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2019
Ameddah H, Bettine F, Mazouz H. Electromechanical Analysis (MEMS) of a Capacitive Pressure Sensor of a Neuromate Robot Probe. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11,. 2019.
Ameddah H, Bettine F, Mazouz H. Electromechanical Analysis (MEMS) of a Capacitive Pressure Sensor of a Neuromate Robot Probe. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11,. 2019.
Ameddah H, Bettine F, Mazouz H. Electromechanical Analysis (MEMS) of a Capacitive Pressure Sensor of a Neuromate Robot Probe. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11,. 2019.
Ameddah H, Lounansa S, AMADJI M, Mazouz H. Etude Numérique du Comportement des Endoprothèses Cardiovasculaires (Cas de Stent Biodégradable). The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11. 2019.
Ameddah H, Lounansa S, AMADJI M, Mazouz H. Etude Numérique du Comportement des Endoprothèses Cardiovasculaires (Cas de Stent Biodégradable). The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11. 2019.
Ameddah H, Lounansa S, AMADJI M, Mazouz H. Etude Numérique du Comportement des Endoprothèses Cardiovasculaires (Cas de Stent Biodégradable). The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11. 2019.
Ameddah H, Lounansa S, AMADJI M, Mazouz H. Etude Numérique du Comportement des Endoprothèses Cardiovasculaires (Cas de Stent Biodégradable). The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11. 2019.
Rebiai C. Finite element analysis of 2-D structures by new strain based triangular element. Journal of Mechanics [Internet]. 2019;35 (3). Publisher's VersionAbstract
In this investigation, a new simple triangular strain based membrane element with drilling rotation for 2-D structures analysis is proposed. This new numerical model can be used for linear and dynamic analysis. The triangular element is named SBTE and it has three nodes with three degrees of freedom at each node. The displacements field of this element is based on the assumed functions for the various strains satisfying the compatibility equations. This developed element passed both patch and benchmark tests in the case of bending and shear problems. For the dynamic analysis, lumped mass with implicit/explicit time integration are employed. The obtained numerical results using the developed element converge toward the analytical and numerical solutions in both analyses.
Ameddah H, Lounansa S, Mazouz H. Finite element analysis of fatigue behavior of the biodegradable stent. The 7th International Conference on Advances in Mechanical Engineering and Mechanics ICAMEM 2019 Hammamet - 16-18,. 2019.
Ameddah H, Lounansa S, Mazouz H. Finite element analysis of fatigue behavior of the biodegradable stent. The 7th International Conference on Advances in Mechanical Engineering and Mechanics ICAMEM 2019 Hammamet - 16-18,. 2019.
Ameddah H, Lounansa S, Mazouz H. Finite element analysis of fatigue behavior of the biodegradable stent. The 7th International Conference on Advances in Mechanical Engineering and Mechanics ICAMEM 2019 Hammamet - 16-18,. 2019.
Mezach F, Ameddah H, Mazouz H. Minimisation des contraintes dans les prothèses totales de genou. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019) , April 10-11. 2019.
Mezach F, Ameddah H, Mazouz H. Minimisation des contraintes dans les prothèses totales de genou. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019) , April 10-11. 2019.
Mezach F, Ameddah H, Mazouz H. Minimisation des contraintes dans les prothèses totales de genou. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019) , April 10-11. 2019.
AMADJI M, Ameddah H, Mazouz H. Numerical Study of the Behavior of Biomimetic Prosthesis “Case of the M6-C Prosthesis with Viscoelastic Core”. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11,. 2019.
AMADJI M, Ameddah H, Mazouz H. Numerical Study of the Behavior of Biomimetic Prosthesis “Case of the M6-C Prosthesis with Viscoelastic Core”. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11,. 2019.
AMADJI M, Ameddah H, Mazouz H. Numerical Study of the Behavior of Biomimetic Prosthesis “Case of the M6-C Prosthesis with Viscoelastic Core”. The First International Conference on Innovation in Biomechanics and Biomaterials (ICIBAB 2019), April 10-11,. 2019.
AMADJI M, Ameddah H, Mazouz H. NUMERICAL STUDY OF THE BIOMIMETIC M6-C PROSTHESIS WITH VISCOELASTIC CORE. U.P.B. Sci. Bull., Series D [Internet]. 2019;81 (4). Publisher's VersionAbstract
In this work we present a new biomimetic disc prosthesis imitating the fibroreinforced osmotic, and viscoelastic properties of the biological intervertebral disc (BID). For this, we proposed to study the second-generation biomimetic prosthesis "the M6-C prosthesis" which contains two metal plates, a core and a fiber fabric. First, a 3D model was established, the finite element analysis (FEA) under the ANSYS©2015 was conducted. Secondly, a biomimetic material, the silicone rubber, was compared with the polyethylene to find the material that mimics the behavior of a biological disk. Finally, the analysis of the results found the polymer has the same mechanical properties as the nucleus pulposus, in particular the viscoelastic behaviour compared with that of polyethylene
AMADJI M, Ameddah H, Mazouz H. NUMERICAL STUDY OF THE BIOMIMETIC M6-C PROSTHESIS WITH VISCOELASTIC CORE. U.P.B. Sci. Bull., Series D [Internet]. 2019;81 (4). Publisher's VersionAbstract
In this work we present a new biomimetic disc prosthesis imitating the fibroreinforced osmotic, and viscoelastic properties of the biological intervertebral disc (BID). For this, we proposed to study the second-generation biomimetic prosthesis "the M6-C prosthesis" which contains two metal plates, a core and a fiber fabric. First, a 3D model was established, the finite element analysis (FEA) under the ANSYS©2015 was conducted. Secondly, a biomimetic material, the silicone rubber, was compared with the polyethylene to find the material that mimics the behavior of a biological disk. Finally, the analysis of the results found the polymer has the same mechanical properties as the nucleus pulposus, in particular the viscoelastic behaviour compared with that of polyethylene
AMADJI M, Ameddah H, Mazouz H. NUMERICAL STUDY OF THE BIOMIMETIC M6-C PROSTHESIS WITH VISCOELASTIC CORE. U.P.B. Sci. Bull., Series D [Internet]. 2019;81 (4). Publisher's VersionAbstract
In this work we present a new biomimetic disc prosthesis imitating the fibroreinforced osmotic, and viscoelastic properties of the biological intervertebral disc (BID). For this, we proposed to study the second-generation biomimetic prosthesis "the M6-C prosthesis" which contains two metal plates, a core and a fiber fabric. First, a 3D model was established, the finite element analysis (FEA) under the ANSYS©2015 was conducted. Secondly, a biomimetic material, the silicone rubber, was compared with the polyethylene to find the material that mimics the behavior of a biological disk. Finally, the analysis of the results found the polymer has the same mechanical properties as the nucleus pulposus, in particular the viscoelastic behaviour compared with that of polyethylene

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