Ph.D. in Computer Engineering
University of Central Florida · GPA 3.92/4.00
Researching UAV and connected-vehicle communication with emphasis on FSO beam steering, network optimization, and resilient mobility networks.
Wireless Systems • Intelligent Transportation • UAV Networks • Machine Learning
Doctoral researcher at the University of Central Florida focused on free-space optical (FSO) and RF communications for UAVs, connected vehicles, and smart transportation systems.
I design and validate end-to-end wireless systems that bridge mobility and communication infrastructure. From FSO beam-steering algorithms to hurricane evacuation crash-risk models, my work spans embedded prototyping, large-scale simulation, and applied machine learning.
University of Central Florida · GPA 3.92/4.00
Researching UAV and connected-vehicle communication with emphasis on FSO beam steering, network optimization, and resilient mobility networks.
University of Central Florida · GPA 3.805/4.00
Developed crash prediction models and connected-vehicle simulations for smart city evacuation planning.
Islamic University of Technology · GPA 3.88/4.00
Specialized in wireless systems, embedded design, and robotics; led the IUT Mars Rover team to global competitions.
Advancing wireless, transportation safety, and autonomous mobility systems.
Networking & Wireless Systems Lab, UCF · Aug 2021 – Present
Delivering large-scale wireless deployments and resilient infrastructure.
Huawei Technologies Ltd. · Feb 2020 – Jul 2021
Hands-on systems engineering across UAVs, transportation safety, and embedded platforms.
2025 · Paper Submitted
2025 · Competition Development
2024 · Robotics Platform
2022 · Edge AI Deployment
2023 · Hardware Prototype
2017 – 2019 · Competition Team Lead
Designed an all-optical neighbor-discovery protocol by formulating PAT as a constrained steering optimization and implementing a beta-distribution randomized scan that uniformly covers the 3D search space, reducing discovery time.
Implemented a GNU Radio–ZeroMQ–Python SDR pipeline with phased arrays achieving <1 µs beam loops and trained a three-layer DQN with cross-scenario transfer learning, cutting AoA error to <2°.
Engineered a low-latency connected vehicle pipeline for speed and acceleration telemetry, training lightweight ML models with SMOTE balancing to surface crash-risk hotspots in real time with up to 0.91 recall and ~0.95 F1.
Developed eight XGBoost models using 65 fused features from traffic, weather, and emergency access data to forecast post-crash recovery, achieving 82.4% cosine similarity between predicted and reported clearance times.
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