Silver Membership

 789.0

Here is a description for the membership to access ABAQUS packages based on the provided details:

ABAQUS Packages Membership

  • Duration: 12 months
  • Cost: €789 per 12 months
  • Packages Included: 5 packages
  • Packages Paid For: 4 packages
  • Discount: More than 55%

Package Details:

  • Access to 5 ABAQUS training packages
  • Pay for only 4 packages, but receive 5 packages
  • Significant discount of more than 55% off the regular package pricing
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Description

Here is a description for the membership to access ABAQUS packages based on the provided details:

ABAQUS Packages Membership

  • Duration: 12 months
  • Cost: €789 per 12 months
  • Packages Included: 5 packages
  • Packages Paid For: 4 packages
  • Discount: More than 55%

Package Details:

  • Access to 5 ABAQUS software packages
  • Pay for only 4 packages, but receive 5 packages
  • Significant discount of more than 55% off the regular package pricing

This membership provides excellent value by granting access to 5 ABAQUS software packages while only paying for 4. The €789 per 3-month period represents a discount of more than 55% compared to the regular package pricing, making it a highly cost-effective solution for users in need of ABAQUS software.

Whether you’re an engineer, researcher, or designer, this ABAQUS Packages Membership offers a convenient and affordable way to access the powerful simulation and analysis tools provided by the ABAQUS suite of products.

The 3-month duration of this membership allows for flexibility in meeting your project or research needs, and the ability to access 5 packages while paying for only 4 further enhances the overall value.

If you have any further questions or would like to proceed with this membership, please let me know.

ADVANCED ABAQUS SUBROUTINE COURSE | FULL

 1958.0
Gain mastery over complex engineering challenges in Abaqus through this comprehensive course focusing on advanced subroutines. Enhance the software’s capabilities and create highly tailored simulations. Explore in-depth functionalities such as UMAT, VUMAT, USDFLD, VUSDFLD, UHARD, VUHARD, UMATHT, and UHYPER to develop unique material models, define hardening characteristics, simulate thermal effects, and manage internal heat generation using HETVAL. Extend beyond standard features with DLOAD, VDLOAD, DFLUX, and VDFLUX to handle intricate loading scenarios and variations in heat flux. Implement time-dependent loads and boundary conditions with UAMP, VUAMP, DISP, and VDISP. Take control with UMESHMOTION for mesh movement, and utilize UEL and VUEL for complex element behavior. Address complex friction scenarios with VFRICTION and VFRIC, and manage custom outputs and thermal strains using UVARM, VUVARM, UEXPAN, and VUEXPAN. This course is designed for proficient Abaqus users aiming to push the boundaries of simulation capabilities and effectively solve real-world engineering challenges beyond conventional methods.

ABAQUS PYTHON COURSE FOR SCRIPTING IN FEM SIMULATION | FULL

 958.0
The Abaqus Python Course aims to equip engineers and researchers with the skills needed to effectively use Python scripting within Abaqus. Whether you seek to optimize workflows, automate tasks, or maximize the capabilities of Abaqus simulations, this course offers tailored solutions. Structured comprehensively, the course features dedicated modules covering MDB scripting, output management, and plugin development. Each module includes video lectures, hands-on workshops, and supplementary downloadable resources to enhance understanding. The practical workshops, which cover applications such as simulating a cantilever beam or a 3D truss, are especially valuable for reinforcing theoretical knowledge and practical skills.

COMPREHENSIVE ABAQUS TUTORIAL FOR CIVIL ENGINEERS | FULL

 2258.0
This comprehensive online course provides a robust skillset for civil engineers. Gain expertise in foundational Abaqus techniques, explore advanced modeling of concrete and soil, master fluid and dam analysis, study tunnel excavation and stability, and learn fastener modeling alongside material damage and fracture techniques (CRC & XFEM). Develop the ability to design intricate structures and analyze diverse materials such as concrete, soil, and steel through advanced simulations. Whether you're new to Abaqus or an experienced specialist, this course is designed to equip you with the tools needed for real-world civil engineering projects. Upon completion, you will possess the skills to confidently tackle complex civil engineering challenges using Abaqus, including advanced topics like subroutines and scripting. The course thoroughly covers Abaqus tutorials and finite element methods pertinent to civil engineering.

