In "Littlewood's Miscelleny" the celebrated mathematician John E. Littlewood noted that a hoop with an attached mass rolling on a ground plane may exhibit self-induced jumping. Subsequent works showed that his analysis was flawed and revealed paradoxical behavior that can be resolved by incorporating the inertia of the hoop. In our newly published paper in the Transactions A of the Royal Society tinyurl.com/littlewood-hoop  a comprehensive analysis of the dynamics of the hoop is presented.

Our group at Southern University of Science and Technology (SUSTech) in Shenzhen China is looking for Research Assistant Professors and Postdocs with backgrounds of material science, mechanics, mechanical engineering or related fields.

Our rearch mainly fouces on  4D printing, functional 3D printing, mechanics of soft materials, soft robotics, flexible electronics.

We provide internatinally competitive salary.

Details can be found through the university website:

SYMPOSIUM ON SOLID MECHANICS

Symposium Co-Chairs: Dr. Hamid Akbarzadeh and Dr. Dan Romanyk

Call for Papers – Submission Deadline:  January 15, 2020

THE SOLID MECHANICS SYMPOSIUM OF CANADIAN SOCIETY OF MECHANICAL ENGINEERING

Ph.D. research positions are available immediately in the Advanced Materials Research Lab at the University of Miami to perform NSF-funded research in the area of bio-inspired self-healing of cementitious materials. Highly motivated applicants are encouraged to send a CV to Dr. Ali Ghahremaninezhad via email at a.ghahremani [at] miami.edu (a[dot]ghahremani[at]miami[dot]edu).

This project will focus on developing innovative and advanced simulation tools (non-isothermal multi-scale multi-phase flow solver) to manufacture graphene-enhanced polymer composites, which can be used in in EVs with applications in battery cooling systems, battery module housing, and structure of the car body, with improved curing and cooling cycles, reduced time and cost, and tailored thermal-mechanical properties of parts.

Carbon fibre reinforced polymers combines desired features from different worlds. The fibres are stiff and hard, while the polymers are the opposite, weak, soft and with irrelevant fracture toughness. Irrelevant considering the small in-plane deformation that the fibres can handle before they break. It is not totally surprising that one can make composites that display the best properties from each material. Perhaps less obvious or even surprising is that materials and composition can be designed to make the composite properties go beyond what the constituent materials are even near.

A PhD position is available in the Modelling and simulation group in the Department of Mechanical Engineering at the University of British Columbia (UBC), Vancouver, Canada. The position is related to the computational design of lightweight alloys based on high-entropy alloys and metallic materials with nano-architected structure (see sample here). The ideal candidate should have a master degree or bachelors in the area of mechanical engineering.

In the work shown here:

Multiscale modeling of effective elastic properties of fluid-filled porous materials

The elastic deformation and its dependence on fluid displacement is studied at two distinct scales, to address the multi-scale nature of porous structures in nature.

There is an immediate opening of a postdoctoral researcher in the Mechanics of Soft Materials Lab (https://www.msm.seas.ucla.edu/) in the Department of Mechanical and Aerospace Engineering at the University of California, Los Angeles. The research will be on experimental mechanics of soft materials, and fabrication of soft machines. The successful candidate should have a PhD degree with expertise in experimental polymer chemistry and polymer materials.