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Dr. Viorel DINU

Scientific Researcher III

PH. D. IN PHYSICS

Bucharest University

Magurele, Romania

2010

MARIE CURIE ACTIONS EARLY STAGE RESEARCHER

Institute of Molecular Physics Polish Academy of Sciences

Poznan, Poland

2006

M. SC. IN PHYSICS

Bucharest University

Magurele, Romania

2002

B. S. IN PHYSICS

Bucharest University

Magurele, Romania

2000

●     2001 - CURRENT

            PHYSICS RESEARCHER

NATIONAL INSTITUTE OF MATERIALS PHYSICS (NIMP), Magurele, Romania

My research focuses on the theoretical study of interacting many particle systems in and out of equilibrium and modeling of the conduction for semiconducting metal oxides (SMOXs) - based gas sensors.

DIGITAL SKILLS

●     Latex Software

●     Microsoft Word

●     Microsoft Power Point

●     Origin Pro

●     Wolfram Mathematica

●     Spyder (The Scientific Python Development Environment) - basic user

 
 

 

 

 

LANGUAGE SKILLS

 

●     English - Independent user

 

REFERENCES

●     https://orcid.org/0000-0003-0106-6274

1

Disorder effects on the properties of two-dimensional finite systems in perpendicular magnetic field: the tight binding approach

Aldea, A; Nita, M; Dinu, V; Tolea, M

JUL 2004, PHYSICA STATUS SOLIDI B-BASIC SOLID STATE PHYSICS, 241, 2096

DOI: 10.1002/pssb.200404781

Show abstract

We review some aspects concerning the disorder effects on the spectral properties of 2D electronic systems with relevance for the transport and orbital magnetism in perpendicular magnetic field. The lattice model and random Anderson disorder are used. The discussion is carried out separately for periodic and hard wall boundary conditions. The degree of localization is evidenced by the calculation of the inverse participation number of the eigenstates of the Hamiltonian and a striking asymmetry of the localization effect of states in the Landau band is reported. (C) 2004 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim.

2

Spin magnetization of a strongly correlated electron gas confined in a two-dimensional finite lattice

Nita, M; Dinu, V; Aldea, A; Tanatar, B

FEB 2004, PHYSICAL REVIEW B, 69

DOI: 10.1103/PhysRevB.69.073106

Show abstract

The influence of disorder and interaction effects on the ground state polarization of the two-dimensional correlated electron gas is studied by numerical investigations of the unrestricted Hartree-Fock approach. With the model of Anderson disorder a continuous increase of the spin magnetization until the fully polarized regime is obtained. The ferromagnetic ground state is found to be favorable when the electron number is lowered and the interaction and disorder parameters are suitably chosen.