Research profile
My work connects secure wireless communications with learning-based optimization. The broader trajectory runs from nonlinear signal analysis and cooperative edge systems to physical-layer security for energy-constrained wireless networks.
Current doctoral research
My doctoral research studies secure and resilient transmission for future wireless systems, with particular interest in learning-enabled decision making under practical constraints.
Interactive model · Physical-layer security
Adjust Alice's antenna azimuth and compare Bob's and Eve's achievable rates on a full-room energy map. Opaque obstacles block line of sight; optional walls join the same lossy specular model for up to three reflections in total.
Explore the full playgroundThe progression from systems and resource cooperation to secure wireless optimization is part of one continuous research story.
Physical-layer security and dependable learning-enabled communications for energy-constrained IoT and IoE systems under adversarial interference.
A systems-and-decision track on exposing heterogeneous compute and storage resources as cooperative services. OpenRaaS provides the system foundation, while FogCom provides an experimental scheduling environment.
Research on incentive mechanisms, social-welfare-aware allocation, and online energy management for cooperative and wireless-powered edge systems.
First-author work on bispectral methods for nonlinear wave coupling, followed by collaborative applications to plasma-turbulence analysis.
The undergraduate thesis studied adaptive antenna-feed control for 5G base stations, alongside collaborative work on embedded vision, edge offloading, and robotic tracking.
Education and selected recognition spanning doctoral, graduate, and undergraduate study.