Research areas

• Ph.D. in Energy and Industrial Electronics
•  Design, analysis, control, optimization, and implementation of high-power and high-frequency power 
  electronics converters for photovoltaic generation systems (Standalone, and on grid systems), on-board 
  charger (OBC) converters, and plasma generation. This includes magnetic device design and integration, as 
  well as the design and implementation of linear and non-linear phase-shift and duty-cycle control schemes. 
  Work also involves dynamic modeling and simulation of high-order converters, and building and 
  programming of hardware prototypes]
  My research includes: Volume reduction of Isolated Multilevel Inverters by proposing electrolytic 
  capacitorless topologies, Frequency independent power decoupling circuits for MMC based variable-speed 
  motor drives for enhanced system reliability, Reduced component count Single-Stage ac/dc converters for 
  OBC applications, Efficiency optimization through RMS current minimization and extended ZVS of isolated 
  dc/ac converters, 6.78MHz- 13.56MHz power electronic circuit design and implementation, 400 kHz and 
  high voltage pulse generator for plasma generation for semiconductors manufacturing, High frequency dc/dc 
  and dc/ac Resonant converters, Isolated and non-isolated dc/dc converters, Grid current shaping using 
  adaptive phase-shift controller to overcome the problem of thermal imbalance between high-side and lowside switches, Sliding mode controller, THD reduction, Power factor correction, Magnetic integration, ZVS 
  three-level AC/AC converters.