分享
分享赚钱 收藏 举报 版权申诉 / 17

类型maxwell和workbench的联合仿真.pdf

  • 上传人:HR专家
  • 文档编号:5974250
  • 上传时间:2019-03-22
  • 格式:PDF
  • 页数:17
  • 大小:1.08MB
  • 配套讲稿:

    如PPT文件的首页显示word图标,表示该PPT已包含配套word讲稿。双击word图标可打开word文档。

    特殊限制:

    部分文档作品中含有的国旗、国徽等图片,仅作为作品整体效果示例展示,禁止商用。设计者仅对作品中独创性部分享有著作权。

    关 键  词:
    maxwell和workbench的联合仿真.pdf
    资源描述:

    1、Coupling Maxwell Designs with ANSYS Thermal via Workbench Coupling Maxwell2D/3D V15 with ANSYS R14 is supported via the Workbench schematic. Thermal feedback is supported for Maxwell magnetostatic, eddy current, and transient types. Users also need to setup the design and geometry appropriately. An

    2、appropriate design should be temperature-dependent, and have one or more solve setups that are enabled for thermal feedback. 1. The easiest way to add a Maxwell 2D or 3D design to a Workbench schematic is to import a working design via Workbench FileImport. The imported design is placed in the Workb

    3、ench schematic after it is successfully imported. 2. Next, insert a Steady-State Thermal system and change its Analysis Type to 2D or 3D, (depending on the Maxwell design type) by right clicking on the Geometry cell and selecting Properties. It is important to change the Steady-State Thermal systems

    4、 analysis type before setting up its geometry. 3. To setup the Steady-State Thermal systems geometry, you must first export the Maxwell geometry using sat or step format as follows: a. Select the ModelerExport menu item. b. Select the desired model geometry format (sat or step), and the save locatio

    5、n in the dialog box and save the file for use by ANSYS Workbench. 4. Import the file via the Geometry module of the Steady-State Thermal system. a. To access the Geometry module, double click on the Geometry cell in the Steady-State Thermal system to launch DesignModeler. b. Select FileImport Extern

    6、al Geometry File and browse for the geometry file exported from Maxwell. c. After the geometry file is imported, right-click on the root folder of the modeler project tree and select Generate. (When the geometry file is of a Maxwell 2D RZ design, users can rotate the geometry in DesignModeler by cre

    7、ating a body operation.) 5. Close DesignModeler and refresh the Model cell of the Steady-State Thermal system by right-clicking the Model cell and selecting Refresh. 6. The geometry mode of the Steady-State Thermal system can be changed via the ANSYS Mechanical user interface. a. Launch Mechanical b

    8、y double clicking the Setup cell of the Steady-State Thermal system. b. Select Geometry in the project tree and the Definition of Geometry will be shown in the Detail window. c. Select either Plane Stress or Axisymmetric as the value for the property 2D (or 3D) Behavior. 7. To setup the coupling, dr

    9、ag the Solution cell of the Maxwell system and drop it on the Setup cell of the Steady-State Thermal system. 8. Note that the Maxwell Solution cell is tagged with a “Lighting Bolt” symbol. Right-click on the Maxwell Solution cell and select Update. This will initiate a Maxwell simulation if it is no

    10、t already solved. Once Maxwells solution is available, the “Lighting Bolt” changes to a “Green Check”symbol. 9. To “push” the coupling into Steady-State Thermal, right-click on the Steady-State Thermal Setup cell and select Refresh. 10. After refresh is finished, you can launch ANSYS Mechanical by d

    11、ouble-clicking the Setup cell to finish the coupling setup. 11. In the ANSYS Mechanical application project tree, an Imported Load (Maxwell2DSolution), or (Maxwell3DSolution), item should already be inserted. Select the Imported Load folder to view its details. Because the inserted Maxwell2D (or 3D)

    12、 system supports thermal feedback, the Details window shows information regarding how the temperature result should be exported, and what type of mesh mapping should be used. 12. To finish the coupling setup, you must insert either an imported Heat Generation or an imported Heat Flux boundary condit

    13、ion. Heat Generation is used when mapping loss from objects in Maxwell; and Heat Flux should be used to map the loss from the edges of objects in Maxwell. Users can insert multiple Heat Generation or Heat Flux loads via the Imported Load (Maxwell2DSolution), or Imported Load(Maxwell3DSolution) objec

    14、ts. 13. To insert a Heat Generation, use Body select by clicking the icon in the Mechanical Toolbar. Then click on the objects where the EM loss should be imported. After all the desired objects are selected, right-click on Imported Load (Maxwell2DSolution) Insert Heat Generation, or Imported Load(M

    15、axwell3DSolution) Insert Heat Generation. A sub-item named Imported Heat Generation will appear in the project tree. 14. Click on the Imported Heat Generation tree item to view its details. 15. In the Transfer Definition section, users can setup the source Maxwell solution by pulling down the Ansoft

    16、 Solution combo box and select one of the listed Maxwell solutions. 16. Right-clicking on Imported Heat Generation Import Load will import loss from the Ansoft Solution selected for this load. After import has completed, the Import Heat Generation item becomes a folder, and an entry called Imported

