• To apply the changes, click OK. You can also save your settings for future use by clicking Save Settings As.

I hope this helps you with your question. If you need more information, you can check out these video tutorials.  😊

💥💥💥 #12steps Ansys Fluent Tutorial Rotating Fan in Steady State 🧐🧐🧐

 Below You can find two parts of tutorial  - how to model rotating fan in Ansys Fluent. The first episode is in Steady State  - frame motion model. 

What is Digital Twin in Ansys and capabilities of dedicated software for this Twin Builder

 A digital twin is a connected, virtual replica of an in-service physical asset that uses simulation and data to mirror the real-world experience of that product¹. A digital twin can be used for system design and optimization, predictive maintenance, and industrial asset management².

Ansys is a software company that provides simulation-based solutions for various engineering domains. Ansys Twin Builder is one of the products that Ansys offers for creating and deploying digital twin models². Ansys Twin Builder allows engineers to build, validate, and deploy simulation-based digital twins with hybrid analytics². Hybrid analytics combines machine learning and physics-based approaches to achieve more accurate predictions².

Some of the capabilities of Ansys Twin Builder are:

- It can integrate real-world data from sensors and IoT platforms with simulation models to create a digital twin that reflects the current state and behavior of the physical asset².

- It can run simulations faster and more efficiently using reduced-order models (ROMs) that capture the essential dynamics of the system without compromising accuracy².

- It can support various types of systems, such as fluid, structural, electromagnetic, thermal, and power systems, using Ansys' multidomain simulation expertise².

- It can validate the performance and reliability of the digital twin using Ansys' solver technology and model libraries².

- It can deploy the digital twin to any platform, such as cloud, edge, or on-premise, using Ansys' runtime capabilities and APIs².

You can find more information about Ansys Twin Builder on the [Ansys website](^2^) or read some case studies and examples on the [Fluid Codes website](^3^) or the [Finite Element Analysis website](^4^).

Source:

(1) Digital Twin Simulation-Based Software | Ansys. https://www.ansys.com/products/digital-twin.

(2) Ansys Twin Builder | Create and Deploy Digital Twin Models. https://www.ansys.com/products/digital-twin/ansys-twin-builder.

(3) Ansys Twin Builder | Create and Deploy Digital Twin Models. https://www.ansys.com/products/digital-twin/ansys-twin-builder.

(4) A working example of a Simulation-enabled Digital Twin. https://www.finiteelementanalysis.com.au/featured/simulation-enabled-digital-twin/.

(5) SIMULATION PRODUCT HANDPRINT: DIGITAL TWINS - Ansys. https://www.ansys.com/content/dam/amp/2022/july/asset-creation/esg-ebooks/ansys-esg-digital-twin.pdf.

What are the generał steps to build Digital Twin in Ansys Twin Builder ? 

The general steps to build a digital twin on Twin Builder Ansys are:

- Build your twin: You need to create a system-level simulation model of your physical asset using Ansys' multidomain simulation expertise and solver technology. You can also integrate third-party tools and 3D models within your system simulation using reduced-order models (ROMs), which are simplifications of 3D models that preserve the essential information and run faster²⁴.

- Validate your twin: You need to verify and validate the performance and reliability of your digital twin model using Ansys' model libraries and test scenarios. You can also compare the simulation results with real-world data from sensors and IoT platforms to calibrate and improve your model².

- Deploy your twin: You need to deploy your digital twin model to any platform, such as cloud, edge, or on-premise, using Ansys' runtime capabilities and APIs. You can also connect your digital twin with real-time data streams from your physical asset and monitor its operation and health remotely².

You can find more information about how to build a digital twin on Twin Builder Ansys on the [Ansys website](^2^) or watch some video tutorials on [YouTube](^1^) ²³.

Source: 

(2) Build, Validate and Deploy Simulation-Based Digital Twins with Ansys. https://www.youtube.com/watch?v=qAsTDoosc2o.

(3) How to Build a Digital Twin from a Systems Simulation | Ansys. https://www.ansys.com/blog/how-to-build-a-digital-twin-from-a-systems-simulation.

(4) Build, Validate and Deploy Simulation-Based Digital Twins with Ansys. https://www.youtube.com/watch?v=qAsTDoosc2o.

💥 #12steps tutorial Ansys Design Modeler How to create plane, patterns and substract volumes 🧐

 A plane in ANSYS Design Modeler is a flat surface that can be used to create sketches or other geometry features. There are different ways to create a plane in ANSYS Design Modeler, depending on the reference geometry and the orientation of the plane.

