Sunday, 6 February 2011

Abaqus tutorials links

[DIR]sp08/20-Mar-2008 13:27
[DIR]sp09/26-May-2009 15:00
[DIR]sp10/20-May-2010 12:49
[DIR]winter_11/03-Jan-2011 14:52

Abaqus tutorials links


Simulia LogoAbaqus Logo

THIS PAGE CONTAINS INFORMATION SPECIFIC TO ABAQUS. FOR ADDITIONAL INFORMATION CHECK OUR  GENERAL FEA SOFTWARE SUITES PAGE.

Overview

ABAQUS Finite Element Software was developed by David Hibbitt,Dr. Bengt Karlsson and Paul Sorensen in 1978. ABAQUS finds application across a wide range of industries ranging from nuclear, offshore, automobile, aerospace, bio-medical and consumer industries. ABAQUS software is available in 3 packages:
  • ABAQUS/Standard
  • ABAQUS/Explicit
  • ABAQUS/CAE

ABAQUS/Standard

ABAQUS/Standard provides technology to solve traditional implicit finite element analyses, such as static, dynamics, thermal, all powered with the widest range of contact and nonlinear material options. ABAQUS/Standard also has optional add-on and interface products which address design sensitivity analysis, offshore engineering, and integration with third party software, e.g., plastic injection molding analysis.

ABAQUS/Explicit

ABAQUS/Explicit introduced in 1991, provides solutions to solve transient dynamics and quasi-static analyses using an explicit approach appropriate in many applications such as drop test, crushing and many manufacturing processes.

ABAQUS/CAE

ABAQUS/CAE provides a tool for interactive building of finite element models that interfaces with popular CAD packages and results visualization, was released in 1999. With direct access to CAD models, advanced meshing and visualization, and with an exclusive view towards ABAQUS analysis products, ABAQUS/CAE is the modeling environment of choice for many ABAQUS users.
A brief history of ABAQUS can be found on ABAQUS website

Support Information

North America Europe Japan Asia Pacific and Australia
North American Support-1-401-276-4400
email Technical Support

Training

Description of Abaqus Training Courses
Abaqus Training Schedules
Course Registration
Testing and Analysis of Elastomers for Users of ABAQUS - axel physical testing services
Related Articles
How to Roll It Right the First Time - Metalforming Simulation in ABAQUS - Desktop Engineering
Will the crash zone crumple? FEA tells - Simulation using ABAQUS/Explicit - Machine Design
Simulating Crashworthiness At BMW - Design News
Low Stress Welding Simulations - ABAQUS helps with complex modeling and simulation of welding processes - Desktop Engineering
Simulation on the Spot - Simulation using ABAQUS/CAE - Desktop Engineering
Finite element analysis helped Boeing eliminate oiled bearings on its Chinook helicopter - Mechanical Engineering Magazine
More ...

Tutorials

"Using ABAQUS" Tutorial at University of Illnois Urbana-Champaign
"Using ABAQUS - Beam Analysis" Tutorial at University of Illnois Urbana-Champaign
ABAQUS Tutorials at Brown University
ABAQUS Tutorial at Purdue University
ABAQUS Tutorial at Georgia Tech
Introduction to ABAQUS at New Mexico Tech
ABAQUS 6.6 Documentation at University of Calgary
Presentation - FEA of Elastomers and Gaskets in ABAQUS - Tod Dalrymple, HKS Michigan and Kurt Miller, Axel Products
Presentation - Rubber Material Curve Fitting with ABAQUS/ CAE - Tod Dalrymple, HKS Michigan and Kurt Miller, Axel Products, Inc.

ABAQUS Web Resources

ABAQUS FAQ at University of Cambridge
Nonlinear material models - PolymerFEM.com
Elastomer testing and technical downloads at axel physical testing services
ABAQUS Jobs - ABAQUS.COM

matthewjpais abaqus tutorials

AE4131 - Introduction to Finite Element Methods


Term:

Announcements

  • Jan 10: The official course web page is on WebCT..

