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Research Experience and Research Agenda

Theoretical Solid State Physics

    1. Thermodynamic study of alloys and the investigation of the sort-range order
    2. Galvanomagnetic behaviour of semiconductors and the galvanomagnetic tensors in anisotropic crystals.
    3. Calculation of the electronic energy bands with the method of Augmented PlaneWaves(APW) and introduction of parameters for efficient calculation.
    4. Calculation of the electronic properties of solids with the pseudopotential method such as: energy bands, density of states, dielectric function in the optical and ultraviolet, density of states, reflectivity and charge density.
    5. Theoretical study of semiconductors with the linear combination of atomic orbitals.
    6. Study of the effect of point and extended defects on the electronic states of semiconductors.
    7. Theoretical study of the electronic properties of semiconductor superlattices
    8. Study of the structural and optical properties of solids with the method of LinearMuffinTinOrbitalmethod(LMTO)
    9. Theoretical study of the electronic properties of non-periodic solids.
    10. Finding the ground energy structure, phase transitions due to pressure, theoretical determination of elastic constants and phonons with total energy ab-initio methods.
    11. Investigation of the structural properties of alloys, of the order-disorder phase transitions and the effect of the surfaces and interfaces with statistical thermodynamic methods.
    12. Point defects at metallic surfaces by ab-initio methods
    13. Approximate functionals for the Density Functional Theory to efficiently calculate the total energy.
    14. Study of electronic transport properties of nanostructures both perfect, with defects and with/without magnetic field.
    15. Investigation of the electronic and optical properties of quantum dots and wires both free standing and embedded in a matrix.
    16. Visualization of the electronic and structural properties of nanostructures.
    17. Study of nanoindentation of composite materials through finite elements method.
    18. Investigate atomic force microscope response through finite element modelling to access critical parameters for nanometrology
    19. Investigate atomic force microscope response through molecular dynamics modelling to access critical parameters for nanometrology
    20. Nanometrology through virtual atomic force microscope

Physics Education

  1. Design and study interventions and related educational material for Physics Education and Science Education. There are specific applications to K-12, to undergraduates, to adult education and to in-service training of science teachers.
  2. Design and study interventions and related educational material for Materials Education.  There are specific applications to K-12, to adult education and to in-service training of science teachers.
  3. Design and study interventions and related educational material for Metrology Education.
  4. There are specific applications to K-12, to adult education and to in-service training of science teachers.
  5. The methods utilized for the interventions and the educational material include:
    1. Demonstration experiments suitable for the ordinary classroom
    2. Experiments based on everyday materials that allow quantitative analysis of phenomena
    3. Internet based remote experiments
    4. Realtimesimulationsfor the visualization of physical processes.
    5. Development of educational and/or research software for experimentation, to challenge notions and build a solid understanding of basic notions related to physics and science 
    6. Interactive web pages for analyzing physics phenomena related to everyday life
    7. Non-typical education using demonstration experiments, games, etc for conveying the beauty, the magic and the connection of physics to the everyday life.

 

Current Research Interests 

Physics

My research interests in the field of Theoretical Solid State Physics are: the study of the properties and phenomena of solids with the help of quantum mechanics and other approximate approaches. The properties include the electronic structure, optical, electrical, basic state, metastable states, equilibrium positions of atoms, geometry of structures and their change under external influences such as temperature, mechanical stresses and strains for metals, insulators and semiconductors. The structures can be crystalline, surfaces, defects, extended defects, and nanostructures as elements, compounds, and alloys.  Current research interests also include composite systems and systems for nanometrology.   

Didactics

My research interests in the field of Didactics are: the design and study of interventions and appropriate educational materials for the teaching of Physics, Materials and Metrology at all levels of formal and informal education, adult education and teacher training. Methodologies can be: synchronous interactive teaching, distance learning, experiments and remote experiments, simulations, educational software, interactive web sites, and informal education.