Composite Fatigue Simulation with Subroutine in ABAQUS (unidirectional) for 3D Element

 300.0

Fatigue in composites refers to the weakening of a material caused by repeatedly applied loads or stress cycles over time. When a composite material is subjected to cyclic loading, small cracks or microdamage can form within the material, which may grow and lead to failure after a certain number of loading cycles. This is a significant consideration in the design and analysis of composite structures, especially in applications subjected to repeated stress, such as in aerospace, automotive, or civil engineering.

In one of our other packages, we have used the UMAT subroutine in Abaqus to simulate fatigue in composites in two-dimensional space. The current project is more comprehensive, as it addresses composite fatigue in both 2D and 3D spaces. So you can use it for the simulation of both shells and solids. In this project, you will first become familiar with simulating composite fatigue in 3D space using the Abaqus UMAT subroutine. Then, we will provide a complete UMAT code along with Abaqus files for extending the simulation to 3D space, enabling the 3D simulation of composite fatigue in Abaqus.

Essential Abaqus Training for Engineers: From Basics to Advanced Techniques

 120.0

This beginner-friendly Abaqus course offers a complete guide to mastering finite element simulations through step-by-step tutorials and practical workshops. It covers essential topics such as Abaqus/CAE basics, finite element theory, composite material simulation, and thermal and impact analyses. Advanced sections delve into UMAT/VUMAT subroutines and Python scripting, equipping users with skills to automate workflows and solve complex engineering problems. Workshops include real-world examples like cantilever beams, forming processes, and fracture simulations. Perfect for engineering students and professionals, this course helps you build a solid foundation in Abaqus and expand your simulation capabilities.

Fretting Fatigue Failure Simulation with Scripting in Abaqus

 290.0

This Package offers a comprehensive tutorial on using Abaqus for Fretting Fatigue Failure Simulation. To do so, it combines theoretical knowledge with practical application in Finite Element Method (FEM) simulations. The package guides users through both detailed lessons and interactive workshops. In fact, it focuses on developing 2D Fretting-Fatigue models in Abaqus with three core areas: model creation with exclusively designed meshing methodologies, the development of custom Field Outputs for detailed analysis, and automated parameter selection and post-processing through Python scripting.

Throughout the tutorial, participants master critical aspects of Fretting Fatigue Failure simulation. It includes basics from mesh refinement techniques and step control optimization to complete workflow automation. The program distinctively integrates command prompt operations for extracting Field Outputs and modifying simulation parameters. For example, we can refer to the Coefficient of Friction (CoF). Users gain practical experience in creating robust models while understanding the fundamental principles of the Fretting Fatigue Failure phenomenon.

Upon completion, participants will acquire the skills to independently develop and analyze Fretting Fatigue failure simulations. Moreover, they can automate post-processing tasks, and implement custom analysis parameters for precise fatigue prediction in mechanical systems.

Customized Certificate-co‑ax-gmbh

Original price was: € 1000.0.Current price is: € 200.0.

Domino Effect Simulation in Abaqus | With a Review of Contact Definition Methods in Abaqus Explicit

 0.0

This project focuses on the domino effect simulation with Abaqus CAE, a widely recognized finite element program. The domino effect refers to a chain reaction where one event triggers a series of similar events. It often leads to larger and unpredictable consequences. The project highlights the challenges of defining contact between components in Abaqus, a crucial aspect of domino effect simulation. The provided video explains the step-by-step modeling process. However, since one of the key challenges in this topic is defining contact, we have also attached a separate PDF. It covers defining contact in Abaqus Explicit. It includes its formulations and methods. The PDF will provide you with a better understanding of the modeling process. You can also apply it to model other problems.

