Fabrication of the Hybrid Composite Material Aluminium 6063/Magnesium AZ31B with TiO2/B4C/Glass Powder by the Process of Friction Stir Additive Manufacturing

EasyChair Preprint 8714

Abstract

Additive manufacturing (AM) methods are probably the most widely used assembly strategy. There are several AM processes companies are using today, but friction stir additive manufacturing (FSAM) is narrowing the gap between what companies are citing and what can be achieved by other methods. It's a slowly growing process. In Contact Mixture AM, he joins one layer to another by erosion mix welding, creating a multifaceted fragment. This is another AM strategy that uses abrasive mixed treatments and erosive mixed welding. With this technology, we have obtained unrivalled features such as no inner holes, no sink marks, and high surface accuracy. We intend to use the microstructure and mechanical properties of the shards supplied during regrind additive manufacturing to understand the key criteria and highlights of regrind additive manufacturing. Authored by some logic analysts and developers, this part provides an overview of his work with FSAM and the areas that led to his improvement of FSAM as a notorious additive manufacturing process. So far, our conversations about FSAM have been based mainly on mesh mixed welding and his FSW of various materials, and the overall method that FSAM is based on.

Keyphrases: Friction stir additive manufacturing, Hybrid metal matrix composite, Matrix material, Metal matrix composite, porosity, reinforcement, strength

@booklet{EasyChair:8714,
  author    = {Anil Kumar Mishra and Sanjay Kumar and Rakesh Kumar Singh and Ankit Sharma},
  title     = {Fabrication of the Hybrid Composite Material Aluminium 6063/Magnesium AZ31B with TiO2/B4C/Glass Powder by the Process of Friction Stir Additive Manufacturing},
  howpublished = {EasyChair Preprint 8714},
  year      = {EasyChair, 2022}}