Thin planar lenses that shape antenna wavefronts to improve gain and support multiple beams. The work explores metasurface and anisotropic designs for low-profile MIMO systems.
Planar electromagnetic structures for wave control, including reconfigurable surfaces, absorbers, and polarization conversion for communication and sensing.
Compact and high-gain antennas with multiple ports, switched beams, and steerable radiation patterns for microwave and millimetre-wave communication.
Frequency-diverse antennas and computational imaging methods for dielectric contrast mapping and non-contact sensing.
Microwave components that combine filtering, radiation, reconfiguration, and energy harvesting for wireless and sensing applications.
Engineered media for phase correction, enhanced aperture efficiency, and the routing of electromagnetic waves.
This project combines frequency-diverse antenna design with computational reconstruction to study dielectric contrast via microwave imaging.
A thin resonator-based lens shapes the fields from a three-port antenna array into beams directed along different angles.
Lens concept, fabricated prototype, and radiation pattern.
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Anisotropic high–low-epsilon media provide phase correction to improve antenna gain and aperture efficiency.
Prototype imagery from the high-gain antenna study.
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High-index slabs around an antenna redirect radiation into multiple beams, connecting engineered media with compact antenna design.
A glimpse of the multibeam antenna work.
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