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Postdoctoral Fellow in Cardiac Biomechanics and FEA at the University of California San Francisco Medical Center

Submitted by elainetseng on

The Cardiac Biomechanics Laboratory at the University of California San Francisco Medical Center (UCSF) Division of Cardiothoracic Surgery and San Francisco VA Medical Center is seeking a hard working, motivated post-doctoral fellow to participate in biomedical engineering research involving the ascending thoracic aortic aneurysms (aTAA).  The post-doctoral fellow should be motivated to be on a career track to become an academic professor.  Our lab is NIH funded to investigate the biomechanics of aortic aneurysms.  The goals are to determine aneurysm aortic wall stress in rel

Minisymposium -X-DMS Conference Ferrara 9-11 Sept 2015: Phase field and enhanced finite element formulations for fracture mechanics

Submitted by J.Reinoso on

Dear colleagues,

as part of the ECCOMAS Thematic Conference X-DMS 2015 on EXTENDED DISCRETIZATION METHODS to be held in Ferrara, Italy, 9-11 September 2015 (http://x-dms2015.sciencesconf.org/), we are jointly co-organizing the mini-symposium entitled “Phase field and enhanced finite element formulations for fracture mechanics”

Postdoctoral position in mechanobiology, Buffalo, New York

Submitted by ruogang zhao on

One postdoctoral position will be available in Fall, 2015 in the Department of Biomedical Engineering at the State University of New York at Buffalo (SUNY). The research area will focus on using bio-MEMS techniques to create novel cell culture platforms for cell mechanics and mechanobiological studies. Projects may involve studies of the fibrosis diseases, cancer invasion and stem cell differentiation. Some research topics can be found on our website at http://www.acsu.buffalo.edu/~rgzhao/index.html

Teaching Faculty Position

Submitted by George G Adams on

 The Mechanical and Industrial Engineering (MIE) Department at Northeastern University is seeking outstanding individuals to fill two non-tenure-track teaching faculty positions (i.e. Academic Specialists).  One position is in the area of mechanics and/or mechatronics whereas the other is in industrial engineering.

Asymmetric flexural behavior from bamboo’s functionally graded hierarchical structure: Underlying mechanisms

Submitted by Yang Lu on

As one of the most renewable resources on Earth, bamboo has recently attracted increasing interest for its promising applications in sustainable structural purposes. Its superior mechanical properties arising from the unique functionally-graded (FG) hierarchical structure also make bamboo an excellent candidate for bio-mimicking purposes in advanced material design. However, despite its well-documented, impressive mechanical characteristics, the intriguing asymmetry in flexural behavior of bamboo, alongside its underlying mechanisms, has not yet been fully understood.

Instability-driven vesicle growth in biological cells

Submitted by ashutosh.agrawal on

Journal: PNAS, published ahead of print, March 9 2015, doi:10.1073/pnas.1418491112

Title: Endocytic proteins drive vesicle growth via instability in high membrane tension environment

Authors: Nikhil Walani, Jennifer Torres, and Ashutosh Agrawal 

PhD Robust Optimization Viscoelastic Sandwiches

Submitted by Hamdaoui on
Visco-elastic structures are widely employed for vibration damping. Nowadays, optimal design of these structures has become commonplace. However, operating conditions introduce variability in their performances. Taking into account this variability in the optimization loop is necessary to obtain optimal robust solutions. Recently, within an exploratory project, supported by CNRS, the modal stability method (MSP) has been applied with success to quantify variability of damping and natural frequency of frequency dependent viscoelastic sandwich structures.

Ionic Cable

Submitted by _canhuiyang on

This paper demonstrates a new type of interconnects to fulfill the primary function of axons: transmitting electrical signals over long distances and at high speeds. The interconnect, which we call "ionic cable", uses ions to transmit signals, and is built entirely with soft, elastic materials-elastomers and gels. The ionic cable is highly transparent, and remains functioning after being stretched nearly eight times its original length. We describe the design, theory and experiment of the ionic cable.