Instructor

  • Prof. Jim Craig (james.craig@ae.gatech.edu) This is the best way to contact me!
    • Office: Weber 211C
    • Phone: x4-3042
    • Hours: after class or by appointment (suggest using email to arrange)

General

  • Course Outline -
  • Course Textbook
    • Logan, Daryl, A First Course in the Finite Element Method, 4th Edition, Thomson 2007, ISBN 0-534-55298-6.
    • Online tutorials and reference material for Abaqus finite element software
    • Additional online notes as needed.
  • Homework Grading: Homework will be assigned on an approximately weekly basis, and will be graded.

Course Materials

Homework Problem and Solutions

Note: solutions will be posted for a limited period of time.

  • Available only on WebCT

Quizzes, Exams and Solutions

Haisler/AERO405/ABAQUS_Tutorials


[DIR] 2D_Aluminum Bracket/    03-Nov-2006 09:08    -   
[DIR] Non-Circular_Cut_out/ 03-Nov-2006 09:08 -
[DIR] Plate_buckling/ 03-Nov-2006 09:08 -
[DIR] Plate_with_hole/ 03-Nov-2006 09:08 -
[   ] 2D_Aluminum_Bracket.pdf 19-Jun-2006 00:35 433K Document
[   ] ABAQUS_Getting_Start..> 19-Oct-2007 10:54 32K Document
[   ] Dr.HaislerInstallmen..> 30-Oct-2006 10:32 775K Zip Archive
[   ] Installment_I_CaeOdb..> 03-Nov-2006 09:08 438K Zip Archive
[   ] nonCircularCutout_v2..> 14-Sep-2006 18:45 725K Document
[   ] plateBuckling.doc 09-Jun-2006 15:09 138K Document
[   ] platewithHole_v2.doc 14-Sep-2006 17:42 319K Document

Walter Haisler Aerospace Engineering Department Texas A&M University


Syllabus - Spring 2007
Lecture Notes
Introduction to FEM Theory and Analysis for Engineers (in .ppt format)
A04, Introduction to Finite Element Theory
A01, Sizing Procedures
A02, External Loads
A03, Material Properties
A05, Bending and Extension of Thin Plates (Theory & Analytical Solution)
A06, Plate Bending Finite Element
A07, Introduction to Composite Materials
A08, Effective Moduli of Continuous Fiber-Reinforced Lamina (transformation of stiffness from material 1-2
          to global x-y axes, effective stiffness for a laminate, force & moment resultants, stress & strain in lamina)
Laminated Composite Plate Analysis Code (.exe file), Laminate Code Input Instructionssample material file (.txt file), Foam_core_H45 (.txt file)Foam_core_HT90 (.txt file),   Examples of Numerical Results
A09, Laminate Plate Analysis
A10, Introduction to Column Buckling
A11, Introduction to Buckling by T. Pollock (pdf)
A12, Design for Buckling of Columns and Plates
A13, Materials Selection in Structural Design

FEMAP Tutorials
Tutorial 1 - Plane Stress Modeling of a Uniaxial Rod with Axial Point Load (for Femap v9 and NX Nastran) - pdf file
Tutorial 2 - Plane Stress Modeling of Beam Bending (for Femap v9 and NX Nastran) - pdf file
Tutorial 3 - Plane Stress Modeling of Beam Bending with Modeling of Support Structure Included (for Femap v9 and NX Nastran) - pdf file
Tutorial 4 - Plane Stress Modeling of a Plate with a Circular Hold (for Femap v9 and NX Nastran) - pdf file
Plane Stress Modeling of Uniaxial Rod and Cantilever Beam with Point Load (for Femap v8.2)
Plane Stress Modeling of Flat Plate with Hole and Distributed Edge Loads
Simple Wing Spar (pdf)
Simple Wing Box Beam (zip)
Simple Rectangular Wing Planform with symmetric airfoil (zip)
B707 Tapered, Swept Wing (zip)  

