Our research on fundamental limits and analytical study of issues pertain to integrated circuits and sensors. We continue to be interested in a deep understanding the underlying fundamental limitation to the performance of integrated circuits, which has enabled us to come up with non-trivial disruptive solutions, topologies and architectures.
Phase Noise and Dynamic Range in Radar Arrays
Analyzing the Performance of Phased Array Geometries with Aperture Projection Analysis
Visible spectrum waveguiding in bulk CMOS
A compact silicon photonic quantum coherent receiver with deterministic phase control
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Subtractive Photonics in Bulk CMOS
A 28-GHz, Multi-Beam, Decentralized Relay Array
Frontiers in Flexible and Shape-Changing Arrays
Performance Limits of Sub-Shot-Noise-Limited Balanced Detectors
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Large-Scale Crosstalk-Corrected Thermo-Optic Phase Shifter Arrays in Silicon Photonics
Meta-Gaps for Mechanically Reconfigurable Phased Arrays
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Multi-beam, Scalable 28 GHz Relay Array with Frequency and Spatial Division Multiple Access Using Passive, High-Order N-Path Filters
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Achieving full grating-lobe-free field of view with low-complexity co-prime photonic beamforming transceivers
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Foundry-fabricated grating coupler demultiplexer inverse-designed via fast integral methods
Discretization of annular-ring diffraction pattern for large-scale photonics beamforming
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Optically Synchronized Phased Arrays in CMOS
IQ Photonic Receiver for Coherent Imaging With a Scalable Aperture
A Framework for Array Shape Reconstruction Through Mutual Coupling
Dynamic Focusing of Large Arrays for Wireless Power Transfer and Beyond
