Projects
-
GPU-Accelerated MPC for Neural-ODE Soft Robots
Continuous-time MPC via Bayesian inference for Neural-ODE-based soft-robot manipulators; achieved 10× accuracy gains and 200× faster solve times vs. CasADi + IPOPT.
-
Real-Time Motion Planning for Autonomous Vehicles
Learning-based vehicle dynamics (GRU, ResNet) for AV trajectory planning; validated on real-world driving datasets. Integrated with MPC benchmarks (CasADi + IPOPT).
-
Heavy-Tailed Bayesian Motion Planning (with Student’s-t distribution)
Sequential Monte Carlo ensemble Kalman-t smoother for robust inference and exploration in deep learning models of vehicle dynamics.
-
GPU MPC of CNNs via Matrix-Var. Ensemble Kalman Smoothing
Gradient-free CUDA-based matrix-variate EKS for controlling convolutional neural networks; 20× faster and 12× more memory-efficient on large networks.
-
Tensor-Var. GPU EKS for High-Dimensional Deep Learning Models
Tensor-compatible ensemble Kalman smoother for optimal control of NN-modeled 3D/2D Navier–Stokes & Burgers’ PDEs, enabling millisecond-scale control where classical solvers fail.
-
Physics-Constrained Neural-ODE-GRU for HVAC
Digital-twin HVAC modeling with data-efficient training; 14% accuracy improvement and 5.7× faster runtime.
-
MERL — Real-Time HVAC Digital Twins (Internship)
Extended digital-twin concepts to HVAC with real-time Neural ODE/GRU simulators; delivered a PyTorch toolkit and improved forecasting accuracy with GPU acceleration.
-
MERL — Optimal Inferential Control for HVAC (Collaboration)
Collaborated with MERL researchers (via KU advisor) on optimal inferential control of NN dynamical systems (HVAC digital twins).
-
RL-Based Sensor Placement for Persistent Monitoring
Designed reinforcement-learning policies to minimize estimation-error covariance and improve coverage in monitoring tasks.
-
Mobile Robot + SCARA Arm for Ocean Plastic Collection
Built a mobile robot with SCARA arm; integrated RRT/Dijkstra/potential-field planning with PID control. CAD in SolidWorks, simulation in MATLAB/Simulink.
Earlier & Related Work
-
Physics-Informed ML for PDEs
PINNs (FNNs, CNNs, ConvLSTMs) for 2D/3D Navier–Stokes, Burgers, and Kuramoto–Sivashinsky with weak/zero-data training.
-
Selected Undergraduate Projects (Sharif, 2018–2021)
- Ocean plastic collection robot: mobile base + SCARA arm; hybrid planning (RRT, Dijkstra, potential fields) with PID control.
- Collaborative-robot analysis: kinematics/dynamics modeling and simulation (MATLAB/Simulink); rapid CAD prototyping (SolidWorks).
- Surgical needle navigation GUI: image-guided toolpath planning with RRT algorithm and visualization interface.