    17、Load Transfer Summary is listed. Select the Imported Load Transfer Summary entry and the scaling factors used to export the load from Maxwell will be displayed in the Comment window. 17. Selecting Import Heat Generation should show an overlay-plot of the imported load. The loss mapping from Maxwell

    18、can be verified by comparing this overlay-plot with an Ohmic-Loss field overlay plot in Maxwell. 18. Create a Convection boundary to complete the thermal setup. Use Edge select by clicking the icon at the Mechanical Toolbar and then Edit Select All. With the edges selected, right-click on the Steady

    19、-State Thermal project tree item and insert a Convection. With the Convection item selected, change its Film Coefficient to 5 W/m2 via the Detail window. Right-click on the Solution tree item and select Solve. After the thermal solution is finished, users can insert a Temperature plot by right-click

    20、ing on Solution and selecting Insert Thermal Temperature. Right-click on the newly inserted Temperature item and select Evaluate All Results. 19. To export the thermal result to Maxwell, right-click on the Imported Load (Maxwell2DSolution), or Imported Load(Maxwell3DSolution) and select Export Resul

    21、ts. 20. To fully utilize the automation capabilities provided in ANSYS Workbench, select Imported Load (Maxwell2DSolution), or Imported Load(Maxwell3DSolution); and in its Detail window, select Yes for Export after Solve. With this option selected, users can continue the iteration between Maxwell/Th

    22、ermal simulations from the Workbench schematic. To “push” the exported thermal results back to Maxwell, right -click on Maxwells Solution cell on the Workbench schematic and select Enable Update. Then, right-click again on Maxwells Solution cell and select Update. This will trigger Maxwell to re-sim

    23、ulate its solution with thermal results. To continue the solve iterations, repeat the following steps as needed: a. Right-click on Thermals Setup cell and select Refresh. b. Right-click on Thermals Setup cell and select Update. c. Right-click on Maxwells Solution cell and select Enable Update. d. Ri

    24、ght-click on Maxwells Solution cell and select Update. Coupling Maxwell Designs with ANSYS Structural via Workbench Stress feedback coupling between Maxwell2D/3D V15 and ANSYS Structural R14 is supported via the Workbench schematic. Stress feedback is supported for Maxwell magnetostatic, eddy curren

    25、t, and transient types. Users also need to setup the design and geometry appropriately. An appropriate design has one or more solve setups that are enabled for stress feedback. The process for stress feedback coupling between Maxwell and ANSYS Structural is similar to that described in “Coupling Max

    26、well Designs with ANSYS Thermal vi a Workbench” . 1. The easiest way to add a Maxwell 2D or 3D design to a Workbench schematic is to import a working design via Workbench FileImport. The imported design is placed in the Workbench schematic after it is successfully imported. 2. Next, insert a Static

    27、Structural system and change its Analysis Type to 2D or 3D, (depending on the Maxwell design type) by right clicking on the Geometry cell and selecting Properties. It is important to change the Steady-State Thermal systems analysis type before setting up its geometry. 3. To setup the Static Structur

    28、al systems geometry, you must first export the Maxwell geometry using sat or step format as follows: a. Select the ModelerExport menu item. b. Select the desired model geometry format (sat or step), and the save location in the dialog box and save the file for use by ANSYS Workbench. 4. Import the f

    29、ile via the Geometry module of the Static Structural system. a. To access the Geometry module, double click on the Geometry cell in the Static Structural system to launch DesignModeler. b. Select FileImport External Geometry File and browse for the geometry file exported from Maxwell. c. After the g

    30、eometry file is imported, right-click on the root folder of the modeler project tree and select Generate. (When the geometry file is of a Maxwell 2D RZ design, users can rotate the geometry in DesignModeler by creating a body operation.) 5. Close DesignModeler and refresh the Model cell of the Stati

    31、c Structural system by right-clicking the Model cell and selecting Refresh. 6. The geometry mode of the Static Structural system can be changed via the ANSYS Mechanical user interface. a. Launch Mechanical by double clicking the Setup cell of the Static Structural system. b. Select Geometry in the p

    32、roject tree and the Definition of Geometry will be shown in the Detail window. c. Select either Flexible or Rigid as the value for the property 2D (or 3D) Stiffness Behavior. 7. To setup the coupling, drag the Solution cell of the Maxwell system and drop it on the Setup cell of the Static Structural

    33、 system. 8. Note that the Maxwell Solution cell is tagged with a “Lighting Bolt” symbol. Right-click on the Maxwell Solution cell and select Update. This will initiate a Maxwell simulation if it is not already solved. Once Maxwells solution is available, the “Lighting Bolt” changes to a “Green Check

    34、”symbol. 9. To “push” the coupling into Static Structural, right-click on the Static Structural Setup cell and select Refresh. 10. After refresh is finished, you can launch ANSYS Mechanical by double-clicking the Setup cell to finish the coupling setup, which is similar to that described in “Couplin

