computational mechanics

We are looking for a highly motivated PhD candidate for a project related to the development of cracking computational models in high entropy alloys.

Context

In the frame of a collaborative project between three universities (Ulg, UCL and ULB), the main objective of the offered PhD position will be to develop a numerical modeling framework for cracking in high entropy alloys, known for their high toughness properties.

PhD opportunity

2017/18 PhD program at IMT School for Advanced Studies Lucca

Deadline for applications – July 18th 2017, 12 pm (midday) Italian time

Applications are invited for an M.S./Ph.D. position in Computational Mechanics and Materials at the Department of Mechanical Engineering at University of Massachusetts Dartmouth. The ideal candidate should have a B.S. in engineering, math or physics, with prior experience in continuum mechanics, computational modeling, and/or finite element analysis. The position will start in Fall 2017.

Dear colleagues, 

A postdoc position is immediately available in my research group. Experience on derivation, implementation, validation and verification of crystal plasticity model at finite strain is required. Knowledge on meshless method and/or phase field modeling is a plus but not required. 

For further information, please visit our research group webpage listed below. 

http://poromechanics.weebly.com/

Applications are invited for two M.S. positions in Computational Mechanics and Materials at the Department of Mechanical Engineering at University of Massachusetts Dartmouth. The ideal candidate should have a B.S. in engineering, math or physics. The positions will start in Fall 2017.

I have a PhD opening in my group to start in 2017 on the multiscale modeling of fluid driven fracture propagation.

Interested individuals should contact me, and submit in parallel an application to EPFL doctoral school in mechanics

(see http://phd.epfl.ch/edme for more details about the mechanics PhD program at EPFL and the application process).

A brief description of the topic can be found in attached file.

Fibre-reinforced plates and shells are finding an increasing interest in engineering applications; in most cases dynamic phenomena need to be taken into account. Consequently, effective and robust computational tools are sought in order to provide reliable results for the analysis of such structural models. In this paper the mixed assumed-strain laminated plate element, previously used for static analyses, has been extended to the dynamic realm. This model is derived within the framework of the so-called First-order Shear Deformation Theory (FSDT).

This is the first call-for-contributions for the International Workshop-Conference Research Challenges in Mechanics: Applications of Automated Computational Modeling to be held between 01-03 March (2017) in Hannover (Germany).

For more information visit www.rcm2017.uni-hannover.de