Solidworks самоучитель pdf
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Keep the default Flow Characteristics. The Reference axis of the global coordinate system X, Y or Z is used for specifying data in a tabular or formula form in a cylindrical coordinate system based on this axis. All calculations in the Calculator are performed only in the International system of units SI, so no parameter units should be entered, and Flow Simulation Units settings do not apply in the Calculator.
C3-2 Specifying Boundary Conditions. Any view can be saved and labelled for later retrieval too. Immediately the total pressure value is recalculated.
C5-1 Opening the SolidWorks Model. C6-6 Specifying Project Goals. During the mesh generation process, you can see the current step in the Mesh Generation dialog box. Turning the handle closes or opens the valve. Solidworks самоучитель pdf us obtain the values of air and water temperatures at outlets using Surface Parameters. SLDPRT file to an empty solo of SolidWorks window. B1-10 Viewing Cut Plots 1 Right-click the Cut Plots icon and select Insert. The Face coordinate system is created only when one planar face is selected. Enable Value 2 and specify some value in the appeared box that is different to the Value 1. Between changing the inlet flow rate value to 0.
SolidWorks 2006. Самоучитель - Next we will specify the boundary conditions for the hot air flow. B4-14 Advanced Examples Application of EFD Zooming Problem Statement.
FL-1 First Steps Ball Valve Design Opening the SolidWorks Model. A1-1 Creating a Flow Simulation Project. A1-2 Specifying Boundary Conditions. A1-5 Specifying the Engineering Goal. A1-7 Running the Calculation. A1-8 Monitoring the Solver. A1-8 Adjusting Model Transparency. A1-10 Viewing Cut Plots. A1-10 Viewing Surface Plots. A1-12 Viewing Isosurface Plots. A1-13 Viewing Flow Trajectories. A1-14 Viewing XY Plots. A1-15 Viewing Surface Parameters. A1-16 Analyzing a Design Variant in the SolidWorks Ball part. A1-17 Cloning the Project. A1-19 Analyzing a Design Variant in the Flow Simulation Application. A1-19 Flow Simulation 2012 Tutorial i Conjugate Heat Transfer Opening the SolidWorks Model. A2-1 Preparing the Model. A2-2 Creating a Flow Simulation Project. A2-3 Specifying the Fan. A2-7 Specifying Boundary Conditions. A2-8 Specifying Heat Sources. A2-9 Creating Solid Materials in the Engineering Database. A2-10 Specifying Solid Materials. A2-12 Specifying Engineering Goals. A2-13 Changing the Geometry Resolution. A2-17 Running the Calculation. A2-18 Viewing the Goals. A2-18 Adjusting Model Transparency. A2-19 Viewing Flow Trajectories. A2-20 Viewing Cut Plots. A2-21 Viewing Surface Plots. A2-23 ii Flow Simulation 2012 Tutorial Porous Media Opening the SolidWorks Model. A3-2 Creating a Flow Simulation Project. A3-2 Specifying Boundary Conditions. A3-3 Creating Isotropic Porous Medium in the Engineering Database. A3-5 Specifying Porous Medium. A3-6 Specifying Surface Goals. A3-7 Specifying the Equation Goal. A3-8 Running the Calculation. A3-9 Viewing the Goals. A3-9 Viewing Flow Trajectories. A3-9 Cloning the Project. A3-10 Creating Unidirectional Porous Medium in the Engineering Database. A3-10 Specifying the Porous Medium - Unidirectional Type. A3-11 Comparing the Isotropic and Unidirectional Catalysts. A3-11 Intermediate Examples Determination of Hydraulic Loss Opening the SolidWorks Model. B1-2 Creating a Flow Simulation Project. B1-3 Specifying Boundary Conditions. B1-7 Specifying Surface Goals. B1-8 Running the Calculation. B1-9 Monitoring the Solver. B1-9 Cloning the Project. B1-10 Viewing Cut Plots. B1-11 Working with Parameter List. B1-14 Viewing the Goal Plot. B1-15 Working with Calculator. B1-15 Changing the Geometry Resolution. B1-17 Flow Simulation 2012 Tutorial iii Cylinder Drag Coefficient Problem Statement. B2-1 Opening the Model. B2-1 Creating a Flow Simulation Project. B2-2 Specifying 2D simulation. B2-5 Specifying a Global Goal. B2-7 Specifying an Equation Goal. B2-7 Cloning the Project and Creating a New Configuration. B2-8 Changing Project Settings. B2-8 Changing the Equation Goal. B2-9 Creating a Template. B2-10 Creating a Project from the Template. B2-10 Solving a Set of Projects. B2-12 Heat Exchanger Efficiency Problem Statement. B3-1 Opening the Model. B3-2 Creating a Flow Simulation Project. B3-3 Specifying Symmetry Condition. B3-5 Specifying a Fluid Subdomain. B3-6 Specifying Boundary Conditions. B3-7 Specifying Solid Materials. B3-10 Specifying a Volume Goal. B3-11 Running the Calculation. B3-11 Viewing the Goals. B3-12 Viewing Cut Plots. B3-13 Adjusting the Parameter Display Range. B3-14 Displaying Flow Trajectories. B3-15 Viewing the Surface Parameters. B3-17 Calculating the Heat Exchanger Efficiency. B3-19 iv Flow Simulation 2012 Tutorial Mesh Optimization Problem Statement. B4-2 Opening the SolidWorks Model. B4-3 Creating a Flow Simulation Project. B4-3 Specifying Boundary Conditions. B4-4 Manual Specification of the Minimum Gap Size. B4-6 Switching off the Automatic Mesh Definition. B4-9 Using the Local Initial Mesh Option. B4-11 Specifying Control Planes. B4-12 Creating a Second Local Initial Mesh. B4-14 Advanced Examples Application of EFD Zooming Problem Statement. C1-1 The EFD Zooming Approach to Solve the Problem. C1-3 The Local Initial Mesh Approach. C1-15 Textile