Hossein Mohammadtaheri

LinkedIn Profile

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  • Concordia University
    Contract Full-time · 2 yrs 11 mos
    Montreal, Quebec, Canada
  • Graduate Research Assistant
    Sep 2021 – Present · 2 yrs 11 mos

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  • Concordia University
    Ph.D. candidate in Mechanical Engineering

 

  • Tarbiat Modares University
    M.Sc in 2014

 

  • Isfahan University of Technology
    B.Sc. at the  in 2011

At CAEAssistant.com, we collaborate with a distinguished group of researchers who bring a wealth of academic and industry experience to our platform. These experts are not only leading voices in their respective fields but also active contributors to cutting-edge research, with numerous ISI-indexed publications and industry-relevant projects under their belts. Their deep expertise in areas such as finite element analysis, composite materials, and advanced simulation techniques ensures that the courses they create are both academically rigorous and practically valuable. By learning from these accomplished professionals, our students gain access to the latest knowledge and insights, empowering them to excel in their careers and research endeavors.

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Inherent strain method in Metal Additive Manufacturing simulation (using subroutines and Python scripting in Abaqus)-Part I, II

 350.0

Additive Manufacturing (AM) is a layer-by-layer fabrication technology poised to bring about a revolution in the way products are designed, manufactured, and integrated. In the present tutorial, the Inherent Strain (IS) method as the most viable and efficient numerical approach is introduced to simulate the metal AM process. Although the IS method has been added in many commercial software packages such as the Abaqus AM Modeler plug-in, their underlying algorithms have not been explicitly elucidated.

This tutorial attempts to provide comprehensive training in finite element-based modeling of the Laser Powder Bed Fusion (LPBF) process using the IS approach to predict the residual stresses and distortion of the macro-scale component in a fast and effective way. The package is included in two separate parts associated with the micro-scale and macro-scale modeling, respectively. Each part consists of two workshops as case studies to demonstrate the viability of the IS method for various geometries. The workshops in the first part are modeling of a single path and multi-path layers to compute the IS values and the second part includes the simulation of a rectangular wall and a double-cantilever beam to predict the residual stresses and distortion.