Composite simulation for experts-Part-3

(1 customer review)

 1340.0

Pay attention to the syllabus and availability file details. some of the packages are fully available and some of them are partially available. If this is partially available it takes at least two months to be completely available.

If you are a graduate or Ph.D. student, if you are a university professor or an expert engineer in the industry who deals with simulation software, you are definitely familiar with the limitations of this software in defining the material properties, loading or meshing, interaction properties, and etc. You have certainly tried to define the properties of materials based on advanced fracture theories in finite element software and are familiar with their limitations and problems.

Now, here is your solution. Start writing subroutines in finite element software and overcome the limitations. With the tutorials in the Golden Package, you will learn how to write 8 subroutines in Abaqus software professionally.

Included

.inps,video files, Fortran files (if available), Flowchart file (if available), Python files (if available), Pdf files (if available)

Tutorial video duration

497 minutes

language

English

Level

Package Type

Software version

Applicable to all versions

Subtitle

English

33 People watching this product now!
Report Abuse
Description

If you are a researcher, student, university professor, or  Engineer in the company in the field of composite materials, this training package in simulating these materials in Abaqus software is the best selection.

The VUMAT subroutine is used in this training package, which is based on the aforementioned literature, to analyze damage in materials with chopped or short fiber composites. It should be noted that, with a few tips, you may use this function for static, quasi-static, and dynamic analysis. The material strength and property degradation in this damage model are smooth.

Package-2: Simulation of woven composite fatigue in Abaqus

This package teaches you how to use the subroutine to analyze damage in woven composite materials. In the presentation, you will first learn about the theory behind this damage model. The subroutine’s flowchart is then explained box by box. You can learn how to write the subroutine line by line in the next step. The subroutine is then used in both simple and complex examples.

Package-3: Wood damage simulation with Abaqus subroutine

In this training handbook, we focus on the deterioration of wood composites utilizing Sandhas and Hashin failure criteria. We begin by outlining the package’s failure criteria and related equations. The flowchart for the damage models is then explained. The following step entails attempting to break down two subroutines line by line. Finally, we present the application of these two subroutines in two distinct workshops and discuss the results.

Three subroutines in this training package prepare the 3D continuum puck damage initiation model (USDFLD, UMAT and VUMAT). You will learn subroutines in this training course line-by-line. It should be emphasized that failure happens rapidly and occurs in the form of a decrease in the model’s properties following damage onset.

This training program covers the cohesive element and cohesive surface in great detail. This training program focuses on modeling using the traction-separation technique. The adhesive is simulated using two approaches: surface-based modeling and element-based modeling, each of which has benefits and drawbacks. All adhesive behaviors, including the elastic zone, damage initiation, progressive damage, and element removal, are covered by the theories employed in this package.
In this training package, everything you need to simulate these materials is completely available from simple to advanced. It includes modeling these materials in Abaqus to fatigue and damage of composite materials. Note that composite materials in some cases require subroutine writing due to their complex behavior for simulation in Abaqus software. An example of subroutine requirement in these materials is to study the fatigue of composite materials in the Abaqus, the implementation of damage initiation, and the progressive damage in three-dimensional elements.

You can see the syllabus and details of this workshop below or the drop-down menu on the right side of this product page.


