workbench_与_classic模型互相导入__FEM__MODELER_____WB中调用ICEM
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关于PROE、ANSYS, ANSYS-ICEM CFD, ANSYS WORKBENCH,ANSYS-CFX,(均10.0)的相互模型导入的若干问题研究总结***************大学****力学热学电磁学专业***********人前言:最近对ANSYS的所以产品感兴趣,对ANSYS, ANSYS-ICEM CFD, ANSYS WORKBENCH,ANSYS-CFX,的模型导入最近学习ANSYS系列产品,我将我得学习心得贡献给大家,欢迎大家一起交流,我的Email:banhuaiguojob@,******************************************************************************* **********************************1.ANSYS-CFD,是一个前处理工具,他的建模功能不如ANSYS WORKBENCH,甚至我个人认为不如ANSYS(不可以有命令流),但是ANSYS WORKBENCH不如PROE好使,我的做法是,用PROE建立模型,用CFD划分网格,在再ANSYS中求解结构问题,在ANSYS -CFX求解流体,划分的思想主要是,通过分块,关于具体方法在HELP->TUTORIAL MANNUAL->CFD Tutorials->学习了这里面的例子后我想你应该对在CFD划分网格和建立模型就知道了。
2.关于模型导入,1)用PROE生成ANSYS都可以接受的几何模型,先在PROE中建立模型,如下图所示然后点文件->保存副本弹出下图对话筐,输入新建明称,选择类型IGES(×igs),关闭PROE,记住文件所在文件夹,2)PROE的模型导入ANSYS ICEM CFD,打开ANSYS ICEM CFD指向你刚才生成的文件,然后模型就出现了,2)ANSYS中导入PROE模型3)ANSYS模型导入到ANSYS CFX中,在ANSYS的命令流筐中输入:这时在你的的ANSYS的工作目录下生成了一个banhuaiguo.cdb文件打开ANSYS CFX的前出理界面:最终结果:4)CFD模型导入cfx,打开ANSYSCFX5)CFX模型导入ANSYS,结论:ANSYS1.该方法在PROE野火版ANSYS系列产品10.0中通过测试,2.本人不怎么谦虚,因此有点小小的成绩愿意和大家共享!3.希望斑竹加点分!*******************************待续*******************************。
对于习惯使用icem做六面体网格的朋友,更希望在workbench中使用(本文参考网络视例)1、首先建立dm模型,或在三维软件中建立三维模型,导入到workbench中
2、双击model,进入设置界面。
观察模型树中,记下Geometry下模型的名字Part 1。
3、右击mesh,设置如下网格选项。
右击mesh,产生网格,则自动调出icem,进入icem界面。
4、进入icem中,系统自动分块,而这个分块是我们不想要的,因此删除块,重新分块,生产新块时,注意手动选择part名称,保证与2中名字一致。
(part 1,这里是part_1_1_1)
5、icem中划分网格,结果如下
6、产生结构网格,File-Mesh-From....,保存网格,点击yes
7、进行简单的设置,简单的做了个计算,如图所示:。
ANSYS经典界⾯的有限元模型导⼊Workbench,并进⾏其他分
析
将Ansys经典模式中的模型导⼊到Ansys Workbench | 坐倚北风
1.ANSYS画好⽹格
Main Menu - Preprocessor - Archive Model - Write,输出cdb⽂件
2. Woerbench
1. 进⼊Ansys Workbench,在ToolBox中双击Finite Element Modeler将其加⼊到⼯程
2. 在Model上右击,选择Add Input Mesh,将⽣成的.CDB⽂件导⼊
