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Finalists for the 2013 Melosh Competition

Submitted by John E. Dolbow on

Six finalists have been announced for the Twenty-Fourth Annual Robert J. Melosh Competition for the Best Student Paper in Finite Element Analysis. The finalists and their current institutions are:

Michael Borden, University of Texas at Austin

Pritam Chakraborty, Idaho National Laboratory 

Allen LaBryer, University of Oklahoma 

Ernesto Lima, University of Texas at Austin 

Ju Liu, University of Texas at Austin

Attenuated short wavelength buckling and force propagation in a biopolymer-reinforced rod

Submitted by Wanliang Shan on

W.L. Shan, Z. Chen, C.P. Broedersz, A.A. Gumaste, W.O. Soboyejo, C.P. Brangwynne, Soft Matter, 9:194-199, 2013. 

 

In this paper, we investigate short wavelength buckling of a thin elastic rod embedded in an elastic gelatin biopolymer network. Using a combination of micro-mechanical testing, microscopic imaging, as well as theory, we show that the buckling penetration depth can be tuned by varying the mechanical properties of the rod and the rod–gel interface.

Dean, School of Engineering and Science at Curtin University Sarawak Campus, Malaysia

Submitted by Aaron Goh on

Curtin University ( Australia), in partnership with the Sarawak
Government, has established a campus at Miri, a city of over 300,000
people in northeast Sarawak. The Curtin Sarawak campus currently has
3400 students. The University is going through an expansion phase and
current and planned future developments will increase capacity to 5,000
students.



Curtin Sarawak invites applications from suitably qualified candidates
to provide academic leadership in developing and managing the School of

PhD position available at Ecole Polytechnique

Submitted by Laurence Bodelot on

One Ph.D. position is now available starting October 2013 on
magnetorheological elastomers in the Solid Mechanics Laboratory of
Ecole Polytechnique, France. The potential student will work on the
development of new experimental procedures and high fidelity numerical
models for the understanding and constitutive description of
microstructured magnetorheological solids. Students with strong
interest in new coupled problems and strong background in engineering,
physics or/and mechanics are encouraged to apply.