How to use ABAQUS Documentation

 30.0

This package teach you how to simulate your customized problem by using help to find similar problems and execute them, theories, using scripts and subroutines and etc.

Inherent strain method in Metal Additive Manufacturing simulation (using subroutines and Python scripting in Abaqus)

 250.0

Additive Manufacturing (AM), a revolutionary layer-by-layer fabrication technology, is transforming how products are designed and manufactured. This comprehensive tutorial package focuses on the Inherent Strain (IS) method, a highly efficient numerical approach for simulating the Laser Powder Bed Fusion (LPBF) process in metal additive manufacturing. The detailed thermo-mechanical simulation of the Laser Powder Bed Fusion (LPBF) for complex geometric parts requires a large number of time steps to estimate residual stress and distortion, which is not computationally cost-effective. Furthermore, based on the large thermal gradient near the heat source, the mesh size must be sufficiently small to accurately predict the induced residual stress and distortion of the deposited layers in the heat-affected zone. Therefore, applying a coupled thermo-mechanical analysis for multiple laser scans with a fine mesh model to macro-scale simulation would incur excessively large computational costs.

Additionally, the large number of degrees of freedom for each element in the mechanical analysis leads to higher complexity as well as a longer amount of processing time. Detailed thermo-mechanical analysis for an industrial component is almost impractical since it would demand hundreds of terabytes of memory and years to calculate. Therefore, to overcome the huge computational burden associated with the numerical simulation of the LPBF caused by the infinitesimal laser spot size and thousands of thin layers with a thickness at the micron level, the Inherent Strain Method in additive manufacturing has been widely used in research and commercial software.

In this tutorial, the Inherent Strain Method additive manufacturing approach is presented both theoretically and practically in Abaqus. An agglomeration approach will be considered to transfer an equivalent inherent strain from both micro-scale and macro-scale modeling strategies. The implementation of this approach is explained step by step, accompanied by various workshops in micro-scale and macro-scale models for different geometries. This training package enables you to write your subroutine codes and Python scripting, as well as have more control over the LPBF process simulation.

Laser Assisted Machining (LAM): Modeling and Simulation in Abaqus/CAE

 310.0

In this tutorial, a comprehensive discussion on modeling and simulation of laser assisted machining is presented. It includes building FEM-based models of machining, laser heating, and laser-assisted machining models in Abaqus/CAE. The finite element method (FEM) simulation is based on the coupled thermo-mechanical behavior. The package walks learners through building models that simulate the impact of laser heating on the workpiece. Detailed lessons cover constructing basic machining and laser heating models, setting boundary conditions like cutting speed and laser power, and writing subroutines such as DFLUX and VDFLUX to simulate laser heat sources. Additionally, learners will perform analyses to study temperature distribution, and stress-strain behavior. Through parametric analysis and comprehensive result evaluation, learners will gain a deep understanding of temperature distribution, stress behavior, and how laser heating can improve the machining process.

Simulation of Inertia Welding process in Abaqus | Fortran Subroutines and Python Scripts

 210.0

This tutorial provides a comprehensive guide to simulating inertia friction welding process​ using Abaqus, a powerful Finite Element Analysis (FEA) tool. Inertia welding process, commonly used in aerospace, automotive, and manufacturing industries, is a solid-state process that joins metal parts using kinetic energy. The simulation focuses on modeling frictional heating, temperature distribution, and material behavior through integrated Fortran subroutines and Python scripts. These scripts automate tasks such as remeshing and model generation, enhancing efficiency. Key steps include defining axisymmetric models, applying material properties, and simulating thermal and mechanical interactions during the inertia welding process. This guide equips researchers and engineers with a robust methodology for inertia welding simulation, to optimize welding parameters and analyze weld quality.

