11/29/2011

GoSteel 5 Tutorial Construction of Wall Part A

This document intent to show you in a short extract step by step the various facilities of GoSteel version 5 based on an example of Wall construction (see picture at first page).

GoSteel is application for designing of steel constructions in 2D. Construction is drawn in real dimensions 1:1, available are tools for automatical joints, deducing of views, positioning, bill of material, dimensioning, labeling, and other necessary functions for creating of workshop documentation.

In our example we will construct the wall, which contains columns and bracings. In first step we will create axis schema, then will be used like basis for creating of beams. Next we will continue with joints, we will try some of the modifications of drawn objects and we will deduce other views of basic construction. In last step we will show positioning, automat. dimensioning and export of BOM to MS Excel.

Symbols used in document

T entry (process), which must be done and actions displayed on the screen

· commentary and remarks for process and result of functions

? function which must be start by press of certain button

User interface

¨ After installation of GoSteel is added menu of GoSteel to Acad profile (in Menu Groups has name GOSTEEL5). This menu contains pop-up menus and toolbars, by them are started functions of application.

¨ Pop-up menus are added at the end of currents, pop-ups have names GS-Draw, GS-Edit, GS-Other, GS-Modules.

¨ In our example we will, for starting of functions, refer to buttons on toolbars. Basic toolbar is called GoSteel. From this toolbar is possible to start all functions.

¨ On the screen is possible to nest other Sub-toolbars (which are ejected from basic toolbar) separately. Then we have these buttons available better.

¨ If cursor of mouse stays above of the button, then is appeared short information about function of this button.

¨ Functions in progress are canceled by key Esc.

¨ Prompts of application and other messages are appeared at the command line, in bottom part of AutoCAD’s window. By key F2 is possible open (and close) text window with history of prompts.

¨ By function UNDO from Standard toolbar of AutoCAD executed command of GoSteel can be undone.

Creation of objects

Creation of axis schema

In the first step we will open drawing file Schema.dwg with prepared axis schema, or we can draw axis schema according pic. 1 by using standard functions of AutoCAD for drawing of lines. At diagonal bracing is drawn axis for continuing beam like one line (entita E1), crossing bracing like two (entities E2 and E3), which are connect in intersection (nodes U9 and U10).

pic. 1

Work with Layers

Each object of GoSteel (beam, plate, grate, bolt) is block with unique name, which is possible modify by functions of application. This block is inserted alwayes to layer, which is current in moment of creation. Beams are built from three types of entities: contour, hidden and axis. These inner entities are drawn to layer with name, which is deduced from name of current layer. To name of current layer is added suffix. Text of suffix is possible to pecify in the Setup function, same like default properties of these layers (color and line type), see following process.

? From toolbar Gosteel open toolbar Other and press button Setup.

T Appeared dialog panel Setting of default values. We press button Layers. Then is open sub-dialog for Default setting of properties of Layers. From this dialog we select type of layer for which we want to set parameters, e.g. *_HIDDEN. In appeared sub-dialog we set in edit box Name of layer text for suffix to current layer, where will be stored hidden entities of objects.

T In part Color and Linetype we can set default properties of its layer. This setting is used only in case, when this layer does n’t exist in drawing. After made setting close all dialogs by button OK.

T In our drawing we will create, by using function of AutoCAD, layer called Steel. This layer we will set as current. GoSteel will then insert objects (blocks) to this layer. Own entities will be placed to layers (in case that you keep default setting for names of layers): Steel_visible, Steel_hidden and Steel_axis. Properties of these layers we can modify later too by using AutoCAD function Layer Properties manager.

Creation of beams

· We will start with creation of beam HE-A 300.

? From toolbar Gosteel open toolbar Profiles and press button Profiles I.

T Appeared dialog panel Creation of beam. In dialog we set values according following picture:

T From combo Type select HE-A (DIN), from combo Size select 300.

T In part Method of construct set On entity (we will create beam on already drawn axis – entity), in part Type of creation set Side view.