Machine Problem Statement. C2-1 Opening the SolidWorks Model. C2-2 Creating a Flow Simulation Project. C2-2 Specifying Boundary Conditions. C2-3 Specifying Rotating Walls. C2-3 Specifying Initial Conditions. C2-5 Results Smooth Walls. C2-6 Displaying Particles Trajectories and Flow Streamlines. C2-7 Modeling Rough Rotating Wall. C2-9 Adjusting Wall Roughness. C2-9 Results Rough Walls. C2-10 Flow Simulation 2012 Tutorial v Non-Newtonian Flow in a Channel with Cylinders Problem Statement. C3-1 Opening the SolidWorks Model. C3-2 Defining Non-Newtonian Liquid. C3-2 Specifying Boundary Conditions. C3-3 Comparison with Water. C3-4 Radiative Heat Transfer Problem Statement. C4-1 Opening the SolidWorks Model. C4-2 Case 1: The reflector inner surface is a whitebody. C4-2 Case 2: All reflector surfaces are blackbody. C4-5 Case 3: The reflector is removed. C4-6 Rotating Impeller Problem Statement. C5-1 Opening the SolidWorks Model. C5-2 Creating a Flow Simulation Project. C5-2 Specifying Boundary Conditions. C5-5 Specifying Project Goals. C5-7 vi Flow Simulation 2012 Tutorial CPU Cooler Problem Statement. C6-1 Opening the SolidWorks Model. C6-2 Creating a Flow Simulation Project. C6-2 Adjusting the Computational Domain Size. C6-2 Specifying the Rotating Region. C6-3 Specifying Stationary Walls. C6-5 Specifying Solid Materials. C6-6 Specifying Heat Source. C6-6 Specifying Initial Mesh Settings. C6-6 Specifying Project Goals. C6-10 Oil Catch Can Problem Statement. C7-1 Opening the SolidWorks Model. C7-2 Creating a Flow Simulation Project. C7-2 Specifying Boundary Conditions. C7-2 Specifying Project Goals. C7-3 Setting Solution Adaptive Mesh Refinement. C7-3 Defining Motor Oil Material. C7-4 Studying the Motion of Oil Droplets. C7-6 Flow Simulation 2012 Tutorial vii Examples for HVAC Module 150W Halogen Floodlight Problem Statement. D1-1 Opening the SolidWorks Model. D1-2 Creating a Flow Simulation Project. D1-3 Adjusting the Computational Domain Size. D1-3 Specifying Fluid Subdomain. D1-4 Specifying Heat and Radiation Conditions. D1-4 Specifying Solid Materials. D1-9 Setting Local Initial Mesh. D1-9 Adjusting the Calculation Control Options. D1-10 Hospital Room Problem Statement. D2-3 Specifying Heat Sources. D2-5 Specifying Calculation Control Options. D2-7 Adjusting Initial Mesh. D2-8 Setting Local Initial Mesh. D2-9 viii Flow Simulation 2012 Tutorial Examples for Electronics Cooling Module Electronic Components Problem Statement. E1-1 Opening the SolidWorks Model. E1-2 Creating a Flow Simulation Project. E1-4 Specifying Boundary Conditions. E1-5 Specifying Perforated Plates. E1-6 Specifying Two-Resistor Components. E1-7 Specifying Heat Pipes. E1-9 Specifying Contact Resistances. E1-10 Specifying Printed Circuit Board. E1-11 Specifying Solid Materials. E1-12 Specifying Project Goals. E1-12 Adjusting the Initial Mesh. E1-13 Specifying Local Initial Mesh Properties. E1-14 Flow Simulation 2012 Tutorial ix x Flow Simulation 2012 Tutorial Features List This chapter contains the list of the physical and interface features of Flow Simulation as they appear in the tutorial examples. If you need to find an example of a certain feature or function usage, look for the desired feature in the left column and in its row you can see in which tutorial examples this feature is used. Usually, the first entrance of the feature in the tutorial contains the most detailed description. The tutorial examples are listed in Features List by their respective numbers. All tutorial examples are divided in three categories: First Steps, Intermediate and Advanced. It is assumed that you successfully completed all First Steps examples before. This functionality is available for the HVAC module users only. This functionality is available for the Electronics Cooling module users only. Its strongly recommended to complete these tutorials examples first. A1 - Ball Valve Design A2 - Conjugate Heat Transfer A3 - Porous Media Flow Simulation 2012 Tutorial A-1 First Steps: A-2 A1 Ball Valve Design This tutorial deals with the flow of water through a ball valve assembly before and after some design changes. The objective is to show how easy fluid flow simulation can be with Flow Simulation and how simple it is to analyze design variations. These two factors make Flow Simulation the perfect tool for engineers who want to test the impact of their design changes. Opening the SolidWorks Model 1 Copy the A1 - Ball Valve folder from the installation directory into your working directory and ensure that the files are not read-only since Flow Simulation will save input data to these files. In the Open dialog box, browse to the Ball Valve. SLDASM assembly located in the A1 Ball Valve folder and click Open or double-click the assembly. Alternatively, you can drag and drop the Ball Valve. SLDASM file to an empty area of SolidWorks window. Make sure that the default configuration is the active one. Turning the handle closes or opens the valve. The assembly mate angle controls the opening angle. The user simply closes the interior volume using extrusions that we call lids. In this example the lids are made semi-transparent so you may look into the valve. Flow Simulation 2012 Tutorial A1-1 First Steps: A1 - Ball Valve Design Creating a Flow Simulation Project 1 In the main menu click Flow Simulation, Project, Wizard. Pl