ABAQUS Tutorials

ABAQUS 6.6 Documentation (on aero web site)
Tutorial 1 - Analysis of an Aluminum Bracket in Plane Stress (pdf file)
Tutorial 2 - Flate Plate with Hole (Word file)
Tutorial 3 - Plate with Non-Circular Cutout (Word file)
Tutorial 4 - Plate Buckling (Word file)

Reference Material

Aircraft Structural Details (Photos) - opens a new browser window
Links to Structures, Design, FEM, MIL Handbooks, and geneneral Aerospace Engineering Topics

Project/Homework Assignments
Homework 1Homework 2Homework 3Homework 4
Getting Familiar with FEMAP (7 & 8) and CAEFEM , Getting Familiar with FEMAP 9.0 and NX Nastran
Femap 7.1 Example Mod files:  Ch3post.modCh4done.modCh7wing.mod    <- Right click on link and select "Save as"
FEMAP 7.1 instructions for Chapter 3 Plate with Hole problem (for Ch3post.mod file)Project 0.5 - Bracket with end moment applied
Project 1 - Cantilever Spar Beam
Project 2 - Cantilever Wing Box Beam
Major Project 3 - Definition and time table - Define your own Major Project
Alternate Major Project 3 - Urica Wing Structure Design by FEM, Urica I- delta cp plot for cruise condition (.bmp),
                                                         Urica I- delta cp data file for cruise condition (.dat)
Major Project 3 Report Requirements
Project 4 - Laminated Plate Design
Project 5  - Stiffened Plate Buckling Design
 



Some Very Useful Information for Students
Tips on maintaining confidence, taking tests, understanding different learning styles, and identifying and taking advantage of learning resources on campus.  Follow this link to Professor Richard Felder's page for several useful and/or interesting articles for students. Professor Felder is the Hoechst Celanese Professor of Chemical Engineering at North Carolina State University and has contributed over 100 publications to the fields of engineering education and chemical process engineering.

Introduction to Finite Element Abaqus 6.9SE Handou

Generalized Finite Element Methods


 Lectures    M/R 2:00-3:20 pm, Carnegie 102
  Download Course Description
 

 Instructor information  
 Professor Suvranu De
 Room JEC 5002
 Email:des_at_rpi_dot_edu
 Office Ph: X6096
 Office hrs: M  3:30-4:30 pm

 Textbook:
  None required
  Lecture notes are posted here at the course website.
  Other reference texts: 
   1.      Numerical approximation of partial differential equations, A. Quarteroni and A. Valli, Springer-Verlag.
   2.      Meshfree particle methods, S. Li and W.K. Liu, Springer.
   3.      Finite element procedures, K. J. Bathe, Prentice Hall
   4.      Integral equations, W. Hackbusch, Birkhauser
  Blog: iMechanica

  Lecture Notes:

  Introduction ( lec1.ppt ) [1/24]
  
Mathematical Preliminaries (lec2.ppt ) [1/27]  Polynomial interpolation (lec3.ppt ) [1/31, 2/03]
  Least squares and moving least squares approximations (lec4.ppt ) [2/07, 2/10] 
  Kernel estimates and partition of unity approximations (lec5.ppt ) [2/14]
  Strong formulation, minimization principle and the variational formulation (lec6.ppt ) [2/17] 
  Approximation techniques: Rayleigh-Ritz and Galerkin methods (lec7.ppt ) [2/24]
  Error analysis of Galerkin methods (lec8.ppt ) [2/28] 
  Other approximation schemes (lec9.ppt ) [3/03, 3/21]
  Local Galerkin weak forms (lec10.ppt ) [3/24]  Discontinuities (lec 11.ppt ) [3/24]
  Imposition of constraints (lec12.ppt ) [3/28, 3/31]  Introduction to integral equations(lec13.ppt) 
[04/04, 04/07]
  Discretization convergence theory for integral equation methods ( lec14.ppt ) [4/11]
  Numerical integration  (lec15.ppt) [4/14, 4/18]