T View/osnap – by click in picture is opened dialog Select view of beam with possible views on beam. Select correspondent view.

T Close dialog by button OK.

T Then we are asked for selection of line (on which will be drawn beam). Select from axis schema correspondent entity (according. pic. 1). Then is drawn beam HE-A 300.

· We will continue with creation of beam HE-B 300.

? From toolbar Gosteel open toolbar Profiles and press button Profiles I.

T Process is same like in case of beam HE-A, difference is, that in dialog Creation of beam in part View/osnap will be select view according following picture:

· In the same way we will create beam I 160.

· Next step is creation of beam HE-A 200.

T In dialog Creation of beam change in part Method of construct to Pick points (we will not construct on already exist line, but by selecting of two points). Type of creation change to By contour.

T In part View/osnap select (click on picture) correspondent view with osnap on the top contour:

T After closing of dialog by button OK we are asked for selecting start and end point of beam. Select points P1 and P2 according following picture.

· We will continue with beams of diagonal bracings from profiles L.

· Horizontal bracing 2x L80x8.

? From toolbar Gosteel open toolbar Profiles and press button Profiles L 2x.

T Fill values in dialog according following picture (including proper setting of view in part View/osnap). Space between profiles set 10. In part Amount of stretches set parameter With two stretches and in part Stretches set Automaticaly, because we will want to stretch origin and end of beam towards columns.

T Close dialog by button OK.

T Then we are asked for selection of entity on which should be create beam. Select from axis schema correspondent entity (according pic. 1). Then is drawn beam 2x L-80x8 with stretched ends towards beams.

· Next step is diagonal bracing lower cross L60x6.

? From toolbar Gosteel open toolbar Profiles and press button Profiles L.

T Dialog panel Creation of beam we will fill same like in previous step, but don’t forget select correct size of L profile to 60x6 and select correspondent view (see following picture) in part View/osnap.

T We will need to create diagonal L 60x6 in lower cross three times (all with same parameters), so we can use for it functionality OK-Multiple. After close of dialog by this button we will be asked for selecting of lines on which will be created beams.

T Like first select continuous line (E1), then crossing lines (E2 a E3).

T Selection finished by key Enter.

· Next step is diagonal bracing upper cross L80x8.

? From toolbar Gosteel open toolbar Profiles and press button Profiles L.

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Simple DNC in CAM

A new utility called Simple DNC spools toolpath data to your machine tool as a background task in Windows. This means that instead of your computer being tied up for hours at a time, you can continue to use it while it handles the machining job.

Using Simple DNC

1. Create your toolpath in ArtCAM in the usual way, saving it to a post-processor file.

2. Start Simple DNC. You will be prompted to select the machine you want to use, as shown below:

3. Use the pull-down list to select the machine you want to use, then press Continue… to quit from Simple DNC at this point, press Exit.

4. The first time you run Simple DNC you should configure the serial port to suit your system. Do this by picking the Setup… button. This will display the following dialog box:

5. Make your selections for every item in the list. Much of the required information can be found in Windows Control Panel, under the System appellate. When done, press Apply. This will return you to the main Simple DNC dialog.

6. Pick the File select… button to select a toolpath file to be sent to the machine tool. This will display a dialog from which you can browse and select the desired file.

7. Press Start Tx to start the transfer of toolpath data to the machine tool. The following confirmation dialog will be displayed, to ensure that data is not sent by mistake:

8. If you pick the Yes button, the toolpath will be sent to the machine tool. The process is fully automatic from this point on. You can now minimize Simple DNC and set it work in the background.

9. Pick the Stop Tx… button to stop toolpath processing. The following confirmation dialog will be displayed, to ensure that the transfer is not cancelled by mistake:

10. You can check the progress of the job using the Status section of the Simple DNC dialog. Here you can find a graphic indicator, the elapsed time and the number of blocks of data transferred so far.

