Hello,
We are looking for a doctoral student to work on wave-ice interaction. The emphasis in this research is on experiments in the 40m x 40m Aalto Ice and Wave Tank with a novel wave-maker, and our interest extends to ship-wave-ice interaction. The position is fully funded for four years and may include also field work.
EML Webinar (Young Researchers Forum) on 2 July 2024 will be given by Mingchao Liu at the University of Birmingham
Title: Morphing and moving matter: mimicking nature
Discussion leader: Dominic Vella, University of Oxford
Time: 10:00 am Boston, 3:00 pm London, 4:00 pm Paris, 10:00 pm Beijing on Thursday, 2 July 2024
A dream came true, and the fifth submission of this networking project to COST Association was approved for funding.
It will start from November 2024 for the total duration of 4 years. The broad cooperation will focus on developing tools and data sets, which can streamline research and validation of fatigue estimation criteria.
Please join us for next seminar presented by Yakov Zelickman. Dr. Yakov Zelickman from Johns Hopkins University will present their latest research on the design and optimization of sustainable structures. Please see the attached file for the abstract and the speaker's biography.
You can access the Zoom meeting through the link below. We eagerly anticipate your participation.
Join Zoom Meeting
Dear colleagues, our new article (open access) is just published in Acta Materialia. In this research, we provide new insights into the mechanism of ferroelastic deformation by studying the evolution of domains in different microstructure patterns and under different loading directions and strain rates.
A. Bhattacharya and M. Asle Zaeem. A phase-field model for study of ferroelastic deformation behavior in yttria stabilized zirconia. Acta Materialia (2024) 120039.
Morphing soft matter, which is capable of changing its shape and function in response to stimuli, has wide-ranging applications in robotics, medicine and biology. Recently, computational models have accelerated its development. Here, we highlight advances and challenges in developing computational techniques, and explore the potential applications enabled by such models.
Yifan Yang, Fan Xu*
Nature Computational Science, 2024, https://doi.org/10.1038/s43588-024-00647-y
For a given class of materials, universal deformations are those deformations that can be maintained in the absence of body forces and by applying solely boundary tractions. For inhomogeneous bodies, in addition to the universality constraints that determine the universal deformations, there are extra constraints on the form of the material inhomogeneities—universal inhomogeneity constraints. Those inhomogeneities compatible with the universal inhomogeneity constraints are called universal inhomogeneities.
This study presents a comprehensive exploration of Peridynamic (PD) theory, with a specific focus on its theoretical foundations and practical implementations, including various PD formulations and PD operators. The objective is to highlight the unique attributes of each PD formulation and assess their suitability in the framework of material failure simulations by providing an extensive literature review.
