# Machining of Spherical Component Fabricated by Selected Laser Melting,   Part II: Application of Ti in Biomedical

**Authors:** AmirMahyar Khorasani

arXiv: 1703.10045 · 2017-03-30

## TL;DR

This paper reviews titanium's properties and manufacturing processes for biomedical implants, analyzing in-vivo and in-vitro performance, and proposes strategies to enhance implant quality and patient outcomes.

## Contribution

It provides a comprehensive analysis of Ti and Ti-based alloys in biomedical applications and suggests improvements in manufacturing and alloy design for better medical performance.

## Key findings

- Ti alloys exhibit high strength and corrosion resistance in biomedical use.
- Manufacturing process choices significantly affect implant performance.
- Strategies for alloy optimization can improve patient outcomes.

## Abstract

Ti and Ti-Based alloys have unique properties such as high strength, low density and excellent corrosion resistance. These properties are essential for the manufacture of lightweight and high strength components for biomedical applications. In this paper, Ti properties such as metallurgy, mechanical properties, surface modification, corrosion resistance, biocompatibility and osseointegration in biomedical applications have been discussed. This paper also analyses the advantages and disadvantages of various Ti manufacturing processes for biomedical applications such as casting, powder metallurgy, cold and hot working, machining, laser engineering net shaping, superplastic forming, forging and ring rolling. The contributions of this research are twofold, firstly scrutinizing the behaviour of Ti and Ti-Based alloys in-vivo and in-vitro experiments in biomedical applications to determine the factors leading to failure, and secondly strategies to achieve desired properties essential to improving the quality of patient outcomes after receiving surgical implants. Future research will be directed toward manufacturing of Ti for medical applications by improving the production process, for example using optimal design approaches in additive manufacturing and investigating alloys containing other materials in order to obtain better medical and mechanical characteristics.

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Source: https://tomesphere.com/paper/1703.10045