Some of the methods to create a plane are:

• From Plane: This method creates a new plane by offsetting or rotating an existing plane. You can specify the distance and angle of the transformation, or use the drag handles to adjust the position and orientation of the new plane.
• From Face: This method creates a new plane that is parallel to an existing face of a solid or surface body. You can specify the offset distance from the face, or use the drag handle to move the new plane.
• From Centroid: This method creates a new plane that passes through the centroid of a selected body, edge, or vertex. You can specify the normal direction of the plane, or use the drag handles to rotate the plane.
• From Circle/Ellipse: This method creates a new plane that is tangent to a selected circle or ellipse. You can specify the offset distance from the circle or ellipse, or use the drag handle to move the new plane.
• From Point and Edge: This method creates a new plane that passes through a selected point and is parallel to a selected edge. You can use the drag handles to rotate or move the new plane.
• From Point and Normal: This method creates a new plane that passes through a selected point and has a specified normal direction. You can enter the normal vector components, or use the drag handles to rotate the plane.
• From Three Points: This method creates a new plane that passes through three selected points. The points can be vertices, sketch points, or points on edges or faces.
• From Coordinates: This method creates a new plane that has a specified origin and normal direction. You can enter the coordinates of the origin and the normal vector components, or use the drag handles to adjust the position and orientation of the new plane.

To create a plane using any of these methods, you need to follow these steps:

1. Open ANSYS Design Modeler and create or import your geometry.
2. In the Tree Outline, right-click on XYPlane, YZPlane, or ZXPlane and select Insert > Plane.
3. In the Details View, select the method you want to use from the Type drop-down list.
4. Select the reference geometry (plane, face, edge, vertex, point, circle, ellipse) as required by the method.
5. Specify the parameters (distance, angle, normal vector) as required by the method, or use the drag handles to adjust the position and orientation of the new plane.
6. Click Generate to create the new plane.

You can also watch some video tutorials on how to create planes in ANSYS Design Modeler:

• A tutorial on how to create planes and sketches
• A video on how to create section planes
• A video on how to view results on section planes

I hope this helps you understand how to create planes in ANSYS Design Modeler. 😊

💥💥💥 Strength analysis of rotating FAN Ansys Static Structural Tutorial 🧐

Strength analysis is a type of finite element analysis that is used to determine the stress and strain of a structure or a component under various loads and boundary conditions. ANSYS is a software that provides a comprehensive suite of tools for performing strength analysis and other types of engineering simulations.

If you want to learn more about strength analysis in ANSYS, you can check out some of these resources:

• [A tutorial on how to perform strength analysis of a beam in ANSYS]
• [A video on how to perform strength analysis of a plate in ANSYS]
• [A course on strength analysis using ANSYS]

I hope this helps. 😊

: Finite Element Analysis - an overview | ScienceDirect Topics : ANSYS - Wikipedia : Strength Analysis of Beam in ANSYS - Tutorial for Beginners - YouTube : Strength Analysis of Plate in ANSYS - Tutorial for Beginners - YouTube : Strength Analysis using ANSYS | Udemy

💥 #12steps tutorial Ansys Design Modeler How to draw a fan 🧐

 

Design modeler ansys is a software tool for *geometric modeling* that allows you to create and modify your models in preparation for your analysis in ansys workbench. Ansys workbench is a platform for *computational fluid dynamics (CFD)* and *finite element analysis (FEA)* that can simulate various phenomena involving fluid flow, heat transfer, and chemical reactions. Design modeler ansys is intended for both CFD and FEA users. ¹² #computerscience #engineer #engineering #scienceandtechnology #ansys #fea #cae #simulation #mechanicalengineering #creativity #projects #consultants #industrialengineering #productdesign #productdevelopment #industrialdesign #automotive With design modeler ansys, you can: - Import and export models from various CAD formats, such as SolidWorks, Catia, UG, etc. ¹³ - Create and edit parametric models using sketching, extrusion, revolution, sweep, loft, blend, etc. ¹⁴ - Apply Boolean operations, such as unite, subtract, intersect, etc., to combine or separate models. ¹⁴ - Modify models by adding or removing features, such as holes, fillets, chamfers, etc. ¹⁴ - Create and modify coordinate systems and planes to define the orientation and position of models. ¹⁴ - Define dimensions and constraints to control the size and shape of models. ¹⁴ - Create named selections and body interactions to assign boundary conditions and loads in ansys workbench. ¹⁴ Design modeler ansys has a graphical user interface (GUI) that consists of several panels, such as: - The *tree outline* panel that shows the hierarchy of the model components and allows you to select and edit them. ¹⁴ - The *graphics* panel that displays the model in 3D view and allows you to zoom, pan, rotate, etc. ¹⁴ - The *details view* panel that shows the properties and parameters of the selected component and allows you to change them. ¹⁴ - The *toolbar* panel that contains various icons for creating and modifying models. ¹⁴ - The *message* panel that shows the status and errors of the modeling process. ¹⁴ is better Ansys Design Modeler or Space Claim ??