Connector pin-outs

For Simple DNC to work properly with your machine tool, the cable between your PC and machine tool must have a suitable pin-out arrangement. Without this, signals will not pass properly between the two systems. Suitable connector pin-outs are given below.

Software Flow Control

PC with a 9-pin serial connector. Control with a 25-pin serial connector.

PC with a 25-pin serial connector. Control with a 25-pin serial connector.

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PowerINSPECT 4_0 Installation Notes

Before Installing

If you have an existing installation of PowerINSPECT, it is strongly recommended that you back up all custom information associated with that installation. This includes custom report templates.

If you have installed beta or pre-release versions of PowerINSPECT since the last customer release (version 3.05) then you are strongly advised to uninstall these versions before installing this version of PowerINSPECT. There are a few known issues where earlier beta release of PowerINSPECT are known to interfere with the installation and use of PowerINSPECT 4.0. It is not necessary to uninstall previous release versions of PowerINSPECT (ie versions 3.05, 3.0, 2.2, 2001, 1355, 1200 and before).

Note : Take care before uninstalling PowerINSPECT version 1200 – UNINSTALLING POWERINSPECT 1200 MAY DAMAGE YOUR SYSTEM! Consult the “Uninstalling PowerINSPECT 1200 Damages System Fonts” part of the “Troubleshooting” section towards the end of this guide.

Prerequisites

Hardware
Point Cloud Recommended

To use PowerINSPECT 4.0’s point cloud functionality, a computer with dual 3.0 GHz Intel Pentium IV (or equivalent) processors, 1.5 GB of RAM, 60 GB hard disc space (including 10 GB free in the Windows temporary directory) and an NVIDIA Quadro4 380 XGL graphics card is recommended. Note that ATI graphics cards (Radeon, FireGL, etc) are not supported.

Point Cloud Minimum

To use PowerINSPECT 4.0’s point cloud functionality, PowerINSPECT 4.0 requires a computer with a 1.8 GHz Intel Pentium IV (or equivalent) processor, 512 MB of RAM, 20 GB hard disc space (including 5 GB free in the Windows temporary directory) and an NVIDIA Quadro FX 500 graphics card. Note that ATI graphics cards (Radeon, FireGL, etc) are not supported.

Recommended

When PowerINSPECT 4.0’s point cloud functionality is not going to be used, a computer with a 1.5 GHz Intel Pentium IV (or equivalent) processor, 512 MB of RAM, 2 GB hard disc space and an NVIDIA Quadro4 380 XGL graphics card is recommended. Note that ATI graphics cards (Radeon, FireGL, etc) are not supported.

Minimum

When PowerINSPECT 4.0’s point cloud functionality is not going to be used, PowerINSPECT 4.0 requires a computer with a minimum of a 800 MHz Intel Pentium II (or equivalent) processor, 256 MB of RAM, 250 MB hard disc space and an NVIDIA GeForce4 graphics card. For use with larger CAD files a faster processor, more RAM and a more recent graphics card will give better performance. Note that ATI graphics cards (Radeon, FireGL, etc) are not supported.

Operating System

PowerINSPECT 4.0 requires Microsoft Windows XP Professional 2002 (or later) or Microsoft Windows 2000 Professional. Note that Windows NT 4.0, Windows 98, Windows 98 SE and Windows Me are no longer supported by PowerINSPECT 4.0.

Service Packs

Depending on the computer’s operating system, you must install a Service Pack before installing PowerINSPECT 4.0:

· On a Windows 2000 computer, you must first install Service Pack 1 (or later). You can download or order a free copy of Service Packs for Windows 2000 from the Microsoft web site at http://www.microsoft.com/windows2000/downloads/servicepacks/.

Microsoft Internet Explorer 6.0

PowerINSPECT 4.0 requires Microsoft Internet Explorer 6.0 (or later) to be installed. You can download or order a free copy of the latest version of Internet Explorer from the Microsoft web site at http://www.microsoft.com/windows/ie/.

Dongle and Protection File

PowerINSPECT will only work if you have a valid dongle and license file installed. Both of these should be provided by your Delcam reseller.

