Abaqus steel material and structures Full Tutorial

 490.0
(3)
Here in this training package, numerous models of crack steel material structures modeling, such as the shear failure, FLD criterion and different metal damage theories in concrete, steel, dams, and bones are examined through ten step-by-step tutorials. Every tutorial includes all needed files and step-by-step English videos and is explained from A to Z.
We also offer a similar budget-friendly package that includes all the workshops from this package. However, since it does not include the lessonsit is available at a lower price. You can purchase it on our website at a more competitive rate than similar platforms.
 

Abaqus Crack Growth Full Tutorial

 410.0
(12)
Here in this training package, numerous methods of crack propagation modeling, such as the XFEM and H integral and so on, in concrete, steel, dams, bones, and other materials are examined through ten step-by-step tutorials. Every tutorial includes all needed files and a step-by-step English videos and is explained from A to Z. Package duration: +300 minutes We also offer a similar budget-friendly package that includes all the workshops from this package. However, since it does not include the lessonsit is available at a lower price. You can purchase it on our website at a more competitive rate than similar platforms.  

Abaqus Fatigue Tutorial

 45.0
(12)
This Abaqus fatigue tutorial package includes workshops that teach you the XFEM method to simulate crack growth. This tutorial package enables you to model crack propagation in any 2D and 3D dimensional model. In addition, you will learn about the Paris law, direct cyclic approach, traction-separation law, and other theories that help you to simulate a crack growth problem in this package

3D continuum Abaqus HASHIN progressive Damage for composite materials (VUMAT Subroutine)

 320.0
(20)

The Hashin failure criteria is a set of failure criteria developed specifically for composite materials. It predicts different failure modes in composites based on the stresses experienced by their constituents (fiber and matrix). The criteria are widely used in engineering and computational models to assess composite material performance under mechanical loading. The criteria, while highly efficient and widely used, pose challenges when implemented in numerical simulations. Abaqus has emerged as a powerful tool to address these challenges, enabling the prediction of damage initiation and its progression (via stiffness reduction) based on the Hashin criteria. However, a key limitation of Abaqus is its applicability being restricted to 2D plane stress elements. To overcome this limitation, we developed a VUMAT subroutine in this project. This custom subroutine extends the capabilities of Abaqus, allowing for the simulation of damage initiation and propagation in 3D problems in accordance with the Hashin criteria. It should be mentioned that this subroutine includes gradual progressive damage based on the energy method. This complex subroutine could be used for static and dynamic problems.

A notable point is that in one of our other packages, we also provide training on using Abaqus subroutines to analyze the Hashin criterion. However, in that package, damage occurs instantaneously. In the current package, we have modeled the progressive Damage, which is more complex but could be more beneficial for solving your specific problems.

Simulation of Fracture in Abaqus

 75.0
(14)
This package is usable because crack growth and beyond it Fracture phenomenon is one of the most important problems in engineering and getting information about this topic, lets you reduce unpredictable failures in components.

Abaqus DLOAD Subroutine and VDLOAD Subroutine

 120.0
(5)
This training package helps Abaqus users to prepare complex DLoad and VDLoad subroutines. With the help of these workshops, you can get acquainted with the basic and comprehensive way of DLoad and VLoad subroutine writing and their applications. By viewing this package as an engineer, you can do basic projects with complex loads.

Introduction to UEL Subroutine in ABAQUS

 210.0
(19)
UEL stands for User-defined Elements. When you have a finite element analysis that requires an element type that doesn't exist in the Abaqus element library, you must write a UEL subroutine. Or, when you want to define various element shape functions, the UEL would be the best choice. This subroutine is one of the most sophisticated in the Abaqus and is intended for advanced users. With this tutorial package, you can become an advanced user and learn how to write such a complex subroutine. This package contains two workshops: writing a UEL subroutine for a planar beam element with nonlinear section behavior and writing a UEL subroutine for a beam element with specific boundary conditions and loading. Watch Demo

Abaqus Concrete structure Modeling Full Tutorial

 600.0
(10)
The package includes 19 workshops on topics such as concrete, beam-column structures, composites, steel rebars, Ultra-High-Performance-Fiber-Reinforcement Concrete columns, CFRP bars, hollow-core square reinforced concrete columns wrapped, damaged concrete beams, High Strength Concrete(HSC),ECC/Concrete Composite Beam-Column Joints, circular concrete-encased concrete-filled steel tube (CFST) stub columns, and etc. Every tutorial includes all needed files and step-by-step English videos and is explained from A to Z. Package duration: +600 minutes

We also offer similar budget-friendly packages that include the workshops from this package.

