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PhD positions in solid mechanics/biomechanics at Dartmouth College in 2015

I'm looking for prospective PhD students to study solid mechanics/biomechanics in 2015 at Dartmouth College (Thayer School of Engineering). Visiting or postdoctoral positions are also available for highly qualified candidates from fall 2015. The subjects of research include, but are not limited to, mechanics of morphogenesis in plants/embryos, fast motion of plants (e.g., the Venus flytrap's rapid closure), mechanical self-assembly and instability of thin structures (e.g., DNA, plant tendrils, self-assembly of nanostructures, etc.), and bioinspired structures.

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Postdoctoral research associate position in mechanics of materials, morphogenesis and biosinspired structures

One postdoctoral research associate position is available (dates negotiable). The successful candidate will work on one or multiples of the following topics: mechanics of morphogenesis in plants and embryos, fast motion of plants (e.g., the Venus flytrap's rapid closure), mechanical self-assembly and instability of thin structures (e.g., DNA, plant tendrils, self-assembly of nanostructures, etc.), and bioinspired structures. The candidate should have received (or expect to receive very soon) a Ph.D.

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Nonlinear geometric effects in mechanical bistable morphing structures


Bistable structures, exemplified
by the Venus flytrap and slap bracelets, can switch between different
functional shapes upon actuation, and have important applications in
mechanical/electro-mechanical devices ranging from bio-inspired robots to
deployable aeroplane wings. Despite numerous efforts in modeling such large
deformation of shell structures, the roles of mechanical and nonlinear geometric
effects on bistability remains elusive. Closely related, emerging challenges
include modeling the spontaneous curving and buckling of thin objects such as

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Computational models for mechanics of morphogenesis

In the developing embryo, tissues differentiate, deform, and move in an
orchestrated manner to generate various biological shapes driven by the complex
interplay between genetic, epigenetic, and environmental factors. Mechanics
plays a key role in regulating and controlling morphogenesis, and quantitative
models help us understand how various mechanical forces combine to shape the
embryo. Models allow for the quantitative, unbiased testing of physical
mechanisms, and when used appropriately, can motivate new
experimentaldirections. This knowledge benefits biomedical researchers who aim
to prevent and treat congenital malformations, as well as engineers working to

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