Please ensure that the date and time are correct on your computer before running PowerINSPECT for the first time. Changing the time and date may prevent PowerINSPECT from validating the protection file. If this happens then you should contact your Delcam reseller for assistance.

If you are using USB dongles for PowerINSPECT or any other product then you should ensure that you remove the USB dongles from the PC before installing PowerINSPECT. You should not re-insert the USB dongles until after the PowerINSPECT installation is complete and the computer has been restarted. This is necessary because the Rainbow Sentinal driver software that Delcam software uses to communicate with dongles may not install correctly if a Rainbow Sentinal USB dongle is inserted into the computer during the driver installation.

For more detail on the dongle and protection file, see “The License File” on page 4 of this guide.

Installing PowerINSPECT

PowerINSPECT 4.0 has been designed to run under Microsoft Windows XP Professional 2002 (or later) or Microsoft Windows 2000 Professional. To install PowerINSPECT you should be logged on as a user with administrative privileges.

Note: There is a bug in the Install Shield tool used to install PowerINSPECT which means that attempting to install on Windows XP or Windows 2000 without administrative privileges will cause a blank error message to be displayed during the installation initialisation. Accepting the message terminates the installation.

The PowerINSPECT installation should start automatically when you insert the PowerINSPECT CD into your computer’s CD-ROM drive. If this does not happen, then open Windows Explorer by double-clicking on the “My Computer” icon on your desktop, open the CD-ROM drive and double-click the file named “Setup.exe”.

Follow the instructions that appear on the screen to install PowerINSPECT.

The installation mechanism first checks that your computer meets the minimum operating system requirements for PowerINSPECT 4.0. If your operating system is not supported or needs a service pack or Internet Explorer installing, it will tell you what component needs installing and stop the installation. Please install the required component and restart the PowerINSPECT installation.

Note: For more details about the hardware and operating system required, see “Prerequisites” on page 1 of this guide.

Next the installation program checks that required system files are present in versions acceptable to PowerINSPECT 4.0. If it detects that some system files need to be upgraded to run PowerINSPECT 4.0, it will first install these necessary files. If this is the case, you will have to restart your computer before the main PowerINSPECT installation can start. The installation resumes automatically when you log back into your computer after the restart.

When the main PowerINSPECT installation starts you will be asked which setup you prefer:

· Manual is the default option and installs the standard PowerINSPECT components required for use with manual inspection devices.

· The CNC/DCC option installs the standard components plus the additional components required to use the CNC/DCC features of PowerINSPECT on a CNC/DCC inspection device.

Please note that the CNC/DCC features of PowerINSPECT are a cost option and will be disabled if you do not have the appropriate licence to use them, even if they are installed.

· The OMV option installs the CNC/DCC components and also installs the Delcam PM-Post and WinDNC programs, which are necessary to use PowerINSPECT for On Machine Verification.

· The Custom option allows you to select the optional components you want to be installed. This includes some components (such as additional sample files) that are not installed by either of the Manual or CNC/DCC standard installation options. If you want to install any of the optional components after your first installation of PowerINSPECT you can re-run the PowerINSPECT installation and select the required components only.

After installing PowerINSPECT you must run it at least once while logged on to Windows as a user with administrative privileges. If you run PowerINSPECT for the first time as a Windows user without administrative privileges it will display the message, “The registration process has failed,” and exit. To resolve this you must log back on as an administrative user and run PowerINSPECT once.

Microsoft Excel

PowerINSPECT can generate printed reports in two ways- using its own internal HTML format and using Microsoft Excel. To use the Excel option, you must have Excel 2003, Excel 2002 (Office XP), Excel 2000 or Excel 97 installed on your computer. Excel 2003, Excel 2002 or Excel 2000 are recommended, as there are a number of known issues when using PowerINSPECT with Excel 97.