Since these packages do not include the lessons and contain a limited number of workshops, they are available at a lower price (250 euros each).

However, we recommend choosing the current full package instead of purchasing parts 1 to 4 separately, as it includes all 20 workshops and exclusive lessons not available on similar platforms, while still being priced lower than competing offerings.

   

UMESHMOTION subroutine in ABAQUS

 240.0
(15)
If you want to define motion for mesh nodes, you must use the UMESHMOTION subroutine. This subroutine helps you to specify Mesh Motion constraints during adaptive meshing. In this tutorial package, you will learn when you need to use the UMESHMOTION subroutine and how to use it. This package contains three workshops: “writing UMESHMOTION subroutine in forming process”, “writing UMESHMOTION subroutine in rolling process”, and “Tread wear simulation via UMESHMOTION”. The Archard model is used in the wear process, which is very popular in academic and industrial projects.

DFLUX Subroutine (VDFLUX Subroutine) in ABAQUS

 180.0
(18)
DFLUX subroutine (VDFLUX Subroutine) is used for thermal loading in various body flux and surface flux states in heat transfer and temperature displacement solvers when flux load is a function of time, place, or other parameters. In this package, you will learn “when do you need to use this subroutine?”, “how to use the DFLUX subroutine”, “what is the difference between DFLUX & VDFLUX?”, “how to convert DFLUX to VDFLUX and vice versa?”, and “How to use it in an example?”. Three workshops are presented so you can learn all these stuff in action: Simulation of welding between two plate with DFLUX subroutine, Simulation of Arc welding between two tube with DFLUX, and Simulation of different types of functional heat flux(Body-surface-Element) in plate with Johnson-cook plasticity with VDFLUX subroutine(Thermomechanical Analysis).

Welding Simulation in ABAQUS

 270.0
(19)
This training package fully covers the various possible methods for welding simulation. First, an introduction to welding and two basic categories of welding, fusion and non-fusion welding. Next, the theories and the elements used to simulate the welding will be explained. These theories are Lagrangian, Eulerian, ALE, and SPH. After that, you will learn how to apply these theories with different methods, such as the death and birth of an element, DFLUX subroutine, etc. Next, we have discussed the simulation of two-pass gas metal arc welding Processes in Abaqus, in a manner that can be extended to multi-pass and other types of welding. This heat flux created by the electric arc is transferred to the welded parts and leads to a significant increase in temperature. To do so, we will use Goldak's Double Ellipsoid Heat Source Model with the DFLUX subroutine (Considering the death and birth of elements). Finally, you will learn how to simulate welding with the help of six workshops: Friction Stir Welding (FSW) simulation with the Eulerian element, Explosive welding simulation, simulation of FSW with the SPH method, Butt welding with death and birth of an element method, Simulation of Arc welding between two tubes with DFLUX subroutine (Thermomechanical Analysis), and simulation of Two-Pass Arc Welding (Including the Birth and Death of Elements) and Its Extension to Other Welding Types.

Additive Manufacturing or 3D Printing Abaqus simulation

 440.0
(11)
3D printing is a process of creating three-dimensional objects by layering materials, such as plastic or metal, based on a digital design. 3D printing simulation involves using software to predict and optimize the printing process, allowing for more efficient and accurate production. This educational package includes two 3D printing modeling methods. The first method is based on the use of subroutines and Python scripting. After an introduction to the 3D printing process, the first method with all of its detail is explained; then, there would be two workshops for this method; the first workshop is for the 3D printing simulation of a gear with uniform cross-section and the second one is for a shaft with non-uniform cross-section. The second method uses a plug-in called AM Modeler. With this plug-in, the type of 3D printing can be selected, and after inserting the required inputs and applying some settings, the 3D printing simulation is done without any need for coding. Two main workshops will be taught to learn how to use this plug-in: "Sequential thermomechanical analysis of simple cube one-direction with LPBF 3D printing method using the trajectory-based method with AM plug-in" and "3D printing simulation with Fusion deposition modeling and Laser direct energy deposition method with AM plug-in".