Electrical Engineer working on embedded and biomedical systems integrating embedded hardware, signal processing, and machine learning.
Engineer driven by research, innovation, and real-world impact
I am a graduate Electrical Engineer (GPA: 3.83/4.00) with research experience spanning embedded systems, signal processing, and machine-learning-based analysis of real-world data. My work emphasizes system-level design, where sensing hardware, embedded computation, and data-driven models are developed and evaluated under practical constraints such as noise, latency, and limited resources.
Through academic projects and an international research internship, I have gained experience in EEG-based brain–computer interfaces, biomedical instrumentation and circuit design, signal acquisition and preprocessing pipelines, FPGA-based control systems, and AI-assisted inference models. I seek graduate research training (Master’s/PhD) in Electrical Engineering and Bioengineering, with a focus on embedded and intelligent biomedical systems.
Real-time hardware and system integration
EEG, ECG, and physiological data analysis
Data-driven methods under practical constraints
National University of Sciences & Technology (NUST), Islamabad, Pakistan
GPA: 3.83 / 4.00
Focus: Electronics, Embedded Systems, Digital Design, Control, and Algorithms, Artifical Intelligence
Research and industry exposure
University of Alberta, Canada
Teresol Pvt. Ltd., Islamabad, Pakistan
Designing Intelligent Systems at the Intersection of Hardware, Signals, and AI
Designed an end-to-end brain–computer interface integrating custom EEG hardware, signal conditioning, and learning-based inference to study real-time stress detection under hardware and noise constraints.
Developed learning-based models to identify anomalous cardiac patterns from ECG time-series, emphasizing robustness to noise and inter-patient variability.
Designed and implemented a real-time traffic light controller using FPGA-based digital logic, emphasizing deterministic timing, hardware-level control, and system verification.
Designed a real-time automatic cruise control system using feedback control, modeling vehicle dynamics to maintain stable speed under varying operating conditions.
Designed and verified a flip-flop-based counter system with Karnaugh-map-optimized combinational logic for sequential vowel display, implemented in SystemVerilog and deployed on BCD-to-seven-segment hardware.
Research selection, competitive programs, and technical distinction
Research Pre-prints demonstrating applied machine learning and system-level modeling
Let's collaborate on meaningful projects that create positive impact