Read More: All about fatigue composite


  • Lesson-1: Theory of short fibre composites based on article
  • Lesson-2: Writing subroutine line-by-line
  • Workshop: Damage simulation of short fibre composites on dog-bone shaped specimens with subroutine
  • Lesson-1 : Introduction to Hashin modified fatigue model for woven composites
  • Lesson-2: Writing subroutine
  • Workshop-1 : subroutine implementation on one element in cyclic tension
  • Workshop-2 : subroutine implementation on complex model
  • Lesson-1 : Hashin modified damage model for wood materials
  • Lesson-2 :Sandhas damage model for wood materials
  • Workshop-1 : Modified Hashin subroutine implementation on one element
  • Workshop-2 : Sandhas subroutine implementation on one element
  • Workshop-3 : subroutine implementation on 3d plate with hole
  • Lesson-1: Introduction to Puck failure criterion
  • Workshop-1 part-1:Simulation of composite Puck damage in 3d continuum element in Abaqus with UMAT
  • Workshop-1 part-2: Simulation of composite Puck damage in 3d continuum element in Abaqus with VUMAT
  • Workshop-1 part-3: Simulation of composite Puck damage in 3d continuum element in Abaqus with USDFLD
  • Lesson: All you need to know about cohesive simulation with two element-based and surface-based method
  • Workshop 1: Simulation Single Lap joint under tension
  • Workshop 2: Simulation of masonry wall in Abaqus
  • Workshop 3: Debonding behavior of a double cantilever beam
Questions & Answers
Loading...
Shipping and Delivery

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.

Notice: If you have any question or problem you can contact us.
Ways to contact us: WhatsApp/Online Support/Support@CAEassistant.com/ contact form.
Projects: Need help with your project? You can get free consultation from us here.

  • Online payment: with MasterCard, VisaCard and etc.
  • Offline payment: In this payment method, you should pay via PayPal and send your payment receipt as an attached file in the offline payment form.
  • via download link After purchase, a download link will be sent to you a zip file included training videos, documents and software files.
  • Send us your machine ID

To access tutorial video run the .exe file on your personal pc and send the generated code to shop@caeassistat.com and wait for your personal code, which is usable only for that pc, up to 24 hours from CAE Assistant support.

Here you can see the purchase process of packages: Track Order

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
Prepared by High-Level Researchers
Fortran Abaqus subroutines
All payment method
More Products

Bicycle Stress Analysis with Ansys Mechanical

 40.0

This tutorial package offers a comprehensive introduction to linear-static analysis using Ansys Mechanical, focusing on a bicycle stress analysis with the case study which is a bicycle crank made from Aluminum 6061-T6. Whether you're a beginner looking to get started with FEA or an experienced engineer seeking to refine your skills, the package provides a strong foundation in the fundamental techniques needed to succeed in real-world applications.

The tutorial covers the essential steps in finite element analysis (FEA), including the model setup, simulation, and interpretation of results. By leveraging Ansys Mechanical, users will perform a full simulation on the crank geometry to assess stress distribution, deformation, and safety under load conditions. Key topics include mesh generation along with mesh refinement, and the application of boundary conditions. The tutorial guides users through material property assignment, mesh independence, and validation with hand calculations, ensuring accuracy.

 Ansys-specific features, including post-processing tools for analyzing total deformation, bending stress, and the factor of safety, are thoroughly demonstrated. This package also highlights the power and efficiency of Ansys Mechanical, emphasizing its user-friendly interface and ability to handle complex simulations with greater precision compared to competitors, making it one of the best-in-class structural analysis FEA software.

Hardening plasticity in Abaqus

 210.0
(13)
In this package, hardening plasticity in the Abaqus software using Abaqus material models or UMAT subroutine or UHARD subroutine is discussed. It should be mentioned using a subroutine to define hardening could be more professional and this package tries to familiarize users with these subroutines for hardening definitions. So, if you want to write these subroutines for your customized project in the hardening plasticity field, I recommend you the "UMAT Subroutine (VUMAT Subroutine) introduction" and "UHARD Subroutine (VUHARD Subroutine) in ABAQUS".  

