Summary
The 2DMAGICS project is aiming at solving actual problems related to the microscopic description, theoretical prediction, and dynamical control of magnetism and magnetic interactions of advanced two-dimensional materials and layered three-dimensional heterostructures. The main objects of investigation constitute two-dimensional group V semiconductors, transition metal dichalcogenides, layered nodal-line semimetals, and artificial surface systems represented by regular atomic structures localized on substrates. These materials will be described in terms of model Hamiltonians and studied using the state-of-the-art theoretical approaches and new theories that will be specially developed within the framework of the 2DMAGICS. Such a combination is to provide a realistic multiscale description of physical processes in the systems under investigation. The results expected will allow an accurate description of magnetic properties of realistic materials that exhibit different types of electronic and competing collective phenomena that affect magnetism. A special attention is given to magnetic properties of two-dimensional semiconductors, which are not typical in this class of materials. One of the promising problem concerns spin excitation phenomena in materials composed of heavy elements with strong spin-orbit coupling. On the other hand, the 2DMAGICS addresses practically important aspects, such as finding the possibilities for improvement and tunability of applied characteristics. Thus, an accurate description and control of already known and novel spin-spin interactions will allow to access nontrivial magnetic phases of technological importance. Realization of the 2DMAGICS is closely connected to the development of effective numerical methods, which is necessary to capture the essential role of competing collective electronic fluctuations that affect magnetic properties of materials.
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| Web resources: | https://cordis.europa.eu/project/id/839551 |
| Start date: | 01-12-2020 |
| End date: | 30-11-2022 |
| Total budget - Public funding: | 168 477,04 Euro - 168 477,00 Euro |
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Original description
The 2DMAGICS project is aiming at solving actual problems related to the microscopic description, theoretical prediction, and dynamical control of magnetism and magnetic interactions of advanced two-dimensional materials and layered three-dimensional heterostructures. The main objects of investigation constitute two-dimensional group V semiconductors, transition metal dichalcogenides, layered nodal-line semimetals, and artificial surface systems represented by regular atomic structures localized on substrates. These materials will be described in terms of model Hamiltonians and studied using the state-of-the-art theoretical approaches and new theories that will be specially developed within the framework of the 2DMAGICS. Such a combination is to provide a realistic multiscale description of physical processes in the systems under investigation. The results expected will allow an accurate description of magnetic properties of realistic materials that exhibit different types of electronic and competing collective phenomena that affect magnetism. A special attention is given to magnetic properties of two-dimensional semiconductors, which are not typical in this class of materials. One of the promising problem concerns spin excitation phenomena in materials composed of heavy elements with strong spin-orbit coupling. On the other hand, the 2DMAGICS addresses practically important aspects, such as finding the possibilities for improvement and tunability of applied characteristics. Thus, an accurate description and control of already known and novel spin-spin interactions will allow to access nontrivial magnetic phases of technological importance. Realization of the 2DMAGICS is closely connected to the development of effective numerical methods, which is necessary to capture the essential role of competing collective electronic fluctuations that affect magnetic properties of materials.Status
CLOSEDCall topic
MSCA-IF-2018Update Date
28-04-2024
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