PhD ECE Student | Radar Systems & ML Researcher
Specializing in Radar Signal Processing, Vital Signs Monitoring, and AI-powered Healthcare Solutions
# Radar Signal Model
def received_signal(t, f_d, τ):
# x(t) = Σ αᵢ·s(t-τᵢ)·e^(j2πfᵈt)
return A * np.cos(2*π*f_0*t + φ)
def range_doppler_fft(x):
# 2D-FFT → Range-Doppler Map
return np.fft.fft2(x)
researcher = {
"focus": "Coherent-On-Receive",
"method": "SVD + Phase Est."
}
I'm a PhD student in Electrical and Computer Engineering at the University of Oklahoma, specializing in radar signal processing, machine learning, and advanced digital signal processing.
My research at the Advanced Radar Research Center focuses on developing novel signal processing algorithms for non-coherent radar systems, including coherent-on-receive processing frameworks and Vision Transformer architectures for micro-Doppler classification. I've achieved state-of-the-art results with 98% classification accuracy using 98% fewer parameters than conventional models.
I'm passionate about translating complex engineering concepts into practical solutions. From non-contact vital signs monitoring using mmWave radar to precision agriculture platforms combining IoT sensors with AI, I focus on building end-to-end systems that solve real-world problems in healthcare, agriculture, and industrial monitoring.
Years Experience
Projects Completed
Technologies
Here are some of my recent works
A comprehensive non-contact vital signs monitoring system using mmWave radar technology. Features real-time heart rate and breathing rate detection with AI-powered anomaly detection.
Hybrid AI architecture built for agriculture. LoteAI is an open, sensor-agnostic data fusion platform that works with existing equipment to deliver high-resolution, time-series driven crop insights and real-time anomaly detection.
End-to-end MATLAB framework for non-contact vital signs monitoring in children using 60 GHz FMCW radar. Features dual signal processing backends and validated on 25,000 radar frames.
Reinforcement learning agent using DQN algorithm to autonomously navigate and solve complex mazes. Features experience replay and target networks for stable learning.
Real-time predictive maintenance system for industrial air compressors using IoT sensors and Raspberry Pi. Monitors pressure, temperature, and humidity with live Streamlit dashboard.
Novel hybrid ViT architecture combining ResNet-SE blocks with transformer attention for radar target classification. Achieved 98% accuracy with 98% fewer parameters than VGG19.
Software-only DSP framework transforming non-coherent magnetron radar into coherent systems. Novel SVD-based algorithm achieving phase RMSE < 0.01 radians.
Advanced clutter suppression framework for non-coherent radar using fourth-order cumulants and SVD. Separates target returns from non-stationary clutter and leakage.
Interpretable ML framework for Error-Related Potential classification from EEG. Achieved F1-Score > 0.88, outperforming complex CNN models with data-efficient approach.
Academic & Industry Research Positions
Technologies I work with
Let's discuss healthcare technology, radar signal processing, or AI in medicine