Area of research
Electrical and Electronic Engineering · Nuclear and High Energy Physics
Research interest
Research interests include Radio Frequency Integrated Circuit Design, Microwave Engineering and Waveguides, High-Energy Particle Collisions Research, and Antenna Design and Analysis.
High Sensitivity and High Throughput Magnetic Flow CMOS Cytometers With 2D Oscillator Array and Inter-Sensor Spectrogram Cross-Correlation.
Deep-learning enabled generalized inverse design of multi-port radio-frequency and sub-terahertz passives and integrated circuits.
An Ingestible Pill With CMOS Fluorescence Sensor Array, Bi-Directional Wireless Interface and Packaged Optics for in-Vivo Bio-Molecular Sensing.
Origami Microwave Imaging Array: Metasurface Tiles on a Shape-Morphing Surface for Reconfigurable Computational Imaging.
A Fully Integrated CMOS-controlled Scalable Microfluidics and Pneumatic-free Cell Actuation and Cytometry Sensing Device.
CMOS-Based Electrokinetic Microfluidics With Multi-Modal Cellular and Bio-Molecular Sensing for End-to-End Point-of-Care System.
Programmable terahertz chip-scale sensing interface with direct digital reconfiguration at sub-wavelength scales.
Collaborative Research: CISE: Medium: Curving data around obstacles using sub-THz accelerating beams
RINGS: Resilient mmWave Networks via Distributed In-Surface Computing (mmRISC)
Collaborative Research: CNS Core: Medium: Access, Mobility, and Security above 100 GHz
Collaborative Research: A Microfluidic-CMOS Cross-cut Approach enabling Tri-Modal Biorecognition for Highly Accurate Viral Diagnostics
Portable, fluorescence-based bio-molecular sensor on CMOS chip with integrated nano-optics for massively multiplexed assays
Integrated THz Spectroscopy exploiting On-chip Scattering and Device Nonlinearity
Multiplexing Techniques for Scalable Wireless Interconnects at sub-THz Frequencies: Circuits-EM-Communication Codesign Approach