Development and heat treatment of β-phase titanium alloy for orthopedic application

Raza, Danish; Kumar, G. Srinivas; Uzair, Mohammad; Singh, Muna Kumar; Sultan, Dawood H.; Kumar, Rahul

doi:10.1016/j.matpr.2021.03.665

Cited by 12 publications

(7 citation statements)

References 51 publications

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“…Therefore, the numerous linear fitting equation parameters of Ti-6Al-0.4V-1.2Fe alloy can be calculated according to the above equation. That is, the calculation formulas of the M, N and P parameters are as follows: M = 0.28 − 0.73ε + 2.48ε 2 − 6.85ε 3 The accuracy of the calculated and actual values was verified to check the accuracy of the constitutive equation predictions. The comparison between the computed flow stress and the natural compression curve of the Ti-6Al-0.4V-1.2Fe alloy is shown in Figure 7.…”

Section: Arrhenius Equationmentioning

confidence: 99%

“…Titanium alloys are applied widely in various fields such as aerospace, petrochemicals [1], automobiles and ships [2], biomedicine [3], weapon equipment [4], sports and entertainment industries due to their advantages of lightweight, high strength, excellent corrosion resistance and good biocompatibility [5][6][7]. As a classic titanium alloy with comprehensive properties and the most widely applied, Ti-6Al-4V is used as a template for researching low-cost titanium alloys internationally.…”

Section: Introductionmentioning

confidence: 99%

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The analysis of hot deformation behaviour of low-cost α+β Ti-6Al-0.4V-1.2Fe alloys

Wan

Ren

Guo

et al. 2023

Materials Science and Technology

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The low-cost Ti-6Al-0.4V-1.2Fe alloy was subjected to isothermal compression experiments on the Gleeble 3800, and the deformation temperature was 775°C∼975°C and the strain rate was 0.01 s−1∼10 s−1. Based on the experimental data on thermal deformation, the microstructure evolution was studied and the constitutive equation was developed. The experimental results show that the flow stress increased with increasing deformation temperature and with the increase of the strain rate; the optimal deformation temperature of Ti-6Al-0.4V-1.2Fe alloy is 820°C∼950°C, and the strain rate is 0.01 s−1∼0.32 s−1; During hot deformation, the primary softening mechanism of this alloy is continuous dynamic recrystallisation. Compared with Ti-6Al-4V, the Ti-6Al-0.4V-1.2Fe alloy has better hot workability and better plasticity. Highlights A newly low-cost Ti-6Al-0.4V-1.2Fe alloy was designed based on the Kβ stability coefficient method, and the β stability coefficient was the same as that of Ti-6Al-4V. A study on the microstructure evolution in the process of hot deformation between Ti-6Al-0.4V-1.2Fe and Ti-6Al-4V alloys. A study on microstructure evolution and hot working process of a newly low-cost Ti-6Al-0.4V-1.2Fe alloy.

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Section: Arrhenius Equationmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

The analysis of hot deformation behaviour of low-cost α+β Ti-6Al-0.4V-1.2Fe alloys

Wan

Ren

Guo

et al. 2023

Materials Science and Technology

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“…Furthermore, different heat treatments and equal channel angular pressing methods (ECAPMs) improve mechanical behaviors by refining the grain sizes of titanium microstructures. 144,145 4.3.2. Wear Behaviors of Titanium Alloy.…”

Section: Wear Behaviors Of Stainless Steelmentioning

confidence: 99%

“…Ti-18Nb-13Zr alloys have low elastic moduli closer to human bone (17–35 GPa), making them ideal for hip applications. Furthermore, different heat treatments and equal channel angular pressing methods (ECAPMs) improve mechanical behaviors by refining the grain sizes of titanium microstructures. , …”

Section: Metal-based Hip Implantsmentioning

confidence: 99%

Comprehensive Review on Biomaterials and Their Inherent Behaviors for Hip Repair Applications

Sathishkumar,

Paulraj,

Chakraborti

et al. 2023

ACS Appl. Bio Mater.

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Developing biomaterials for hip prostheses is challenging and requires dedicated attention from researchers. Hip replacement is an inevitable and remarkable orthopedic therapy for enhancing the quality of patient life for those who have arthritis as well as trauma. Generally, five types of hip replacement procedures are successfully performed in the current medical market: total hip replacements, hip resurfacing, hemiarthroplasty, bipolar, and dual mobility systems. The average life span of artificial hip joints is about 15 years, and several studies have been conducted over the last 60 years to improve the performance and thereby increase the lifespan of artificial hip joints. Present-day prosthetic hip joints are linked to the wide availability of biomaterials. Metals, ceramics, and polymers are some of the most promising types of biomaterials; nevertheless, each biomaterial has advantages and disadvantages. Metals and ceramics fail in most applications owing to stress shielding and the emission of wear debris; ongoing research is being carried out to find a remedy to these unfavorable responses. Recent research found that polymers and composites based on polymers are significant alternative materials for artificial joints. With growing research and several biomaterials, recent reviews lag in effectively addressing hip implant materials' individual mechanical, tribological, and physiological behaviors. This Review comprehensively investigates the historical evolution of artificial hip replacement procedures and related biomaterials' mechanical, tribological, and biological characteristics. In addition, the most recent advances are also discussed to stimulate and guide future researchers as they seek more effective methods and synthesis of innovative biomaterials for hip arthroplasty application.

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“…Metal implants became available as the metal industry evolved and more manufacturing processes became available and refined [13][14][15][16][17][18]. Early implementations of metal implants suffered from a lack of quality control leading to low wear resistance and fracturing [19].…”

Section: Introductionmentioning

confidence: 99%

Computational design of corrosion-resistant and wear-resistant titanium alloys for orthopedic implants

Siony¹,

Vuong²,

Lundaajamts³

et al. 2022

Materials Today Communications

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Development and heat treatment of β-phase titanium alloy for orthopedic application

Cited by 12 publications

References 51 publications

The analysis of hot deformation behaviour of low-cost α+β Ti-6Al-0.4V-1.2Fe alloys

The analysis of hot deformation behaviour of low-cost α+β Ti-6Al-0.4V-1.2Fe alloys

Comprehensive Review on Biomaterials and Their Inherent Behaviors for Hip Repair Applications

Computational design of corrosion-resistant and wear-resistant titanium alloys for orthopedic implants

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