Using Viscoelastic and Path-Dependent Models for Analyzing the Curing Process in Fiber-Reinforced Composites With Abaqus subroutines

 290.0
(2)
Fiber-reinforced composites, widely used across various industries, consist of reinforcing fibers embedded in a matrix. During the curing process, this mixture transforms into a stable material. Curing is a critical step to ensure the durability and strength of the final product. In one of our intermediate packages, we used Abaqus to analyze the curing process in composites with linear elastic models. While these models are straightforward and user-friendly, their accuracy is limited because composites exhibit viscoelastic behavior during curing, rather than elastic behavior. To address this limitation, the current package introduces two more advanced and accurate models for analyzing residual stresses in composites: the viscoelastic model and the path-dependent model. These models offer significantly greater accuracy compared to linear elastic ones but involve added complexity. To simplify this complexity for users, the package begins with a comprehensive overview of the underlying theories and formulations for the viscoelastic and path-dependent models. It then provides detailed guidance on implementing these models using Abaqus subroutines. Finally, workshops are included to demonstrate how the viscoelastic model significantly improves the prediction of residual stresses in composites compared to the elastic models featured in our intermediate package.

Pipe Soil Interaction in Abaqus

 230.0

Pipe Soil Interaction refers to how buried pipelines and surrounding soil respond to loads and dynamic events, crucial for assessing the stability of pipelines used for water, gas, and oil distribution. This tutorial package includes six workshops that use Abaqus to simulate various soil-pipe scenarios. The tutorials cover the long-term load capacity of pipe piles under axial loads, and multiple simulations of coupled Eulerian-Lagrangian (CEL) explosions near or inside steel pipelines buried in soil. These simulations employ advanced material models like the Johnson-Cook plasticity for steel and Mohr-Coulomb plasticity for soil, along with the JWL equation for TNT explosions.

Workshops focus on both external and internal explosions, exploring how blast waves affect pipeline integrity and soil deformation. The tutorials emphasize critical aspects like stress, strain, and damage mechanics, offering detailed insights into pipeline behavior under extreme conditions. These simulations help engineers analyze blast loads and optimize the design of buried structures to withstand destructive forces.

Brittle Damage in Abaqus | Brittle Cracking Abaqus​

 240.0

Brittle materials, such as ceramics, glass, and concrete, break or fracture easily under stress without extensive deformation. Unlike ductile materials, brittle materials snap suddenly, lacking the flexibility to rearrange their atomic structure under strain. These materials have low tensile strength but strong compressive resistance, making them vulnerable to brittle cracking Abaqus simulations when stretched or pulled.

Understanding brittle material damage is crucial in safety-critical fields like civil engineering, aerospace, and manufacturing, where unexpected fractures can lead to catastrophic failures. Simulations help engineers predict when and how brittle materials may break, guiding safer design choices. Brittle cracking Abaqus can be modeled using various methods, including the Johnson-Holmquist (JH) model, XFEM, and energy-based approaches, each suited to different types of loading conditions.

For dynamic, high-strain applications like impacts, the JH model is effective, particularly in Abaqus/Explicit with specific damage parameters. For general crack modeling, XFEM is versatile, allowing cracks to form naturally without predefined paths. The energy-based method is useful for slow-loading scenarios, defining an energy threshold for fracture initiation. Each method requires careful input of material properties, mesh refinement, and load conditions to reveal potential failure points and improve material performance in real applications.

Abaqus Kelvin Voigt Model (Viscoelastic) Simulation Using UMAT and VUMAT Subroutines

 270.0
(4)

This research presents a precise three-dimensional mechanical response of viscoelastic materials using Abaqus kelvin voigt viscoelastic model. We performed this kelvin voigt model Abaqus simulation using both UMAT and VUMAT subroutines for standard and explicit solvers.

The behavior of viscoelastic materials is a state between the behavior of a liquid and a solid. In other words, they behave both like liquids and solids. That is to say, there are many natural and synthetic materials that are classified as viscoelastic materials; From the biological structures of the body such as skin, cartilage and tissue to concrete, foams, rubbers, and synthetic polymers. Due to these unique properties, viscoelastic materials have many applications.

In this regard, the primary goals of this study include the development and implementation of an accurate three-dimensional Abaqus kelvin voigt viscoelastic model, and the integration of viscoelastic properties into the analysis, which can improve the prediction of viscoelastic materials response under different boundary and loading conditions.

