TY - JOUR
T1 - Static, Transient, and Fatigue Design and Analysis of a Hip Femoral Stem Using the Finite Element Method
AU - Anticona-Valderrama, Daniela Milagros
AU - Serna-Landivar, José L.
AU - Algoner, William C.
AU - Miranda, Manuel López
AU - Garcia-Alvarez, Maria Ysabel
AU - Landivar, Leslie Katerine Serna
N1 - Publisher Copyright:
© 2024 by the authors of this article.
PY - 2024/12/19
Y1 - 2024/12/19
N2 - The hip femoral stem is vital in ensuring patient support and mobility, and research into the femoral stem is critical for improving the durability and strength of orthopedic prostheses. Using the finite element method, this paper evaluates a femoral stem’s static, transient, and fatigue behaviors using three different materials: Ti-6Al-4V, CoCr alloy, and AISI 316L. ANSYS Mechanical software was used to perform the static analysis, evaluate deformations and stresses, and perform the transient analysis to simulate dynamic loading conditions. In addition, a fatigue analysis was conducted to determine the resistance to repetitive load cycles. The results showed that the stresses and strains in the transient analysis were higher than in the static analysis because the transient analysis considers dynamic and time-varying loads. In addition, the Ti-6Al-4V material exhibits higher fatigue resistance, a significantly longer service life, and lower stresses in the static and transient range. These findings reaffirm the importance of selecting materials that balance stiffness, structural strength, and fatigue to optimize the performance and durability of femoral implants.
AB - The hip femoral stem is vital in ensuring patient support and mobility, and research into the femoral stem is critical for improving the durability and strength of orthopedic prostheses. Using the finite element method, this paper evaluates a femoral stem’s static, transient, and fatigue behaviors using three different materials: Ti-6Al-4V, CoCr alloy, and AISI 316L. ANSYS Mechanical software was used to perform the static analysis, evaluate deformations and stresses, and perform the transient analysis to simulate dynamic loading conditions. In addition, a fatigue analysis was conducted to determine the resistance to repetitive load cycles. The results showed that the stresses and strains in the transient analysis were higher than in the static analysis because the transient analysis considers dynamic and time-varying loads. In addition, the Ti-6Al-4V material exhibits higher fatigue resistance, a significantly longer service life, and lower stresses in the static and transient range. These findings reaffirm the importance of selecting materials that balance stiffness, structural strength, and fatigue to optimize the performance and durability of femoral implants.
KW - finite element analysis (FEA)
KW - finite element method (FEM)
KW - hip implant
KW - prostheses
UR - https://www.scopus.com/pages/publications/85213424864
U2 - 10.3991/ijoe.v20i16.52865
DO - 10.3991/ijoe.v20i16.52865
M3 - Original Article
AN - SCOPUS:85213424864
SN - 2626-8493
VL - 20
SP - 89
EP - 102
JO - International journal of online and biomedical engineering
JF - International journal of online and biomedical engineering
IS - 16
ER -