Simulasi Pengaruh Waktu dan Gerak Terhadap Desain Implan Sendi Pinggul

Abstract

Simulasi desain implan sendi pinggul bertujuan untuk menganalisis total deformasi maksimum, tegangan prinsipal maksimum, dan tegangan geser maksimum dengan kombinasi variasi waktu, gerakan, dan pembebanan. Simulasi memungkinkan suatu objek diujicobakan secara visual sebelum diproduksi sebagai purwarupa. Fungsi dari simulasi adalah untuk meminimalisir terjadinya kegagalan dan untuk memangkas biaya produksi. Sebelum memulai simulasi suatu objek perlu dibuatkan desain. Desain dalam penelitian ini menggunakan software CAD yakni Inventor 2014, sedangkan analisis metode elemen hingga dalam desain implan memanfaatkan simulasi ANSYS 18.1. Analisis metode elemen hingga didasarkan pada aktivitas berjalan, melompat, dan menuruni tangga selama kurun waktu 0 detik hingga 4,5 detik. Hasil simulasi menunjukkan bahwa desain implan sendi pinggul menghasilkan 4079 nodal, 2157 Elemen, dan total deformasi maksimum sebesar 0,097 mm (berjalan), 0,2 mm (melompat), dan 0,11 mm (menuruni tangga). Tegangan prinsipal maksimum adalah 32 MPa (berjalan), 66,96 MPa (melompat), dan 73,93 MPa (menuruni tangga). Tegangan geser maksimum adalah 19,74 MPa (berjalan), 41,28 MPa (melompat), dan 45,58 MPa (menuruni tangga).

Kata kunci: simulasi; implan sendi pinggul; metode elemen hingga; Mg Alloy.

The simulation of the hip joint implant design aims to analyze maximum total deformation, maximum principal stress, and maximum shear stress with a combination of variations in time, motion and loading. Simulation allows an object to be tested visually before being produced as a prototype. Function of simulation is to minimize the occurrence of failures and to cut production costs. Before starting to simulate an object a design needs to be made. The design in this study used CAD software, namely Inventor 2014, while the finite element method analysis in implant design used ANSYS 18.1 simulation. Finite element method analysis is based on walking, jumping and descending stairs over a period of 0 seconds to 4.5 seconds. Simulation results show that hip joint implant design produces 4079 nodals, 2157 elements, and a maximum total deformation of 0.097 mm (walking), 0.2 mm (jumping), and 0.11 mm (descending stairs). Maximum principal stresses are 32 MPa (walking), 66.96 MPa (jumping), and 73.93 MPa (descending stairs). Maximum shear stresses are 19.74 MPa (walking), 41.28 MPa (jumping), and 45.58 MPa (descending stairs).

Keywords : Simulation; Hip Joint Implants; Finite Element Method; Mg Alloy

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