Price 8

Project Overview

In this example, we intend to simulate the hot backward extrusion of Titanium alloy (Ti-6Al-4V) in the Abaqus software.

This model is composed of Titanium alloy, Die, and Punch. The Die and Punch are modeled as rigid bodies, while the Titanium alloy is modeled as a deformable body.

Hot backward extrusion model of Ti-6Al-4V Titanium alloy.

Temperature Conditions

The initial temperature of the Titanium alloy is 880 °C, while the initial temperature of the Die and Punch is 350 °C.

During the hot backward extrusion process, the temperature of the Titanium alloy changes due to the deformation of the workpiece. The initial temperature of the workpiece is 880 °C, and as a result of the backward extrusion process, its temperature increases and reaches approximately 921 °C. This temperature increase is associated with the deformation of the workpiece during the extrusion process.

Initial temperature of the workpiece is 880 °C.

Final temperature of the workpiece is 921 °C.

Axisymmetric Modeling

Since the Die, Punch, and Titanium alloy have a cylindrical shape, the Axis-Symmetric method is used to simulate the model.

The axisymmetric approach allows the cylindrical extrusion process to be modeled efficiently while maintaining the geometry and deformation characteristics of the problem.

Ultimate Deformation of Titanium Alloy

After the hot backward extrusion process, the ultimate deformation of the Titanium alloy can be observed in the Abaqus results.

The final configuration shows the deformation and material flow of the Ti-6Al-4V alloy during the extrusion process.

Ultimate deformation of the Ti-6Al-4V Titanium alloy.

Reaction Force of Punch

Another important result obtained from the Abaqus simulation is the reaction force of the Punch.

The reaction force of the Punch is evaluated during the extrusion process and presented as a diagram to show the force response throughout the analysis.

Diagram of the reaction force of the Punch.

What You Will Learn

  • How to simulate hot backward extrusion in Abaqus.
  • How to model Ti-6Al-4V Titanium alloy.
  • How to model the Die and Punch as rigid bodies.
  • How to model the Titanium alloy as a deformable body.
  • How to define the initial temperature of the Titanium alloy.
  • How to define the initial temperature of the Die and Punch.
  • How to use the Axis-Symmetric method in Abaqus.
  • How to investigate the ultimate deformation of the Titanium alloy.
  • How to obtain the reaction force of the Punch.
  • How to plot and evaluate the Punch reaction force.

Key Features

  • Hot backward extrusion of Ti-6Al-4V Titanium alloy.
  • Axis-Symmetric Abaqus model.
  • Rigid Die and Punch.
  • Deformable Titanium alloy.
  • Titanium alloy initial temperature: 880 °C.
  • Die initial temperature: 350 °C.
  • Punch initial temperature: 350 °C.
  • Ultimate deformation analysis.
  • Reaction force of Punch diagram.
  • Step-by-step Abaqus tutorial.
Files Included
What you will receive after purchase
File Type
Content
Description
🧩 Abaqus
CAE File
Complete Abaqus model
📄 Abaqus
INP File
Abaqus input file
📊 Excel
Material, Ti-6Al-4V
Material data for Ti-6Al-4V
📊 Excel
Excel
Geometries of die and punch
🎥 Video
Video Tutorial
Step-by-step explanation of the project

Project Information

Important information about this project

🎥
Video Duration 28 Minutes
📦
Total File Size 126 MB
🔧
Abaqus Version Abaqus 2017
🌐
Language English
📥
File Delivery Instant Download

Payment & Support

Need help with your purchase?

💳

Secure Payment

Your payment is processed securely through our online payment system.

✉️

Need Help?

If you have any questions about this product, please contact us by email.

saeedofmoeini@gmail.com

chat_bubble_outlineReviews

There are no reviews yet.

Be the first to review “Hot backward extrusion of Titanium alloy (TI-6AL-4V) in the Abaqus”

Your email address will not be published. Required fields are marked *