Upgrading from Previous Versions of PowerINSPECT

The PowerINSPECT 4.0 installation process is designed to copy connection protocol configuration from previous release versions of CMMDriver (the component that PowerINSPECT uses to connect to inspection devices). This means that in general, if you are installing PowerINSPECT 4.0 to upgrade from a previous version, you will not have to configure the connection to your inspection device a second time.

There is a partial exception in the case of Romer/Axila articulated arms. The software installation for these devices requires that arm data should be reloaded. This is detailed in the section entitled “Appendix: Loading Romer/Axila GDS Arm Data” at the end of this guide.

Installation on Multiple Computers

This note is of particular interest to Delcam Sales Partners and Delcam Resellers.

PowerINSPECT requires service packs for Microsoft Windows 2000 and requires Microsoft Internet Explorer 6.0 before it can be installed on a computer (see the “Prerequisites” section of this guide, above).

It is inappropriate to include all of the installation packages for all language version of these products on the installation CD so the relevant language versions for your country must be downloaded from the Microsoft web site or ordered on CD.

If you want to install PowerINSPECT on multiple computers (for example, if you are a Delcam Sales Partner or Delcam Reseller) it is recommended that you download the latest service packs for Windows 2000 and the latest version of Internet Explorer and burn them to a CD or DVD. You can then install the relevant service packs and Internet Explorer from this CD, rather than having to download them for each computer on which you are installing PowerINSPECT.

The License File

PowerINSPECT 4.0 uses the PAF and FLEX licensing systems common to the other Delcam Power Solution products. With the PAF licensing system PowerINSPECT runs with a dongle connected to the parallel port (printer port) or USB socket of the computer it will be used on and requires a license file. The FLEX system (also know as network licensing) is a cost option which can be used to restrict the number of simultaneous PowerINSPECT users but not which workstation it is run on, allowing users to make more efficient use of fewer licenses by sharing them on the network. The FLEX system is not covered by this guide.

The licence file for the PAF system is called “dcam.paf” and contains your personal authorisation codes. It is stored in “C:\Program Files\Common Files\Delcam” on your computer. You can view the licence file with the Delcam PAF Wizard, a tool for installing and viewing Delcam licence files. PAF Wizard is installed automatically when PowerINSPECT 4.0 is installed.

The licence file is provided by your reseller and is normally sent to you in an e-mail similar to the one shown below.

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Teamcenter CPG Workshops

This is Hypothetical CPG Company .

1. Create a Brand Hierarchy as follows :

2. Create Artwork

Tide New Graphics

3. Create New Project Request

Tide New

4. Submit above to a “Project Lifecycle” and complete the task.

See that CPG Project is created at the end of this LC

Login as “Pam Project Requestor

Create a PR and submit it to “Project Request LC” (for Tide)

Login as “Peter PR Project Manager

S&A Financial Document

Assume that PR was approved

a. CPG Project with same name was created

Team was created as an assignment

5. Relate Items to Artwork

Create and Add Design Documents (Also Add a local file , and add a jpg file)

Search and Add the above CPG Project

6. Check in to the TIDE Team

7. Create a Timeline for the Above Project request

Login as “Phil Project Manager

Show that CPG Project is submitted to a LC

S&A Brand (Mountain Fresh)

Create Timeline

Show update of timeline

Show overlay of finished tasks (Tide Project Request)

8. More Relations ( Doc Workspace .. but can be done in Thin client too)

Login as “Don Design Manager

Search for Technical Doc (Tide Tech Doc)

Show from Files tab that it has a Word Doc attached to it

“Launch Tech Doc”

Technical Doc should be in Doc List

Select it and show properties

Right Click and Check out (Check out from team)

RMB Open to launch Word

Edit document and close

RMB Checkin

DnD a doc from desktop to Doc List

Create a new doc (Master Copy Doc)

DnD doc from DocList to Team Folder

Show from Thin Client that it is there now

9. Login as “Anna Artwork Studio”

Search for Artwork

C&A Design Doc

Attach JPEG to the Design Doc

Show Preview Image

Search for Design Doc and show Preview Pop Up

Samples :

Create Brand

2. Create Sub Brands

3. Create Finance Doc

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Teamcenter HTE Workshops

  1. Creating Parts
    1. Create->Part

Part number PS56788 ,

Description : Battery

Make/Buy Buy

Quantity :1

Default Unit :ea

Field Replacement Unit : True

  1. Create a Package and relate to Above part

  1. Create and Add a Commercial Part to the above part

i. Notice the new attributes for this class

Q: What is EOL Date ?

