Author/Authors :
Joneidi Yekta, Hamed New Technologies Research Center - Amirkabir University of Technology, Tehran , Khorshidi, Siros New Technologies Research Center - Amirkabir University of Technology, Tehran , Montazeran, Amir Hussein New Technologies Research Center - Amirkabir University of Technology, Tehran , Samandari, aeed Saber New Technologies Research Center - Amirkabir University of Technology, Tehran , Khandan, Amirsalar New Technologies Research Center - Amirkabir University of Technology, Tehran , Shahali, Maryam Department of Quality Control - Research and Production Complex - Pasteur Institute of Iran, Tehran , Rezaei, Soheila Department of Molecular Genetic - National Institute of Genetic Engineering and Biotechnology, Tehran , Ogbemudia, David Mechanical Engineering Department - Eastern Mediterranean University, North Cyprus, Gazimağusa, TRNC, Mersin 10, Turkey
Abstract :
Objective (s): Artificial bone implants have been studied as a possible bone replacement for fractured
and destroyed facial tissue; the techniques employed to determine the success of the dental implants. The
stability, porosity and resistance of the bone implant which is subjected to varying forces and stresses within
the surrounding bone is a subject of interest among the dentists.
Materials and Methods: An experimental analysis was conducted on bio-nanocomposite scaffold using
space holder methods. The reaction of the bio-nanocomposites deformation under load was determined
using Abaqus software. Thereafter, an analytical solution was presented to express explicitly the deformation
responses of the artificial bone implant.
Results: It was observed that the vibrational behavior and mechanical performance of the sample containing
15 wt% additives has shown better mechanical characteristic compared to the pure specimen. On the other
hand, the additive weight fraction has a significant effect on the compression test and porosity value. Also,
the elastic modulus of the samples increases more than two times with the addition of additive (from 60 MPa
to 145 MPa). From the results, it can be concluded that the highest vibration variation is seen in the sample
with lower MNPs percentages
Keywords :
Abaqus , Nanocomposite , Porous bone implant , Scaffold , Stress analysis