Mohammed Diany
Mechanical engineering Polymer Engineering, Computer Aided Engineering:, Numerical Engineering, General Engineering Polymer Engineering Computer Aided Engineering Numerical Engineering General Engineering Grid-connected photovoltaic power system Electric Power System Optimization Sliding mode control Robust control Adaptive control Terminal sliding mode Integral sliding mode Adaptive Dynamic Programming Control Adaptive Control of Nonlinear Systems Control engineering H-infinity methods in control theory Control and Dynamics of Mobile Robots Electric Power Systems and Control ai-based energy optimization Dynamics and Control of Mechanical Systems Control and Stability of Dynamical Systems Mechanical and Thermal Properties Analysis Mechanical Engineering Research and Applications Artificial Intelligence Computational Theory and Mathematics Control and Systems Engineering Electrical and Electronic Engineering Law

Bio

Mohammed Diany is a mechanical engineer and researcher affiliated with the Faculty of Sciences and Techniques, Sultan Moulay Slimane University in Beni Mellal, Morocco. He holds a Ph.D. in mechanical engineering and has contributed to the fields of polymer engineering, numerical simulation, and computer-aided engineering. His notable work includes the numerical simulation of radial and axial compressed elastomeric O-ring relaxation. With 34 publications and over 300 citations, his research has been recognized in the academic community. He also serves as a reviewer for the Global Journal of Research in Engineering (GJRE).

Educational Journey

Ph. D. in mechanical engineering • mechanical engineering

Experience

Faculté des Sciences et Techniques Beni Mellal

0 - 0

Research

Numerical simulation of radial and axial compressed elastomeric O-ring relaxation

Article July 3, 2012

The elastomeric O-ring gaskets are often used in pressurized hydraulic and pneumatic equipments to ensure their sealing. The quality of the O-ring is measured by achieving the desired tightness level. The satisfaction level of practical operation depends on the consistency of long-terms mechanical properties located during the useful life and on the conditions of assembly installation and the O-ring location. Indeed, the gasket is pressed on flat faces or housed in specially arranged grooves for which the dimensions influence greatly the assembly behavior. In this article, an axisymmetric finite element model is proposed to simulate the O-ring relaxation behaviour during the few first days of its installation in both the unrestrained and restrained radial and axial loading cases. The contact stress profiles and the peak contact stresses are determined versus the time relaxation in order to specify the working conditions thresholds.