Add other information like Documents , components etc ..

  1. Verify all the Tabs of Information ..

  1. Assigning a Supplier to a part

Create a Supplier First

Search and Add a Part

· You can also navigate to a part and then search and add a Supplier .. Try it

· Q Did u notice the certification level for Suppliers

  1. Create a Distributor and Add it to a commercial Part

Q : Can u add a Distributor to Assemblies ?

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11/15/2011

Pre-processing for Half Disc Analysis

In this chapter using HyperMesh

? Import ABAQUS input (INP) files

? Create ABAQUS systems *SYSTEM, *ORIENTATION and *TRANSFORM

? Define ABAQUS non-linear material

? Create *CLOAD on nodes in *TRANSFORM

? Complete partially defined *STEP

Hands-on exercises in this chapter encompass setting up an analysis for the non-linear static response of a half disc to forces on it. Creating the ABAQUS input file for this analysis using HyperMesh is broken down into two sections:

Complete the model data

Import ABAQUS INP file containing some model and history data

Update the existing *MATERIAL with non-linear attributes

Create *TRANSFORM

Complete the history data

Specify analysis procedure for the existing, partially defined *STEP

Apply *CLOADs on nodes in *TRANSFORM

Add output requests to existing *STEP

Comments: Units used in this model are as follows:

Length

Millimeters (mm)

Force

Kilonewtons (kN)

Mass

Megagrams (Mg)

Section 1: Complete the model definition
Overview for importing INP files into HyperMesh

Follow these guidelines when importing ABAQUS INP files into HyperMesh:

· The ABAQUS import translator supports free and fixed formats. However, the HyperMesh ABAQUS templates write all cards in free format as required by ABAQUS 6.2.1.

· If you import an ABAQUS 5.8 file, the input translator will covert all the cards to ABAQUS 6.2.1 format.

· HyperMesh organizes all elements into separate component collectors, based on sectional property.

· Loads in the model definition are organized into HyperMesh load collectors with the card image INITIAL_CONDITION.

· A *STEP is organized into a HyperMesh load step.

· Loads and constraints in a *STEP are organized into HyperMesh load collectors with the card image HISTORY. These load collectors are organized into the corresponding load step.

· Output requests in a *STEP are organized into a HyperMesh output block. The output block is organized into the corresponding load step.

· Warnings and error messages are written to a file named abaqus.msg. Unrecognized lines are written to a *.hmx file. These files are created in the same directory from where HyperMesh is launched.

· HyperMesh does not support *PART and *INSTANCE in INP files (from ABAQUS/CAE).

Exercise 1.1: Import ABAQUS INP file

Import an ABAQUS INP file containing the following model and history data:

· One ELSET named disc with a *SOLID SECTION property

· Elements of type C3D20 (2nd order) belonging to the ELSET disc

· *MATERIAL named Aluminum associated to the ELSET disc

· One *STEP named step1 containing *BOUNDARY and output requests

1. Press F2 to enter the delete panel in the Tool page.

2. Click delete model to delete the model from the HyperMesh session.

3. Click return to go to the main menu.

4. Enter the files panel.

5. Select the import sub-panel.

Notice the FE radio button is active and next to the switch is ABAQUS. This means the ABAQUS import translator is selected. It was automatically selected when you loaded the ABAQUS user profile.

6. Click import… and select HalfDisc_Start.inp.

7. Click Open.

8. Click return.

Exercise 1.2: Create *PLASTIC for *MATERIAL

A *MATERIAL named Aluminum exists in the model. Update it by specifying non-linear attributes; add the keyword *PLASTIC and data lines for *PLASTIC. The *ELASTIC keyword is already specified in the *MATERIAL definition. *ELASTIC is required when *PLASTIC is present.

