CIC07: CHARGED DOMAIN WALLS IN FERROELECTRIC MATERIALS
Domain wall engineering is the technique consisting in exploiting the properties of domain walls in ferroic materials for applications, as opposed to using the properties of the bulk of the material. In ferroelectric materials, domain walls display a number of properties that are of great interest for practical applications, such as electrical conductivity (in an otherwise insulating material), negative capacitance o chirality. Using computational simulations we can study these systems and learn how to best harness their properties.
Details of the project:
Using a combination of programs capable of describing quantum electronic processes in condensed matter and phenomenological models, the project aims to characterize charged domain walls in ferroelectric material using computer simulations.
Description of the research group:
The Theory Group of Nanogune has ample experience in the description of condensed matter from first-principles simulations, in general, and in the study of ferroelectric materials, in particular. For more information, see our website at https://www.nanogune.eu/en/research/groups/theory
Perform a series of atomistic simulations of a ferroelectric material under various boundary and doping conditions. Extract information from the quamtum-mechanical simulations and develop a phenomenological model to predict the properties of charged domain walls in the system. This information will then be used for the design of large scale simulations of domain walls.
Understand the physics of charged domain walls in ferroelectric materials and be able to predict from the models the conditions that may produce domain walls with the desired properties.
The work is theoretical and computational, and will involve the use of supercomputers using parallel computing. The programs will be provided.
If you are a master student and you are interested in this project, please get in touch with the scientist in charge: Pablo Aguado Puente (email@example.com).
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