  Homework #1   due Feb 24        Homework #2    due Mar 31       
  Homework #3   due Apr   07   download gauss.m  Homework #4    due Apr 28     

DYNAMIC RESPONSE OF A 2D TRUSS TO A LOAD APPLIED SUDDENLY using abaqus

STATIC ANALYSIS OF A TRUSS using abaqus

PLASTIC BEHAVIOUR OF A PLATE using abaqus

NATURAL FREQUENCIES ANALYSIS using abaqus

Saturday, 5 February 2011

STATIC ANALYSIS OF A BENDING BEAM

Stressing a Plate with a Circular or Elliptical Hole using abaqus



Name:Stressing a Plate with a Circular or Elliptical Hole
Author:Nanshu Lu, Harvard University
Level:Fundamental
Analysis:Linear Structural
Duration:1 hr
Download:Stressing a Plate with a Circular or Elliptical Hole
Description:
  • Create part.
  • Define material properties.
  • Assemble the model.
  • Apply loads and boundary conditions.
  • Mesh.
  • Run analysis.
  • View results.

3 Bar Truss Example Problem using abaqus


Name:3 Bar Truss Example Problem
Author:Nanshu Lu, Harvard University
Level:Fundamental
Analysis:Linear Structural
Duration:3 hr
Download:3-Bar Truss Example
Description:
  • Create part.
  • Define material properties.
  • Apply loads and boundry conditions.
  • Mesh.
  • Run analysis.
  • View results.

Large Deformation Analysis of a Beam-Plate in Bending using abaqus


Name:Large Deformation Analysis of a Beam-Plate in Bending
Author:Hyonny Kim, University of California
Level:Fundamental
Analysis:Linear Structural
Duration:2 hr
Download:Large Deformation Analysis of a Beam-Plate in Bending
Description:
  • Create a 3D model using shell elements.
  • Conduct a geometrically nonlinear analysis (usingNlgeom* option).
  • View the results of the analysis.

2D Analysis of an Aluminum Bracket


Name:2D Analysis of an Aluminum Bracket
Author:Hyonny Kim, University of California
Level:Fundamental
Analysis:Linear Structural
Duration:3 hr
Download:2D Analysis of an Aluminum Bracket
Description:
  • Sketch 2D geometry & define part.
  • Define material properties.
  • Apply loads and boundary conditions.
  • Mesh.
  • Run analysis.
  • View results.

Creating and Analyzing a Simple Model in Abaqus/CAE


Name:Creating and Analyzing a Simple Model in Abaqus/CAE
Author:SIMULIA
Level:Fundamental
Analysis:Linear Structural
Duration:2 hr
Download:Available in Getting Started with Abaqus for purchase only
Description:The following section is a basic tutorial for the experienced Abaqus user. It leads you through the Abaqus/CAE modeling process by visiting each of the modules and showing you the basic steps to create and analyze a simple model. To illustrate each of the steps, you will first create a model of a steel cantilever beam and load its top surface. You will then analyze the beam and plot the resulting stresses and displacements. The entire tutorial takes approximately 90 minutes to complete.

Creating and Analyzing a Simple Model in Abaqus/CAE


Name:Creating and Analyzing a Simple Model in Abaqus/CAE
Author:Atul Gupta, SIMULIA
Level:Fundamental
Analysis:Nonlinear Dynamic Structural
Duration:1 hr
Download:Tennis Racket Workshop
Description:In this workshop you will become familiar with the process of creating a model interactively by using Abaqus/CAE. We are interested in the dynamic response of the ball and racket when ball hits the racket with a velocity. The frame will be modeled as rigid to reduce the analysis cost for this simulation. This is a single event, so only a single analysis step is needed for the simulation. Consequently, this model will consist of two steps:
  • An initial step, in which you will apply a boundary condition that constrains all degrees of freedom of rigid racket frame and initial velocity to the ball.
  • A Dynamic, Explicit analysis step, in which a dynamic response will be calculated when ball hits the racket.