3. 双击Model进⼊Ansys Workbench⼏何模型编辑界⾯,可以在左侧看到所导⼊的有限元模型的详细信息
4. 在Geometry Synthesis下的Skin Detection Tool上右击,选择Create skin components。
5. 当⽣成完模型的表⾯曲⾯后,在Geometry Synthesis上右击,选择Insert - Initial Geometry,即可⽣成有限元模型
6. 在Model上右击,选择Updata,更新⼏何模型(有对号则更新成功)
3.模态分析
1.在Analysis Systems中将modal加⼊到⼯程
2.左键按住Finite Element Modeler的Model,拖到Modal模块的Model
3.双击Modal模块的model,进⼊分析。
Proe中建立的模型导入Ansys中分析的方法发信人: Zengxiaodong (小Z), 信区: CAD标题: Proe中建立的模型导入Ansys中分析的方法发信站: 饮水思源(2001年10月08日09:10:33 星期一), 站内信件方法一:在Pro/E中建立好模型后(一般是part),从菜单File_export_model_IGES,输出IGES格式的文件,这种格式是几乎所有CAD软件都可以识别的(当然Autocad除外,因为它根本就不能称作CAD软件),注意文件最好存放在名字无空格的目录中,否则在Ansys中不能识别My documents和Mydocuments的区别,会出现明明文件存在却告知文件不存在的错误!好了,现在就可以启动Ansys了,从菜单File_import_IGES,选择刚才形成的文件就可以输入模型了。
以上是对于Pro/E2000i2而言的,对于Pro/E2001,已经没有export了,不过可以在菜单F ile_save a copy中选择IGES类型存盘,其他就同上,不必细说了。
在Ansys中输入模型时,可能出现模型断裂的结果,可以对"defeature(毁容)、合并重合的关键点、产生实体、删除小面积"等选项进行改变,反复试验直到输入满意为止,其他内容请各位参考有关资料。
另外说一句,这一方法也可以用在将UGII的模型传到Ansys中,在UG17中很简单,但是在UG16中,必须安装IGES的转换模块,不过仅仅这样仍然不能运行,提示缺少一个dll文件,应将。
\UGII\目录中的一个文件edsps110.dll_old更名为edsps110.dll即可。
方法二:首先,安装Ansys时,必须安装了ANSYS Connection For Pro/ENGINEER模块(代号82 。
在"开始_程序_Ansys 5.6_ANS_ADMIN Utility"中,选择configuration options,选onfigure connection for Pro/E,输入模块类型,图形类型、工作空间大小等,再?Pro/E的安装路径,完成"连接"安装,此时将在Pro/E的相关文件夹中产生一个protk.文件。
AnsysWorkbench自定义和系统材料的添加
Ansys Workbench自定义和系统材料的添加
(1、自定义材料为45号钢,其参数为密度7890 kg/m^-3,杨氏模量为2.09*10^11,泊松比为0.269;2、系统自带材料添加)
1.双击下图engineering data或右击点edit(或者任何一个模块下都可以)
2.通过view打开outline和properties选项,点击下图A2
3.会出现下面的图,点*空白处(click here to add new material)
4.新建,输入45
5.左键双击击toolbox内的density(密度)和Isotropic Elasticity (各向同性弹性)
6.出现下图
7.输入值密度、弹性模量、泊松比
8.左键单击A3
9.出现下图
10.左键单击点A5后面的出现
11.左键单击下图A2会看到Concrete被添加了进来。
12.左键单击下图的
13.导入几何体或绘制几何体,然后对图1中的model左键双击或右键单击选edit 在新的窗口中展开model-geometry左键单击几何体出现details.
