As an R&D engineer, your input is requested to design an enhanced device that will be permanently implanted to repair the load-bearing function of a joint. Details on the candidate metals are presented here: Material SS 316 type Pure Ti Density (p) Yield stress (g/cm³) (MPa) 8 4.5 Ti6A14V 4 (F136) 190 140 795 Maximum elongation (%) 40 15 10 Elastic modulus (GPa) 190 110 114 Lo Shess lev What force can each of the materials carry without permanent deformation? Which one offers better properties as a load-bearing implant? Explain. Describe the primary consequences of choosing the wrong material; consider in your answer the effect of density, yield stress, elongation, and Young's modulus on the implant's performance.

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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As an R&D engineer, your input is requested to design an enhanced device that
will be permanently implanted to repair the load-bearing function of a joint.
Details on the candidate metals are presented here:
Material
SS 316 type
Pure Ti
Density (p) Yield stress
(g/cm³)
(MPa)
8
4.5
Ti6A14V 4
(F136)
190
140
795
Maximum
elongation (%)
40
15
10
Elastic modulus
(GPa)
190
110
114
Lo Shess leve
O What force can each of the materials carry without permanent
deformation?
Which one offers better properties as a load-bearing implant? Explain.
Describe the primary consequences of choosing the wrong material;
consider in your answer the effect of density, yield stress, elongation,
and Young's modulus on the implant's performance.
Transcribed Image Text:As an R&D engineer, your input is requested to design an enhanced device that will be permanently implanted to repair the load-bearing function of a joint. Details on the candidate metals are presented here: Material SS 316 type Pure Ti Density (p) Yield stress (g/cm³) (MPa) 8 4.5 Ti6A14V 4 (F136) 190 140 795 Maximum elongation (%) 40 15 10 Elastic modulus (GPa) 190 110 114 Lo Shess leve O What force can each of the materials carry without permanent deformation? Which one offers better properties as a load-bearing implant? Explain. Describe the primary consequences of choosing the wrong material; consider in your answer the effect of density, yield stress, elongation, and Young's modulus on the implant's performance.
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