Modulating a single-frequency laser source at the coil's natural frequency eliminates parasitic reflection noise while preserving measurement sensitivity.
Replacing solid glass with hollow core fibers eliminates phase noise while feedback loops maintain laser stability for precise rotation sensing.
A gyrometer measurement system uses adaptive weighting to compensate for intensity noise in interferometric signals.
A photonic device uses weak value amplification to boost rotation detection signals through controlled light manipulation in microscale waveguides.
A non-interferometric optical gyroscope detects rotation through polarization analysis of counter-propagating beams in a closed loop.
A bidirectional microwave-over-fiber resonant system generates stable oscillations for angular velocity measurement.
A PDH offset servo circuit demodulates counterpropagating signals to generate a compensated error signal for laser frequency control.