Suresh's group Fighting Malaria: Understanding the Biomechanical Properties of Red Blood Cells
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MIT Dean of Engineering Subra |
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Nanovea Chosen by TUM of Germany to Further Research
Nanovea is proud to announce the installation of a Nano/Micro Mechanical Tester at Technische Universitat Munchen (Technical University of Munich, DE). The instrument was installed in the Department of Civil Engineering & Surveying at the CBM Center for Building Materials. The unique Nano and Micro modular capabilities of the Nanovea Mechanical Tester was chosen over several competitors. The instrument will be used to further industrial research in the mechanical behaviors of concrete and cementitious binder technology among others.
Crack Bridging. Lecture 2
These notes belong to a course on fracture mechanics
Lecture 1 introduced the crack bridging model. The model is also known as the cohesive-zone model, the Barenblatt model, or the Dugdale model. The model consists of two main ingredients:
Post-doctoral position in atomistic modelling
The School of Mechanical and Aerospace Engineering in Nanyang Technological University, Singapore, is looking for a highly motivated researcher for a three-year Post-doctoral Fellowship in the area of atomistic/molecular dynamics modelling.
The research project is computational based and will focus on the atomistic modelling of lubricant and diamond-like carbon. The work will include molecular dynamics simulations, code programming and publications of research papers. The successful candidate will also have to work closely with scientists from A*STAR.
Linear scaling solution of the all-electron Coulomb problem in solids
In this manuscript (available at http://arxiv.org/abs/1004.1765), we present a systematically improvable, linear scaling formulation for the solution of the all-electron Coulomb problem in crystalline solids. In an infinite crystal, the electrostatic (Coulomb) potential is a sum of nuclear and electronic contributions, and each of these terms diverges and the sum is only conditionally convergent due to the long-range 1/r nature of the Coulomb interaction.
How is the entropy of polarization in dielectric material
In the study of thermoelastic actuation of dielectric elastomer, we can write the Helmholtz free-energy as a function of stretch ratio, nominal electric displacement and temperature (T).
The entropy (S) is the negative partial differential coefficient of W with respect of temperature (T). And we can see the change of S is due to three components: deformation, heat conduction and polarization. In an isothermal state, the deformation part has been fully investigated by Arruda and Boyce in 1993, but the polarization-induced entropy (Sp) has not been clearly stated.
A PhD student position is available on nonlinear multiscale modeling of materials
A PhD student position is available on nonlinear multiscale modeling of materials for Fall 2010. Please contact xxu1 [at] stevens.edu ASAP
X. Frank Xu, PhD, Assistant Professor
Dept of Civil, Envir & Ocean
Engrg
Stevens Institute of Technology
Hoboken, NJ
07030
201-216-8711(O)
201-216-8739 (Fax)
http://personal.stevens.edu/~xxu1
Failure criteria for fabric composite or woven composite
Hi All,
Most exisiting failure critera delevolped for fiber composite laminates and they are rough estimations for fabric composite. I want to know if there is a suitable failure criterion for fabric composites.
Thanks
Azadeh
Workshop on Discrete Differential Geometry for Multiphase Flow Problems
When:
Friday
23rd - Saturday 24th, April 2010
Where:
BS 2003, Indiana University Purdue University Indianapolis
(IUPUI)
Invited
Speakers (in alphabetical order):
Steven Dong
(Purdue University, Mathematics)
Enabling Incompressible Flow Simulations with Large Time Step Sizes
Anil
Hirani (University of Illinois at Urbana-Champaign, Computer
Science)
Some PyDEC Applications (Python software package for