14.左键单击上图中的Material下的Assignment入下图
15.选中45或者Concrete(45为自定义材料/Concrete为系统材料添加)
设置完成。
ANSYS workbench软件安装成功后与3D软件关联方法关联一共两个动作:①修改ANSYS workbench软件中关联文件的相关内容;②修改3D软件中关联文件的相关内容。
一、ANSYS workbench软件中关联文件的相关内容编辑1.寻找ANSYS workbench软件的安装目录:①在开始菜单找到ANSYS workbench软件,右键打开“属性”菜单②点击“打开文件位置”,如下图所示:2.找到WBPlugInPE.dat文件,并用记事本打开进行编辑,安装目录决定文件路径。
此例如下。
路径为:C:\Program Files\ANSYS Inc\v120\AISOL\CADIntegration\ProE\ProEPages\config3. WBPlugInPE.dat文件内容修改如下,红色字体是修改的内容,括号为注释:NAME WB120PluginProWFEXEC_FILE C:\Program Files\ANSYS Inc\v120\AISOL\CADIntegration\ProE\intel\WBPlugInPECOM.dll(此路径目的找到WBPlugInPECOM.dll文件)TEXT_DIR C:\Program Files\ANSYS Inc\v120\AISOL\CADIntegration\ProE\ProEPages\Language\en-us(此路径目的找到“en-us”文件夹)STARTUP dlldelay_start FALSEallow_stop TRUEunicode_encoding FALSEREVISION ProEWildfireENDname ac4pro120dllexec_path C:\Program Files\ANSYS Inc\v120\ansys\ac4\bin\pro\intel\ac4pro.exe (此路径目的找到ac4pro.exe文件)text_path C:\Program Files\ANSYS Inc\v120\ANSYS\ac4\data\pro\text(此路径目的找到“text”文件夹)STARTUP dlldelay_start FALSEallow_stop TRUEunicode_encoding FALSErevision 24.0end二、3D软件中关联文件的相关内容1.查找3D软件的安装目录,方法同上。
参见Ansys help “FE Modeler”部分“Link FE Modeler to Other Workbench Systems”参见simwwe论坛实例赏析部分WB与APDl模型相互导入可通过FE MODELER作为中介来实现,从FE MODELER可以读入、也可以写出.CDB文件,APDl可以写出也可以读入.CDB文件,FE MODELER还可以写出.inp文件供APDL或者ABAQUS使用将WB的模型导入Classicthe Write Solver File button can be used in conjunction with the Target System field in the toolbar to write out FE Modeler data to solver input files, through the use of Templates. Templates are provided to allow you to easily generate a customized Mechanical APDL, ABAQUS, STL, or NASTRAN input deck. There is also an option to create a custom Template. To write a solver file, select Generate Data in the Tree Outline, select the Target System template that you want to use, and click on the Write Solver File button in the toolbar. The following options are available from the Target System drop-down list:∙The Mechanical APDL application∙ABAQUS∙NASTRAN∙STL∙TemplateSee the FE Modeler Options section for information on how to change the path to a target system template.Workbench 中FE MODELER的作用(来自帮助文件)The Role of FE Modeler in ANSYS WorkbenchFE Modeler works with the standard finite element representation used inside ANSYS Workbench. FE Modeler supports robust data transfer from NASTRAN, ABAQUS, STL, and other ANSYS Workbench applications into the Mechanical and Mechanical APDL applications.Use FE Modeler to:∙Import a finite element (FE) model from a NASTRAN bulk data file or ABAQUS Input file. (导入从第三方软件产生的有限元模型)∙Import a finite element (FE) model from an STL input file.∙Import FE information from the Mechanical application.∙Import FE information from Advanced Meshing. This capability is based upon specific licensing requirements. Please see the FEModeler Licensing section shown below. (导入网格文件)∙Import archived Mechanical APDL data created using the CDWRITE command. This command writes a file with the default extension .cdb.(导入由经典APDL生成的模型,导入的模型只包含有限元模型,而不包括点、线、面、体等几何模型,需要另外的操作进一步生成)∙Navigate and visualize the data contained in the model.∙Generate a geometry from an FE Model using the Geometry Synthesis feature. (由有限元模型生成几何模型)∙Given an ANSYS Mesh Morpher license, parameterize and transform a generated geometry.∙Create named components based on element selections.(根据element selections 创建组件)∙Generate a Mechanical APDL, NASTRAN, ABAQUS, or STL input deck for downstream analysis. (生成APDL或者第三方软件所需的有限元模型)∙Import a Fluent or CFX Mesh file. (导入FLUENT或者CFX的网格文件)Workbench Advanced MeshingIf you have Workbench as well as ANSYS ICEM CFD installed, you can take a mesh from the ICEM CFD Meshing application into FE Modeler.FE Modeler User InterfaceFE MODELER 写出.INP文件(针对APDL或者ABAQUS、NASTRAN 等格式)FE MODELER由有限元模型生成几何模型的方法由FE MODELER 从有限元模型导出几何模型文件FE MODELER中查看单元类型FE MODELER中查看接触对FE MODELER中查看材料、实常数、组件、梁单元、约束、集中力、面力、约束方程等Basic FE Modeler WorkflowThe following steps summarize the typical workflow when using FE Modeler. Subsequent sections describe additional tasks for exploring the data and for adding named components to the FE model.e Workbench to Open or Create an FE Modeler System.e Workbench to Link FE Modeler to Other Workbench Systems.e the FE Modeler Editor to review the Import Summary report.During import, FE Modeler dynamically builds a report summarizing the information obtained from the meshes that were imported. The report also includes a list of issues raised during the import process. Carefully review these issues to determine their effect on the FE model.e the toolbar to print the report or export the document as anHTML file.5.Export the model using the Target System drop-down list on thetoolbar and select one of the following templates:∙Mechanical APDL - Default∙ABAQUS∙NASTRAN∙STL∙Template - Customizable option for one of the above output selections.6.