
Learn to define material properties in Abaqus, including isotropic and composite lamina. Assign sections and profiles, and use shell and continuum shell models with mass calibration and fiber orientation.
Explore assembling parts in Abaqus, using data plane, radial and linear patterns, partitions, and constraints; learn to merge, cut, and mesh assemblies by part or by assembly.
Explore the Abaqus step section, learning how to create steps and choose static, dynamic, or buckling analyses. Set field and history outputs to capture forces, displacements, and reactions.
Learn how to define interactions and constraints in Abaqus, choosing between general contact and surface-to-surface contact, setting interaction properties, and applying tie and coupling to simulate contact between deformable parts.
Learn how to create and control meshes in Abaqus, including mesh types, seed sizing, partitioning, and element choices (2D/3D, plane stress/strain, linear vs quadratic) for accurate simulations.
Submit and monitor Abaqus analyses, troubleshoot common job errors, and visualize results with plots, animations, and probe values. Learn practical steps for setting densities, contacts, and recovery options.
Explore bending and torsion from an 800 N force in the z direction on a 3d steel part, comparing hand calculations with Abaqus simulations and stress results.
simulate a composite beam in Abacus software with steel and copper layers, compute moment of inertia and composite modulus, and compare deformation, bending moment, and bending stress to hand calculations.
Simulate a simply supported circular plate in Abaqus with shell elements and mid-surface pressure. Compare displacement and stress to hand calculations, and explore shell offset and mesh-size effects for convergence.
In this video, you are going to learn how to use 3D wire to simulate a Roof Truss in Abaqus. It is important that you have already watched all the videos in the principal section of this course.
In this video, you would learn:
How to simulate the collapse of the stadium roof in Abaqus. In this video you would learn:
How to transfer your 2D wire model into a 3D wire model using the saving sketch technique.
How to replace a dynamic solver instead of a static solver for problems with large deformations.
In this video, you would learn:
How to assemble parts in Abaqus with the ones made in CAD software in an Assembly environment.
How to use the auto contact finder feature in Abaqus.
In this video, you would learn how to model a 2D single lap joint and use tie constraints in Abaqus.
In this video, you would learn about hyperelastic materials in Abaqus and how to validate your experimental data.
In this video, you would learn how to perform mesh study in FEA. Mesh study is one of the crucial steps in any finite element analysis. It is important that you have already watched all the videos in the principal section of this course.
Welcome to the Essential Abaqus Tutorial for Engineering Students, the only course you need to how to use Abaqus for the first time. This course has been designed for second and third-year engineering students at University, who want to learn more about FEA software (ABAQUS).
What you will get in this course:
** This Course is divided into four sections and in order to get the most advantage of it, I highly recommend you to follow the course in order as the basic terms have been only explained in the initial sections.
** This course will teach you how to use the software only, some theory background is covered however the learner requires to have a basic finite element theory understanding. If you do not have any knowledge of FEA theory I suggest you read ABAQUS theory documentation and A First Course in the Finite Element Method by Logan.
Section 1:
An overview of this tutorial.
Section 2: (Please do not miss this section if you have never used Abaqus)
This section begins with the fundamentals of Abaqus such as Part, Properties, Assembly, Step, Interaction, Load, Mesh and Job. In this section, you will learn the logic behind each input parameter. It is important that you follow this section in order so you can learn software more efficiently.
Section 3:
This section contains eight basic engineering examples to help you understand the software and its ability. Most examples contain both analytical and numerical calculations, which helps you compare results and check the accuracy of the numerical models. The following examples are in these sections: Simple truss, Bending and Torsion, Simply supported beam, Composite beam, Bracket analysis under distributed load, buckling analysis, Shell circular simply supported beam, symmetrical boundary condition
Section 4:
This section is designed for improver students and is not recommended for students who missed sections 2 and 3 of this course, as the basic concept has not been explained in section 4. This section has seven examples which challenge your ability for real-life engineering problems. The following examples are in these sections: Stadium roof, Stadium roof collapse, single lap adhesive joint, three-point bending on reinforced concrete beam, Hyperelastic materials and bracket bolted joint.
I hope you all enjoy these tutorials. Please send me a message if you think anything can improve the quality of this course as I am updating the course regularly.
Many thanks
Armin
**This course is only intended for Serious Students. A lot of effort (over 100 hours) has been done to provide a practical understanding of the Software, theory and analysis which is not available anywhere on the internet.
** Abaqus version 6.19 is used for this course, therefore in order to open files in the recourses section, you should have this version or any later version. However, you can still use the older version to do this tutorial.
** These course examples are not intended to apply to any particular situation. Students are cautioned to satisfy themselves as to the accuracy and results of their analyses. The author shall not be responsible for the consequences of any errors or mistakes that may appear in this course.
** All rights reserved, Any unauthorised broadcasting, public performance, copying or re-recording will constitute an infringement of copyright.