Communications
& Information Theory
Wireless and optical links, modulation, detection, fading, outage, BER, and system-level performance.
I work at the intersection of communications, mathematics, and physical systems — turning difficult technical problems into things that can be understood, modeled, and built.
I'm an electrical engineer focused on communications and physical-layer systems. My work tends to live where mathematical models meet real physical constraints: wireless links, optical communications, stochastic channels, simulation, and performance analysis. Outside engineering, I keep following the questions that made me study science in the first place — mathematics, astronomy, and the history of how we came to know what we know.
Wireless and optical links, modulation, detection, fading, outage, BER, and system-level performance.
From probability distributions and analytical derivations to numerical methods and Monte Carlo validation.
MATLAB, Python, simulation, numerical experimentation, visualization, and turning theory into reproducible results.
Optical propagation, turbulence, signal physics, and the engineering assumptions hiding underneath elegant equations.
Performance analysis of an AOM-based optical wireless communication system, including BER, outage probability, turbulence, and receiver detection.
Modeling heterogeneous links and optimizing user-to-network assignment under reliability and latency constraints.
An Arabic educational project built around rigorous explanations from first principles: not just what the answer is, but why it is true.
The language I keep coming back to whenever intuition isn't enough.
Learning the sky one constellation, coordinate system, and physical explanation at a time.
How ideas, methods, terminology, and scientific traditions actually developed.
Making rigorous science accessible in Arabic without reducing it to trivia.