My research is primarily focused on atmospheric sciences, with a particular emphasis on the dynamics of the planetary boundary layer (PBL) and turbulence. The PBL, as the lowest part of the atmosphere, critically influences weather patterns, climate processes, and pollution transport. Through advanced remote sensing instrumentation—including Ceilometer, LIDAR, and RADAR—I conduct high-resolution, real-time analyses of the PBL’s vertical structure and dynamics. These instruments enable precise observations of parameters such as aerosol backscatter coefficients, temperature profiles, water vapor mixing ratios, and vertical wind profiles, significantly enhancing our understanding of atmospheric processes and the accuracy of predictive climate and air quality models.

​

In addition, my current research focuses on the statistical analysis of higher-order moments within the turbulent convective boundary layer (CBL), a complex yet vital area for comprehending atmospheric turbulence. By analyzing skewness and kurtosis within turbulent flows, I aim to deepen insights into the energy distribution and predict extreme events within the PBL. The turbulent nature of the CBL, driven by thermal convection, presents both challenges and unique opportunities for advanced statistical exploration. This research not only contributes to fundamental knowledge in atmospheric science but also holds practical implications for improving weather forecasting, enhancing aviation safety, and advancing climate modeling.