Thermal noise of a mirror can be reduced by cold damping. The displacement is measured with a high-finesse cavity and controlled with the radiation pressure of a modulated light beam. We establish the general quantum limits of noise in cold damping mechanisms and we show that the optomechanical system allows to reach these limits. Displacement noise can be arbitrarily reduced in a narrow frequency band. In a wide-band analysis we show that thermal fluctuations are reduced as with classical damping whereas quantum zero-point fluctuations are left unchanged. The only limit of cold damping is then due to zero-point energy of the mirror
We provide a general framework to describe cooling of a micromechanical oscillator to its quantum gr...
The thermal noise associated with mechanical dissipation is a ubiquitous limitation to the sensitivi...
Cooling of a macroscopic mechanical resonator to extremely low temperatures is a necessary condition...
An outstanding goal of the optomechanics community, particularly in the field of gravitational wave ...
The sensitivity in interferometric measurements such as gravitational-wave detectors is ultimately l...
We study the quantum limits in an optomechanical sensor based on a detuned high-finesse cavity with ...
Thermal noise generally greatly exceeds quantum noise in optomechanical devices unless the mechanica...
We study how a cavity with a movable mirror can be used to measure very small displacements The use ...
Generating non-classical states of light by opto-mechanical coupling depends critically on the mecha...
We review and study the roles of quantum and classical fluctuations in recent cavity-optomechanical ...
Thermal noise of a mirror is one of the most important issues in high-precision measurements such as...
Thermal frequency fluctuations in optical cavities limit the sensitivity of precision experiments ra...
4 pages, 5 figuresWe experimentally demonstrate the high-sensitivity optical monitoring of a micro-m...
Optomechanical systems offer a potential platform for testing quantum effects in relatively massive ...
Ground-state cooling ofmesoscopicmechanical resonators is a fundamental requirement for testing of q...
We provide a general framework to describe cooling of a micromechanical oscillator to its quantum gr...
The thermal noise associated with mechanical dissipation is a ubiquitous limitation to the sensitivi...
Cooling of a macroscopic mechanical resonator to extremely low temperatures is a necessary condition...
An outstanding goal of the optomechanics community, particularly in the field of gravitational wave ...
The sensitivity in interferometric measurements such as gravitational-wave detectors is ultimately l...
We study the quantum limits in an optomechanical sensor based on a detuned high-finesse cavity with ...
Thermal noise generally greatly exceeds quantum noise in optomechanical devices unless the mechanica...
We study how a cavity with a movable mirror can be used to measure very small displacements The use ...
Generating non-classical states of light by opto-mechanical coupling depends critically on the mecha...
We review and study the roles of quantum and classical fluctuations in recent cavity-optomechanical ...
Thermal noise of a mirror is one of the most important issues in high-precision measurements such as...
Thermal frequency fluctuations in optical cavities limit the sensitivity of precision experiments ra...
4 pages, 5 figuresWe experimentally demonstrate the high-sensitivity optical monitoring of a micro-m...
Optomechanical systems offer a potential platform for testing quantum effects in relatively massive ...
Ground-state cooling ofmesoscopicmechanical resonators is a fundamental requirement for testing of q...
We provide a general framework to describe cooling of a micromechanical oscillator to its quantum gr...
The thermal noise associated with mechanical dissipation is a ubiquitous limitation to the sensitivi...
Cooling of a macroscopic mechanical resonator to extremely low temperatures is a necessary condition...