Dear Colleagues,
I am writing this email in regards to a special issue being organized by me focused on "Mechanical Behavior of Interfaces in Materials" for the Journal of Materials Science along with Dr. Rajendran, Dr. Namburu, and Dr. Dubey.. . This special issue aims to address the links between the various characteristics of the interfaces (structural, chemical) and the response under various mechanical loading environments. A description of the scope is below:
Background/Scope:
Biomedical Institute for Global Health Research & Technology (BIGHEART) - National University of Singapore
Biomedical Institute for Global Health Research & Technology (BIGHEART) aims to transform research and education and shape the future of healthcare by the creative convergence of science, engineering, medicine and the arts for humanity. We conduct collaborative and interdisciplinary research to address the technical barriers preventing distributing health solutions.
Dear Community,
I make a code public for bone remodeling, using the Komarova model. It was developed by me alone. I provide the code as is, without warranty.
One Ph.D. opening will be available in the Applied Mechanics of Materials Lab of Mechanical Engineering Department at Temple University, Philadelphia, PA, USA. The Ph.D. position will start ideally in Fall 2017 or the coming Spring 2018.
PhD positions in the broad area of mechanics of advanced materials and metamaterials are available in the group of Prof. Stefano Gonella (http://personal.cege.umn.edu/~gonella/) at the University of Minnesota.
Current topics of interest include: 1) Nonlinear metamaterials, including soft architected lattices; 2) Topological and non-reciprocal metamaterials; 3) Tunable and programmable multifunctional materials and structures.
Virtual forming of metallic sheet materials: influence of complex strain paths in service life prediction
Physics and mechanics of beta TiMo alloys - Application to forming
The aim of this project is to investigate and model the thermo-mechanical behavior of beta-stabilized titanium alloys from room temperature up to 500°C, as a function of the chemical composition and up to rupture (cf. attached file).