- Import and export models from various CAD formats, such as SolidWorks, Catia, UG, etc. ¹³ - Create and edit parametric models using sketching, extrusion, revolution, sweep, loft, blend, etc. ¹⁴ - Apply Boolean operations, such as unite, subtract, intersect, etc., to combine or separate models. ¹⁴ - Modify models by adding or removing features, such as holes, fillets, chamfers, etc. ¹⁴ - Create and modify coordinate systems and planes to define the orientation and position of models. ¹⁴ - Define dimensions and constraints to control the size and shape of models. ¹⁴ - Create named selections and body interactions to assign boundary conditions and loads in ansys workbench. ¹⁴ Design modeler ansys has a graphical user interface (GUI) that consists of several panels, such as: - The *tree outline* panel that shows the hierarchy of the model components and allows you to select and edit them. ¹⁴ - The *graphics* panel that displays the model in 3D view and allows you to zoom, pan, rotate, etc. ¹⁴ - The *details view* panel that shows the properties and parameters of the selected component and allows you to change them. ¹⁴ - The *toolbar* panel that contains various icons for creating and modifying models. ¹⁴ - The *message* panel that shows the status and errors of the modeling process. ¹⁴

How to define porosity in Ansys CFX ?

 ANSYS CFX is another software for computational fluid dynamics (CFD) that can also simulate various phenomena involving fluid flow, heat transfer, and chemical reactions. Similar to ANSYS Fluent, ANSYS CFX can also model porous media, such as packed beds, filter papers, perforated plates, etc

To define porosity in ANSYS CFX, you need to specify a domain in which the porous media model is applied and the pressure loss in the flow is determined by your inputs. There are two approaches to set up the porous media model. 

In addition to the source term in the momentum equation, you also need to define the porosity value for the porous domain. The porosity is a dimensionless quantity that indicates the fraction of the domain volume that is occupied by fluid. The porosity affects the calculation of material properties, heat transfer, reaction source terms, and body forces in the porous medium. You can enter a constant value for the porosity or use a user-defined function (UDF) to specify a spatially varying porosity

To define porosity and resistance coefficients in ANSYS CFX using the graphical user interface (GUI), you can follow these steps:

• Go to Domain panel and select the domain that you want to model as porous.
• Enable Porous Media option and click Edit.
• In the Porous Media panel, enter the value for porosity or select UDF option if you have a UDF for porosity.
• Select either Standard or Power-Law option for Resistance Formulation.
• Enter the values for resistance coefficients or select UDF option if you have a UDF for resistance coefficients.
• Click OK to close the Porous Media panel and Apply to close the Domain panel.

To define porosity and resistance coefficients in ANSYS CFX using text commands (TCL), you can follow these steps:

• Enable TCL mode by using the command: tcl
• In TCL mode, type set domain-name [get "Domain:domain-name"] where domain-name is your domain name.
• Type set domain-name.Porous Media = On to enable Porous Media option.
• Type set domain-name.Porosity = value or set domain-name.Porosity = "UDF:udf-name" where value is your porosity value or udf-name is your UDF name for porosity.
• Type set domain-name.Resistance Formulation = "Standard" or set domain-name.Resistance Formulation = "Power-Law" to select Resistance Formulation option.
• Type set domain-name.Resistance Coefficients = "value1 value2" or set domain-name.Resistance Coefficients = "UDF:udf-name" where value1 and value2 are your resistance coefficients or udf-name is your UDF name for resistance coefficients.
• Type end to exit from TCL mode.

For more information and examples on how to define porosity in ANSYS CFX, you can refer to these sources:

• ANSYS CFX-Solver Modeling Guide - 4.6 Porous Media 
• Entering parameters at CFX’s porous domain - Ansys Learning Forum 
• Porous medium Settings(porosity settings) in CFX - CFD Online 

You can also watch this video that demonstrates how to simulate flow through porous media using ANSYS CFX:

•  #Ansys CFX Tutorial | Flow Through Porous Media