(Optional) Create a geometry from the finite element mesh using theGeometry Synthesis feature. This feature enables you to use the model for further analyses in Workbench or to perform parametric studies.e the toolbar to print the preview or export the data in the formof the target system’s commands to an .inp file.Note: Because it is not unusual to encounter large gaps in node and element numbering in finite element models, Generated Data,by default, compresses any such gaps when exporting to theMechanical APDL application. You can disable the option thatchanges the ID's of all of nodes and elements that are sentto the target system from FE Modeler through the Tools>Options feature. However, sending large entity numbers suchas node or element ID's may not be memory efficient in theMechanical APDL application.FE MODELER导出到APDL默认单元类型Mechanical APDL as the Target SystemWhen Mechanical APDL is used as the Target System the following entities, if present, are written out as Mechanical APDL commands from FE Modeler.Note: O nly structural element types aresupported.Exported Mechanical APDL FE Entity Types have the following specifications.FE MODELER导出到ABAQUS 默认单元类型ABAQUS as the Target SystemWhen ABAQUS is used as the Target System the following entities, if present, are written out as ABAQUS commands from FE Modeler.NoteOnly structural element types are supported.:Exported ABAQUS FE Entity Types have the following specifications.FE MODELER导出到自定义模板自定义单元类型Template asthe Target SystemWhen Template is used as the Target System, you are prompted to open a customized template that you have created. A customized template allows you to control the order in which FE data is written out. In addition you can also intersperse commands with a template that are not supported by FE Modeler to perform advanced modeling or provide analysis controls.Note: STL meshes are not supported by template target systems in 12.x.Shown below are the commands contained in the Workbench provided default template for each of the supported target systems that you will use as the basis for a customize template. In addition, samples of the template are provided.Note: Not all entities imported into FE Modeler can be exported to all of the available systems.自定义单元类型实例Sample TemplatesThe Mechanical APDL application as the target system.<WBTEMPLATE>!HEADING! File created at @TimeStamp@!! This template extracts the FEModeler mesh in a format! compatible with the Mechanical APDL application input!@MeshNodes@!@MeshElements@!@ElelemntType@!@MaterialProperties@!@Components@!@InterfaceRegions@!@Loads@!@BoundaryConditions@!@PhysicalProperties@!NASTRAN as the target system.<WBTEMPLATE TARGET=NASTRAN>$$$ File created at @TimeStamp@$$ This template extracts the FEModeler mesh in a format$ compatible with NASTRAN input.$BEGIN BULK$$ MATERIAL PROPERTIES$@MaterialProperties@$$ MESH NODES$@MeshNodes@$$ MESH ELEMENTS$@MeshElements@$$ENDDATAABAQUS as the target system.<WBTEMPLATE TARGET=ABAQUS>*HEADING** File created at @TimeStamp@**** This template extracts the FEModeler mesh in a format** compatible with ABAQUS input**@MeshNodes@**@MeshElements@**@MaterialProperties@**Sample templates are provided to perform a large deflection analysis using the Mechanical APDL application, NASTRAN or ABAQUS.将WB的模型导入Classic四种方法the Write Solver File button can be used in conjunction with the Target System field in the toolbar to write out FE Modeler data to solver input files, through the use of Templates. Templates are provided to allow you to easily generate a customized Mechanical APDL, ABAQUS, STL, or NASTRAN input deck. There is also an option to create a custom Template. To write a solver file, select Generate Data in the Tree Outline, select the Target System template that you want to use, and click on the Write Solver Filebutton in the toolbar. The following options are available from the Target System drop-down list:∙The Mechanical APDL application∙ABAQUS∙NASTRAN∙STL∙TemplateSee the FE Modeler Options section for information on how to change the path to a target system template.近来有不少人发贴询问这个问题。