An insight investigation on mechanical and corrosion behavior of ultrasonic squeeze casting processed Mg based alloy composites for bio-implantation

Magnesium (Mg) alloys are gaining prominence in the bio-implantation process due to their low weight, high strength, greater compatibility and ease of biological degradability. However, poor strength and rapid degradation in the physiological environment inhibit their application as implant material. The present experimental investigation examines the effect of Zirconium oxide (ZrO 2 ) reinforcement on mechanical and corrosion behaviors of Mg - Tin (Sn) alloy composites, for assessing their feasibility in the targeted field. Mg-5%ZrO 2 , Mg-1%Sn, and Mg-1%Sn/5 % ZrO 2 were fabricated via ultrasonic aided squeeze casting (UASC) process. Characterization studies on the synthesized composites were carried out to evaluate their morphology using SEM with EDAX and XRD. Mechanical properties were evaluated using micro-hardness and compression tests. Furthermore, the corrosion behavior was determined using Tafel and electrochemical impedance spectroscopy (EIS). The results revealed that the Mg alloy bio-composite (Mg-1%Sn/5 % ZrO 2 ) exhibits better compression (291.2 MPa) and yield (215.3 MPa) strength, elastic modulus (55.7 GPa), hardness (941.4 MPa) and reduced corrosion rate (0.475 mm/yr) than the base Mg and non-reinforced Mg bio-composite (Mg-1% Sn). Overall, the newly synthesized ZrO 2 reinforced Mg bio-composite would potentially be used as a bio-implantation supportive material in bone fracture related treatments. • Favorable outcomes for Mg/Sn bio-composites with ZrO 2 reinforcement, especially Mg - 1% Sn - 5% ZrO 2 (MgTZ) composite. • Utilization of ultrasonic-assisted squeeze casting leads to homogeneous particle dispersion and grain refinement. • Enhanced compression strength and elastic modulus of MgTZ composite, suitable for orthopedic bio-implants. • Protective layer formation in MgTZ composite boosts corrosion resistance, making it suitable for biomedical applications.

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Publication Details

Journal
Results in Engineering
Published
2024-09-01
DOI
https://doi.org/10.1016/j.rineng.2024.102850
Citations
10
Primary Topic
Magnesium Alloys: Properties and Applications
Type
article
Field-Weighted Citation Impact
1.73
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article

An insight investigation on mechanical and corrosion behavior of ultrasonic squeeze casting processed Mg based alloy composites for bio-implantation

Mohammad Rezaul Karim, B Prabhu, Arunkumar Thirugnanasamabandam, Anand Gobiraman
10 citations
Results in Engineering
Magnesium Alloys: Properties and Applications
1.73
article

An insight investigation on mechanical and corrosion behavior of ultrasonic squeeze casting processed Mg based alloy composites for bio-implantation

Mohammad Rezaul Karim, B Prabhu, Arunkumar Thirugnanasamabandam, Anand Gobiraman
article en
10 citations

Abstract

Magnesium (Mg) alloys are gaining prominence in the bio-implantation process due to their low weight, high strength, greater compatibility and ease of biological degradability. However, poor strength and rapid degradation in the physiological environment inhibit their application as implant material. The present experimental investigation examines the effect of Zirconium oxide (ZrO 2 ) reinforcement on mechanical and corrosion behaviors of Mg - Tin (Sn) alloy composites, for assessing their feasibility in the targeted field. Mg-5%ZrO 2 , Mg-1%Sn, and Mg-1%Sn/5 % ZrO 2 were fabricated via ultrasonic aided squeeze casting (UASC) process. Characterization studies on the synthesized composites were carried out to evaluate their morphology using SEM with EDAX and XRD. Mechanical properties were evaluated using micro-hardness and compression tests. Furthermore, the corrosion behavior was determined using Tafel and electrochemical impedance spectroscopy (EIS). The results revealed that the Mg alloy bio-composite (Mg-1%Sn/5 % ZrO 2 ) exhibits better compression (291.2 MPa) and yield (215.3 MPa) strength, elastic modulus (55.7 GPa), hardness (941.4 MPa) and reduced corrosion rate (0.475 mm/yr) than the base Mg and non-reinforced Mg bio-composite (Mg-1% Sn). Overall, the newly synthesized ZrO 2 reinforced Mg bio-composite would potentially be used as a bio-implantation supportive material in bone fracture related treatments. • Favorable outcomes for Mg/Sn bio-composites with ZrO 2 reinforcement, especially Mg - 1% Sn - 5% ZrO 2 (MgTZ) composite. • Utilization of ultrasonic-assisted squeeze casting leads to homogeneous particle dispersion and grain refinement. • Enhanced compression strength and elastic modulus of MgTZ composite, suitable for orthopedic bio-implants. • Protective layer formation in MgTZ composite boosts corrosion resistance, making it suitable for biomedical applications.

Results in EngineeringVol. 23
Openalex Percentile: Top 17%
Magnesium Alloys: Properties and Applications
1.73
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