Principal Investigator of “Tunable indefinite-media meta-materials based on symmetry-breaking in plasmonic crystals” project. Co-Investigator of “Non-Hermitian Optics” project.

Plasma & Pulsed Power Laboratory (Professor Yakov Krasik) Numerical simulation of converging shock waves generated by underwater electrical wire explosion: numerical investigation (2-D Lagrangian multi-phase code on unstructured grid with rezoning) of converging shock waves dynamics generated by underwater explosion of cylindrical wire array. Nonlinear optics group (Professor Oren Cohen) Lattice Soleakons: first demonstration (by numerical simulation) of Discrete and Bragg soleakons – robust quasi self-trapped leaky waves in waveguide arrays. Narrow-bandwidth high-order harmonics driven by long-duration hot-spots: simulation and statistical analysis of novel device for narrow-bandwidth extreme-ultraviolet emission driven by high-harmonic generation on quasi-continuous nano-scale hot-spots.

Inventory Manager Project (Prediction of the available ad capacity at the web sites) Algorithm for compressing of web traffic data, based on principal component analysis; algorithm for the “smart” user sampling based on "k-means" clustering.

CARS-NG (Contract management Business Applications for Pharmaceutical Companies): GUI development (JAVA, JAVA Server Pages, JAVA Script)

Laser Plasma Interactions group (Dr Stefan Huller) Stimulated Brullouin Scattering in Multiple Species Plasmas: numerical simulations (“Particle in Cell” method) of Stimulated Brullouin Scattering in Multiple Species Plasmas.

Laser Plasma Interactions group (Professor Colin McKinstrie). Stimulated Brullouin Scattering in Multiple Species Plasmas: numerical simulations (Hydrodynamic method) and theoretical analysis of Stimulated Brullouin Scattering in Multiple Species Plasmas. Moment equations for optical pulses in dispersive and dissipative systems: derivation and numerical verification of moment method for propagation of an optical pulse in a dispersive and dissipative (filtered) system.

Department of Thermodynamics Heat and Mass transfer of Two-Phase Flow of Coolant in Reactor Fuel Assemblies: numerical simulation of heat and mass transfer of two-phase flows of coolant in reactor fuel assemblies.