    35、g Maxwell D esigns with ANSYS Thermal via Workbench” . Coupling Maxwell with Both ANSYS Thermal and Structural via Workbench A Maxwell system can also be coupled with both thermal and stress systems via Workbench. The thermal system then serves as an “up -stream” system for the stress system. This m

    36、eans that the stress analysis takes both electromagnetic and thermal forces into consideration. In this scenario the user must select the same object(s) in the thermal and stress systems to apply the respective imported loads. To setup the coupling, drag the “Solution” cell of the Maxwell system and

    37、 drop it at the “Setup” cell of a Thermal and Static Structural (Stress) system. The user also needs to couple the Thermal and Static Structural systems to capture the effect of thermal force. The coupling framework is built on top of the existing Thermal Feedback. The Stress system will have additi

    38、onal Export Definition and Mapping Settings like Thermal. Example 1: “One” iteration The image below illustrates a coupling setup where both the Thermal and Stress system are ready to be Updated. The Maxwell adaptive solution has converged in 3 passes. The Maxwell system has both thermal and stress

    39、feedback enabled. 1. Right click on the Solution cell of Stress (Static Structural) and select Update. a. The Setup of Thermal will be Updated with “em” loss from Maxwell. b. The Solution of Thermal will be Updated and temperature will be exported to Maxwell. c. The Setup of Stress will be Updated w

    40、ith thermal force from Thermal and force density from Maxwell. d. Displacement will be exported to Maxwell after Stress finishes simulation. 2. Right click on the Solution cell of Maxwell and select Enable Update. 3. Right click on the Solution cell of Maxwell and select Update. a. Maxwell re-simula

    41、tes the 3rd pass with its mesh and the temperature/displacement feedback. b. The profile will show information about the feedback c. Both Revert to Initial Temperature and Revert to Zero Displacement menus are present in the analysis setup context menu. Example 2: Manual iteration The image below il

    42、lustrates the Workbench schematic after Example 1, where the 1st iteration has completed. 1. Right click on the Solution cell of Stress and select Update. a. The Setup of Thermal will be Refreshed and Updated with “em” loss from Maxwell. b. The Solution of Thermal will be Updated and temperature wil

    43、l be exported to Maxwell. c. The Setup of Stress will be Refreshed and Updated with thermal force from Thermal and force density from Maxwell. d. Displacement will be exported to Maxwell after Stress finishes simulation. 2. Right-click on the Solution cell of Maxwell and select Enable Update. 3. Rig

    44、ht-click on the Solution cell of Maxwell and select Update. a. Maxwell re-simulates the 3rd pass with its mesh and new temperature/displacement feedback. b. The profile will show information about the feedback. Note that the delta temperature and displacement is being reported in the profile. Exampl

    45、e 3: Revert Maxwell Solution The temperature and displacement in the Maxwell solution can be reverted separately. 1. Users select Revert to Initial Temperature in Maxwell. A warning message displays notifying users about the invalidation of solution. 2. Right-click on Maxwell analysis setup and sele

    46、ct Analyze. Maxwell re-simulates the 3rd pass with its mesh and displacement that was previously exported from Mechanical, but without temperature. 3. Users select Revert to Zero Displacement in Maxwell, followed by right-clicking on Maxwell analysis setup and selecting Analyze. Maxwell re-simulates

    47、 the 3rd pass with its mesh without either temperature nor displacement. Example 4: Only Stress Feedback The coupling setup is the same as in Example 1, with either one of the following differences: The Maxwell system is not enabled for thermal feedback (via SetObjectDisplacement). Note that since M

    48、axwell is not enabled to support feedback, the “Export Resu lt” proper ties should be available in the thermal system. The Maxwell system is enabled for thermal feedback, but users choose not to “Export Result in the thermal system. This is to disable the automatic “Export Results”. 1. Right click o

    49、n the Solution cell of Stress and select Update. a. The Setup of Thermal will be Updated with “em” loss from Maxwell. b. The Solution of Thermal will be Updated. c. The Setup of Stress will be Updated with thermal force from Thermal and force density from Maxwell. d. Displacement will be exported to Maxwell after Stress finishes simulation. 2. Right-click on the Solution cell of Maxwell and select Enable Update. 3. Right-click on the Solution cell of Maxwell and select Update. a. Maxwell re-simulates the 3rd pass with its mesh and the displacement feedback. b. The profile show

    展开阅读全文
    提示  道客多多所有资源均是用户自行上传分享,仅供网友学习交流,未经上传用户书面授权,请勿作他用。
    关于本文
    本文标题:maxwell和workbench的联合仿真.pdf
    链接地址:https://www.docduoduo.com/p-5974250.html
    关于我们 - 网站声明 - 网站地图 - 资源地图 - 友情链接 - 网站客服 - 联系我们

    道客多多用户QQ群:832276834  微博官方号:道客多多官方   知乎号:道客多多

    Copyright© 2025 道客多多 docduoduo.com 网站版权所有世界地图

    经营许可证编号:粤ICP备2021046453号    营业执照商标

    1.png 2.png 3.png 4.png 5.png 6.png 7.png 8.png 9.png 10.png



    收起
    展开