My research focuses on the design and development of planar microwave sensors for environmental and biomedical applications. The core goal is to innovate high-sensitivity, compact, and cost-efficient resonator-based sensing systems capable of detecting chemical, biological, and environmental analytes with high precision. This includes interdigital capacitor-integrated split-ring resonators (IECSRR), metamaterial-inspired structures, and flexible/rigid substrate-based sensors.

My research focuses on the development of metamaterial-based electromagnetic structures for high-performance sensing and communication applications. The objective is to engineer artificially structured materials with unique electromagnetic responses; such as negative permittivity/permeability, high field confinement, and strong resonance behavior to enable ultra-sensitive microwave sensors and compact antennas. This work aims to achieve superior performance in detection sensitivity, selectivity, bandwidth optimization, and miniaturization, ultimately contributing to next-generation sustainable technologies.

My research interest focuses on antenna design and fabrication to enable next-generation wireless and sensing technologies. The overarching goal is to develop high-performance, compact, and energy-efficient antenna systems that support future communication networks, IoT devices, biomedical sensing platforms, and smart environmental monitoring systems.