The areas of research cover theory of field and elementary particles, atomic
nucleus, and mathematical modeling in physics, and in particular:
Kinematics of vector fields over (Ln,g) spaces (Courtesy Dr. S. Manov)
Group-theoretical methods utilizing such symmetric objects as infinite-dimensional
algebras, quantum and Lie groups, supersymmetric generalizations; conformal
invariant, low-dimensional and axiomatic quantum field theories; string
and integrable quantum models; classical integrable systems, soliton physics;
relations between quantum field theory and statistical physics; phenomenological
models of strong and weak interactions and of atomic and molecular systems;
differential-geometric structures and applications in gauge field theory
and gravitation physics; quantum mechanics, optics and interface phenomena
Structure of the collective and single-particle states in atomic nuclei
and other multifermion systems; short distance nucleon correlations and
their influence on the properties of atomic nuclei and nuclear processes;
group-theoretical approach for the description of multifermion systems;
influence of the subnuclear structure on the properties of atomic nuclei
and processes
Solving non well determined and approximating problems by developing optimal
regulating algorithms; modeling and investigating the stability of point
defects in clusters of ion crystals
Development of approaches based on the density functional theory construction
of spin-dependent density functional description of open shell systems,
application of these approaches to the different manyelectron objects such
as atoms, molecules and crystals.