A photonic beamforming system uses tunable optical delay lines to achieve true-time delay processing for phased array antennas.
A Rydberg-atom based RF receiver utilizes Electromagnetically Induced Transparency to detect signals across a broad frequency range.
Mach-Zehnder modulators use Bessel function zeros to suppress high-power RF interference signals.
Tunable electro-optic resonators filter optical signals to suppress adjacent frequency interference while maintaining high signal-to-noise ratios.
Offset single-mode fiber excites higher-order modes in a few-mode fiber, reducing coherent interference and simplifying fabrication complexity.
Centralizing laser stabilization eliminates per-device complexity while reducing transmission loss through wavelength conversion and distribution.
Optical signal storage delays RF inputs while electro-optical modulation removes interference, expanding dynamic range without ADC saturation.
An integrated optical path architecture in a photonic RF generator avoids phase instability from reflections, eliminating the need for lossy optical isolators.
A quantum atomic receiving antenna uses laser-excited Rydberg atoms to detect radiofrequency radiation strength, direction, and polarization.
A quantum dot comb laser generates multiple optical channels for heterodyned signals.