Background

I'm a PhD candidate in Electrical Engineering at Texas A&M University, specializing in RF integrated circuit design and silicon photonics. My research focuses on developing intelligent control systems for next-generation communication and sensing platforms.

My approach bridges analog circuit design, photonic system architecture, and machine learning—creating adaptive hardware that optimizes itself in real-time. From chip tape-outs to system-level innovation, I work at the intersection where electronics meets photonics and intelligence.

Industry Experience

I've contributed to cutting-edge technology development at leading organizations including Meta Reality Labs, Qualcomm, and Fraunhofer Institute. My work spans AR/VR photonic systems, millimeter-wave transceivers, and ultra-low-power RF architectures.

At Meta Reality Labs, I developed laser and MEMS driver ICs with automatic stabilization loops for photonic display systems. At Qualcomm and Fraunhofer, I designed high-speed optical receivers and energy-efficient RF transmitters that push the boundaries of performance and power efficiency.

Expertise

RF IC Design

CMOS circuit design for mm-wave and high-speed applications, IC tape-outs, and system integration

Silicon Photonics

Photonic receiver front-ends, optical modulators, and hybrid electronic-photonic systems

ML-Based Control

Machine learning algorithms for automatic tuning and stabilization of analog hardware systems

Research & Innovation

Selected Publications

  • Wideband Tunable Silicon Photonic Receiver Front-End — Journal of Lightwave Technology
  • Automatic Tuning of Microwave Silicon Photonic Ring Resonators — IEEE RFIC
  • Power-Efficient MZM Drivers for Analog Photonic Links — IEEE TMTT
  • Ultra-Low-Power Integrated RF Transmitters — IEEE TCAS

Patents

Inventor on multiple patents in laser drivers, MEMS drivers, and automatic stabilization systems for photonic and AR/VR applications.