Classical signature of ponderomotive squeezing in a suspended mirror resonator
arXiv:0910.1287 · doi:10.1103/PhysRevLett.104.073601
Abstract
The radiation pressure coupling between a low-mass moving mirror and an incident light field has been experimentally studied in a high-finesse Fabry-Perot cavity. Using classical intensity noise in order to mimic radiation pressure quantum fluctuations, the physics of ponderomotive squeezing comes into play as a result of the opto-mechanical correlations between the field quadratures. The same scheme can be used to probe ponderomotive squeezing at the quantum level, thus opening new routes in quantum optics and high sensitivity measurement experiments.
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- Linear Amplifier Model for Optomechanical Systems
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- Squeezed light from a levitated nanoparticle at room temperature
- Frequency noise cancellation in optomechanical systems for ponderomotive squeezing
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- Quantum nondemolition measurement of optical field fluctuations by optomechanical interaction
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- Quantum-limited optical lever measurement of a torsion oscillator
- Feedback-assisted ponderomotive squeezing
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- Normal-mode splitting in the optomechanical system with an optical parametric amplifier and coherent feedback
- Negative Backaction Noise in Interferometric Detection of a Microlever