1. Enter the collectors panel and select the card image sub-panel.

2. Select mats for the collector type.

3. Click name = and select Aluminum.

Notice when you selected Aluminum, the card image = field was automatically populated with ABAQUS_MATERIAL. This is an indication the ABAQUS_MATERIAL card image is already loaded for the Aluminum material collector.

4. Click edit.

5. Activate Plastic.

6. Click the switch under Hardening and select ISOTROPIC

7. Enter 3 in the data entry field for PLASTICDATACARDS.

8. In the pop-up card image, enter the following numbers into the appropriate data entry fields under YieldStress and PlasticStrain.

YieldStress

PlasticStrain

410 Mpa

0.0

430 Mpa

5.70 E-3

450 Mpa

6.00 E-3

9. Click return twice to return to the main menu.

Definition of the *MATERIAL is complete.

Overview of ABAQUS systems in HM

*SYSTEM specifies a local system defining node coordinates. Define this system in HyperMesh as follows:

1. Using the collectors panel, create a systems collector.

2. From the Geom page, use the systems panel to create a HM system.

3. In the systems panel, assign sub-panel, use the set reference function to assign nodes to the system. The system is now a *SYSTEM for the assigned nodes.

A card image for *SYSTEM is not available for review in HM. However, you can see the nodes assigned to a *SYSTEM by using the review functionality in the systems panel. On export to the ABAQUS input file, a *SYSTEM card is followed by the nodes defined in it.

*TRANSFORM specifies a local system defining the directions for the degrees of freedom of nodes. Define this system in HyperMesh as follows:

1. Using the collectors panel, create a systems collector.

2. From the Geom page use the systems panel to create a HM system.

3. In the systems panel, assign sub-panel, use the set analysis function to assign nodes to the system. The system is now a *TRANSFORM for the assigned nodes.

A card image for *TRANSFORM is not available for review in HM. However, you can see the nodes assigned to a *TRANSFORM by using the review functionality in the systems panel. On export to the ABAQUS input file, a *TRANSFORM references the automatically generated *NSET. The *NSET is followed by a list of nodes assigned to the *TRANSFORM. When the ABAQUS input file is imported into HM, the NSET, including its name, is read and maintained on export.

*ORIENTATION is discussed in detail in Chapter 4 where you create one.

All three ABAQUS system types can be created from a single HyperMesh system. However, it is suggested you create only one ABAQUS system from a HyperMesh system. This allows you to better organize the systems. Also, when an ABAQUS input file is imported into HyperMesh, a system is created for each ABAQUS system and each system is organized into its own systems collector.

Remove nodes from a *SYSTEM or *TRANSFORM by assigning them to another system using set reference or set analysis, respectively.

 

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Crotched Surfaces design with Alias

1.《Open File》: camera_L2.wire.

2. Make the Back Surfs layer invisible.

Step1: Defining modification area

1. 《Untrim》the “Front top” surface.

2. Delete all CrvOnSrf of the “Front top” surface.

3. Set the surface’s《Patch》to “a4”. 【L2_s1-3】

4. Use《Project Normal》to project two patches line onto the surface.【L2_s1-4】

Step2: Creating new boundary curves

1.《New Curve (edit pts)》[ Knot Spacing: Uniform ; Curve Degree: 3 ]

2. Draw a curve and drag it’s ends to specific position.【L2_s2-2】

3.《Trim》the surface and “discard” the left-front area. 【L2_s2-3】

4. Draw another curve. 【L2_s2-4】

Step3: Adjusting curves

1. Select both the last CVs of the two curves and move them to “r0,0,-4. 【L2_s3-1】

2. Select both the 3ed CVs of the two curves and move them to “r0,0,-1”. 【L2_s3-2】

3. Set《Project Tangent》to the start end of the short curve with the “Front top” surface. 【L2_s3-3】

Step4: Creating a new surface

1. 《Untrim》the “Front top” surface.