Fatigue damage simulation of short fibre composites with subroutine

 340.0
Fatigue failure in materials occurs when repetitive or fluctuating stresses, below the ultimate strength and often below the yield limit, lead to sudden and unpredictable failure, making it a significant concern in engineering due to its potential for catastrophic consequences. The reinforced part of the fiber-reinforced composites can be categorized as continuous or discontinuous, with the latter referred to as short fiber-reinforced composites. In this training package, the fatigue of short (chopped) fiber composites is explained. Two fatigue damage models are presented for short fiber composites: Nouri fatigue damage model and Avanzini fatigue damage model. The Nouri’s model is applicable for composites with orthotropic behavior. But the Avanzini’s model has considered the fiber distribution in the matrix to be homogeneous and random. It has assumed the material behavior to be isotropic. Also, Nouri's model was developed for strain-controlled test, but Avanzini's model was developed for stress-controlled test. In this tutorial, we use the Avanzini’s model, which is base on this article: “Fatigue behavior and cyclic damage of peek short fiber reinforced composites”. This article has implemented the USDFLD subroutine, but we use the UMAT subroutine, which is more accurate than USDFLD since the material strength and properties reduction is smooth. A standard test specimen is used in this simulation to model such behavior. You will learn the details in the package.

MASTER COMPOSITE SIMULATION IN ABAQUS

 5300.0
In this comprehensive online course, you'll explore composite material modeling using Abaqus software. We’ll guide you through the process of creating precise finite element models for various composites, including unidirectional, woven, and chopped fiber configurations. You'll also learn to model different types of damage within these composites, including wood composites like balsa wood. But the course goes further, equipping you to develop custom material models and damage functionalities using subroutines that build on Abaqus' built-in capabilities, such as 3D continuum, Hashin, and Puck models. Additionally, you'll delve into simulating curing and fatigue behavior in composites, applying these advanced techniques for more accurate analysis.

Creep Analysis in Abaqus

 120.0
(11)
In engineering, creep phenomenon refers to the gradual deformation or strain that occurs in a material over time when it is subjected to a constant load or stress (usually lower than yield stress) at high temperatures. It is a time-dependent process that can lead to the permanent deformation and failure of the material if not properly accounted for in design considerations. Creep analysis is vital in engineering to understand material behavior under sustained loads and high temperatures. It enables predicting deformation and potential damage, ensuring safe and reliable structures. Industries like power generation and aerospace benefit from considering creep for long-term safety and durability of components. In this training package, you will learn about Creep phenomenon and its related matters; you will learn several methods to estimate the creep life of a system’s components, such as Larson-Miller; moreover, all Abaqus models for the creep simulation such as Time-Hardening law and Strain-Hardening law will be explained along with Creep subroutine; also, there would be practical examples to teach you how to do these simulations.

UEXPAN and VUEXPAN Subroutine

 120.0

In this tutorial, how to define increments of thermal strains, in order to model thermal expansion, is taught. The implementation of thermal expansion in model is done with UEXPAN and VUEXPAN subroutines for Abaqus/Standard solver (implicit method). In user subroutines UEXPAN or VUEXPAN, the increments of thermal strains can be defined as functions of predefined field variables, temperature, and state variables.

UEXPAN and VUEXPAN are called for all integration points of part elements where the definition of material or gasket behavior includes user-subroutine-defined thermal expansion.

The subroutines are used when the material’s thermal expansion behavior is too complex to model with the "EXPANSION" option in the Abaqus software environment. For example, the subroutines are used in problems where the thermal strains are complexly dependent on temperature, predefined field variables, and state variables, and there is a need to update these variables.

The user subroutine UEXPAN is called twice per element point in each iteration during coupled thermal-electrical-structural or coupled temperature-displacement analyses.

Product Enquiry

Product Enquiry

5
1 review
1
0
0
0
0

1 review for Composite simulation for experts-Part-3

Clear filters
  1. Marigold

    In the Composite Simulation for Experts course, are specific methods taught for modeling fatigue and damage in composite materials using Abaqus software? Does the course cover specific approaches and algorithms for simulating fatigue behavior and damage in composite structures?

    • Experts Of CAE Assistant Group

      I think both questions are same. Yes. The answer in this package covers different courses including fatigue and damage simulation for composites. The used theories could be used for all software like Abaqus as a finite element software.

Add a review