This tutorial, by customizing the UMAT and VUMAT subroutines to simulate flexible samples behavior, contributes to the advancement of viscoelastic materials design and analysis.

Implementation of Soil Constitutive Models in Abaqus | With a Special Focus on CSJ Models

 270.0

Constitutive model implemented in calculation code, play an important role in the material behaviors prediction. In the field of geotechnical engineering there are numerous soil constitutive models. By installing these models in a finite element code such as Abaqus, their development, efficiency and advancement can be increased. Also, more and more complex engineering problems can be solved by this method. But to do this, you need a proper understanding of the mathematical and programming basics of these models. This tutorial focuses on implementing advanced constitutive models in Abaqus, particularly for simulating soil behavior. Focusing on the CJS model, this tutorial tries to teach how to work and how to program these models in Abaqus code. It includes detailed explanations of VUMAT and UMAT subroutines and practical examples of implementing the CJS model.

Note: In this project, we have discussed the UMAT and VUMAT subroutines, their specifications, and features. You will become familiar with the implementation of both UMAT and VUMAT subroutines. However, the specific focus of this project, for which we have provided the necessary files and run the analysis, is on using the VUMAT model. If you need to use Abaqus for this project with the standard solver, you will need to write the UMAT subroutine yourself.

Concrete Damage Plasticity Simulation of FRP-Confined Concrete Columns in Abaqus

 280.0

This tutorial package provides a comprehensive guide to implementing USDFLD subroutine in the context of Concrete Damage Plasticity Material Model.  The tutorial focuses on key modeling aspects such as definition of concrete material properties using Concrete Damage Plasticity (CDP) Model.  A theoretical background of the model will be presented and detailed explanation of the definition of all material properties will be given.  The package will also explain the usage of the USDFLD subroutine to modify concrete material properties dynamically during simulation. Examples of implementing USDFLD in the context of CDP will be presented with focus on material properties that vary in function of pressure and axial strain defined as field variables.

All other modeling details will also be explained including boundary conditions, meshing, loading, and interactions.

By following the detailed steps in this tutorial, you will be able to create and analyze advanced FEM simulations in Abaqus with a focus on concrete having properties that vary during simulation.

Computational Predictions for Predicting the Performance of Structure

 340.0

This package focuses on developing and applying predictive models for the structural analysis of steel and concrete components subjected to fire and subsequent earthquake loading. To accurately simulate the complex behavior of these structures, finite element analysis (FEA) using ABAQUS is employed. The Taguchi method optimizes the number of samples needed for FE analysis, and this method is used with SPSS after explanation its concept. However, due to the computational demands of FEA, various machine learning techniques, including regression models, Gene Expression Programming (GEP), Adaptive Network-Based Fuzzy Inference Systems (ANFIS), and ensemble methods, are explored as surrogate models. These models are trained on large datasets of FEA results to predict structural responses efficiently. The performance of these models is evaluated using statistical metrics such as RMSE, NMSE, and coefficient of determination.

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All the package includes Quality assurance of training packages. According to this guarantee, you will be given another package if you are not satisfied with the training, or your money is returned. Get more information in terms and conditions of the CAE Assistant.
All packages include lifelong support, 24/7 support, and updates will always be sent to you when the package is updated with a one-time purchase. Get more information in terms and conditions of the CAE Assistant.

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Features

Abaqus tutorial video
Lecture notes
Abaqus workshop files
Contains all required files
Certification
Works for all Abaqus versions
Safe payment
money-back guarantee
Free 24/7 online mentoring
Access for life
updated content
Time-Saving Short But Full
Premium Corporate and Academic Clients
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Fortran Abaqus subroutines
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Teaching Plan

UMAT Teching Plan

Introduction to Subroutines

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Writing UMAT/VUMAT Subroutines for Composite Materials

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Writing UMAT/VUMAT Subroutines for Hyper Elastic Materials

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