2. 《Square》[ Boundary1 Continuity: Tangent ]. 【L2_s4-2】

3. Delete those two curves.

4. Set the “Front top” surface’s《Patch》to “a2” and make it template. 【L2_s4-4】

Step5: Adjusting the shape of the new surface

1.《Insert》two “isoparams” to the new surface at U0.75 and U0.62 (by using hot-key “Alt” to snap to the position). 【L2_s5-1】

2. Display CVs and Hulls. 【L2_s5-2】

3. Pick the last hull and move it to “r0,0,-3”【L2_s5-3】

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Post-processing Half Disc Analysis

In this chapter using HyperView

ABAQUS systems in HyperView

Create multiple windows in a page

Create and overlay contour and vector plots

Save and use HyperView session files
Result systems in HyperView

The Resolve in section in the Contour and Vector Plot panels allows you to select the system in which you want to plot results. System options include Global, Analysis, Elemental and User-defined.

Global Results in the global coordinate system.

Analysis The associated system to nodes or elements. This option is not relevant for ABAQUS results. Refer to the section in Appendix A titled “Result systems” for additional information.

Elemental The default local systems defined on the surface of planar elements (shell, membrane, etc). This option does not represent the ABAQUS elemental system. Rather, it is similar to the NASTRAN elemental system. Refer to the section in Appendix A titled “Result systems” for additional information.

User-defined Transforms vector results to a user-defined system. This option is available when *SYSTEM, *TRANSFORM or *ORIENTATION systems are read into HV from an INP file.

HyperView cut and paste commands

HyperView has copy and paste commands similar to Microsoft products. They allow you to copy a model and its results to a separate window or page. As well, you can copy several models and their results in one page to another page at one time. You do not have to load files multiple times. You can also copy a window or page to a Word document or PowerPoint presentation.

Exercise 1: Open INP and ODB files

Load the INP file for model data and the ODB file for results data. The *TRANSFORM will be read from the INP file. It is a user-defined system in HyperView.

1. From File in the menu bar, select New and click Yes in the pop-up window.

2. Enter the Load model panel.

3. Click the Load model file browser button and select the file HalfDisc_Complete.inp in the HalfDisc_Run1 folder.

4. Click the Load results file browser button and select the file HalfDisc_Complete.odb in the HalfDisc_Run1 folder.

5. Click Apply.

Exercise 2: Create and compare contour plots

Create two contour plots. The first one represents displacement (disp) results in the global coordinate system. The second one represents disp results in the user-defined system.

Set the view

1. Enter the Entity Attributes panel.

2. Click disc in the components list to select it.

3. Click the Mesh lines button.

Create contour plot of disp results in global system

1. Enter the Contour panel.

2. Select Displacement (v) under Result type:.

3. Select X from the drop down menu under Displacement (v).

4. Leave the system type set to Analysis System under Resolved in.

5. Click Apply.

6. Click the traffic light icon to view the contoured animation.

7. Enter the Animation Controls panel.

8. On the panel’s left side, move the slider down to reduce the animation speed.

9. Click the traffic light icon to stop the animation.

10. In the Animation Controls panel, move the slider for Current time: to the far right to view the results for the last increment.

Create a two window page layout

Create a two window page layout to compare the contour plot of disp results in the global system to the next contour plot you create.

1. Click Edit from the menu bar and select Copy Window.

2. Click Page from the menu bar and select Layout….

3. Select the icon from the Page Layout pop-up window.

4. Activate (click in) the right window.

It now has a blue halo around it.

5. Click Edit from the menu bar and select Paste Window.

Create contour plot of disp results in user-defined system

The right window should still be active.

1. Enter the Contour panel.

2. Select User Defined System under Resolved in:.

3. The yellow System selector is active. Click the system in the right window to select it.

4. Click Apply.

Notice the difference between the two contour plots.

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