gayoub's blog

The work involves working independently and collaboratively on "Investigating the fatigue life of different grades of polyethylene". The Phd student will be conducting heavy experimental work to fully characterize the fatigue property of Polyethylene. The modeling part is the second part of this work; which involves developing criterion and cumulative damage laws to predict the fatigue life of polyethylene under multiaxial loadings.

One year postdoctoral position at Texas A&M University in Qatar is effective immediately; the work will be in the field of solid mechanics experimental investigation and modeling of Mg alloys.

One year postdoctoral position in solid mechanics effective immediately at Texas A&M University in Qatar at light material lab

This position is not located in the United States. Must be willing to relocate to Doha, Qatar.

One year postdoctoral position at Texas
A&M University in Qatar is effective immediately; the work will be in the
field of solid mechanics experimental investigation and modeling of Mg alloys.

This position
is not located in the United States. Must be willing to relocate to Doha, Qatar.

The work involves working independently and collaboratively on: Identifying processing parameters that will optimize the properties of the bi-metallic joint, developing a material constitutive model for impact loading conditions, developing an experimentally validated numerical model the can be used to predict the joint performance under impact loading conditions, and developing design and processing guidelines for the bimetallic joints.

The two postdoctoral positions are entitled as follows

1. 1. Post Doctorate/Research Associate, Mechanical Engineering Program Micro- Bio-Fluid Mechanics
2. Post Doctorate/Research Associate, Mechanical Engineering Program Atmosphere-ocean Fluid Mechanics and Turbulent Boundary Layer

The description of these two positions are attached with this post in a PDF file.

The work involves working
independently and collaboratively on: Identifying processing parameters that
will optimize the properties of the bi-metallic joint, developing a material
constitutive model for impact loading conditions, developing an experimentally
validated numerical model the can be used to predict the joint performance
under impact loading conditions, and developing design and processing
guidelines for the bimetallic joints.