Senior Algorithm Engineer at Farasis Energy. PhD in Electrical & Computer Engineering from Marquette University, advised by Dr. Edwin Yaz in the MACE Group.
My research bridges deep learning–based computer vision (video analysis, multi-object tracking) and distributed estimation theory (SOC/SOH estimation, Kalman filter variants, multi-target tracking in sensor networks).
A novel nonlinear reduced-order H∞ filter is introduced to estimate the speed and position of a two-phase PMSM with biased winding resistance, addressing modeling inaccuracies, temperature variations, and aging effects. Simulation results show robust estimation compared to both full- and reduced-order EKFs under model uncertainty.
A novel Reduced-order Extended Kalman Filter (ROEKF) for PMSM speed and position estimation that achieves equivalent accuracy to the full-order EKF while significantly reducing computation cost.
Two efficient techniques for multi-object tracking: a realistic motion model improving tracking with no extra cost, and a reduced-order Kalman filter cutting computation while maintaining tracking accuracy. Competitive results on MOT benchmarks.
A discrete-time reduced-order H∞ filter offering a compelling alternative to the full-order version with significantly reduced computation cost and similar estimation accuracy under biased process noise.
3D CNN applied to violence detection in surveillance footage. A comprehensive hyperparameter study shows competitive results on three benchmark datasets, outperforming techniques designed specifically for violence detection.
MMAE technique for simultaneous SOC and total capacity estimation of LiFePO4 cells. Conditional probabilities over capacity values drive the state estimate, outperforming Joint and Dual estimation baselines.
MMAE + EKF combination for SOC estimation of LiFePO4 cells. The combined technique improves accuracy and avoids the individual drawbacks of MMAE or EKF alone.
Converts nonlinear SOC estimation into a parallel linear problem using MMAE with a bank of Kalman filters. Outperforms EKF alone on LiFePO4 simulation.
Bank of Kalman filters detects sensor and actuator intrusions in CPS without knowledge of the intrusion type. Validated on a DC motor speed control simulation.
Fading memory technique applied to the MME algorithm enables significantly faster detection of CPS sensor and actuator intrusion signals. Verified on a DC motor simulation.