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Examination of Cycling Rate Sensitivity in Magnesium Alloys in Fatigue and Corrosion Fatigue
Corrosion fatigueCorrosion fatigue occurs when a metallic material undergoes mechanical cycling in the presence of a corrosive environment. Absorbable magnesiumMagnesium materials, intended to corrode in the body, may experience corrosion fatigue and must not fail prematurely because of it. Designing devices with appropriate data to predict how the material will behave is critical to success. Corrosion fatigueCorrosion fatigue testing is complicated by mismatches between cycling frequency acceleration and corrosion acceleration. The aim of this study was to examine the fatigueFatigue and corrosion fatigue of three magnesium alloyMagnesium alloys (Mg alloys)wiresWire (ZX10, LZ21, WE22) at a variety of strain levels and cycling frequencies. Baseline rotary beam (R = −1) fatigue testing was performed at three strain levels (0.5, 0.4, and 0.3%) and three frequencies (600, 3600, and 7200 rpm), in two environments (air, Hank’s solution). In general, cycles-to-failure increased with decreasing strain in all conditions, increased with cycling frequency at high but not low strains, and decreased in Hank’s solution compared to air. LZ21 displayed the highest corrosion fatigueCorrosion fatigue durability, followed by WE22 and ZX10. These data will provide a baseline to aid designers in properly testing absorbableAbsorbable wire metal devices.
Examination of Cycling Rate Sensitivity in Magnesium Alloys in Fatigue and Corrosion Fatigue
Corrosion fatigueCorrosion fatigue occurs when a metallic material undergoes mechanical cycling in the presence of a corrosive environment. Absorbable magnesiumMagnesium materials, intended to corrode in the body, may experience corrosion fatigue and must not fail prematurely because of it. Designing devices with appropriate data to predict how the material will behave is critical to success. Corrosion fatigueCorrosion fatigue testing is complicated by mismatches between cycling frequency acceleration and corrosion acceleration. The aim of this study was to examine the fatigueFatigue and corrosion fatigue of three magnesium alloyMagnesium alloys (Mg alloys)wiresWire (ZX10, LZ21, WE22) at a variety of strain levels and cycling frequencies. Baseline rotary beam (R = −1) fatigue testing was performed at three strain levels (0.5, 0.4, and 0.3%) and three frequencies (600, 3600, and 7200 rpm), in two environments (air, Hank’s solution). In general, cycles-to-failure increased with decreasing strain in all conditions, increased with cycling frequency at high but not low strains, and decreased in Hank’s solution compared to air. LZ21 displayed the highest corrosion fatigueCorrosion fatigue durability, followed by WE22 and ZX10. These data will provide a baseline to aid designers in properly testing absorbableAbsorbable wire metal devices.
Examination of Cycling Rate Sensitivity in Magnesium Alloys in Fatigue and Corrosion Fatigue
The Minerals, Metals & Materials Series
Leonard, Aeriel (editor) / Barela, Steven (editor) / Neelameggham, Neale R. (editor) / Miller, Victoria M. (editor) / Tolnai, Domonkos (editor) / Griebel, Adam J. (author) / Schuller, Olivia (author)
TMS Annual Meeting & Exhibition ; 2024 ; Orlando, FL, USA
2024-02-03
8 pages
Article/Chapter (Book)
Electronic Resource
English
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