Cavity Optomechanics is a field employing optical control over mechanical oscillators with a variety of possible applications for sensing, optical signal processing as well as quantum technologies. Such systems are attractive because they are often fully engineerable and can be tailored to specific applications by allowing a large range of frequencies and the usage of a number of host materials. The following work explores one such application of a high frequency, ultra-long lived mechanical mode as a quantum memory which can be read out on-demand via an optical interface.QN/Groeblacher La
Thermal motion of a room-temperature mechanical resonator typically dominates the quantum backaction...
The work in this thesis focuses on potential ways to bring a macroscopic mechanicalresonator in a cl...
Optomechanical systems offer a potential platform for testing quantum effects in relatively massive ...
This thesis explores the possibility of controlling the quantum states of high frequency mechanical ...
The search for experimental demonstration of the quantum behavior of macroscopic mechanical resonato...
Mechanical oscillators which respond to radiation pressure are a promising means of transferring qua...
This thesis concentrates on generating and measuring non-classical states of mechanical oscillators ...
Mechanical oscillators are extensively used in applications ranging from chronometry using quartz os...
We study an optomechanical system in which a microwave field and an optical field are coupled to the...
A mechanical oscillator coupled to the optical field in a cavity is a typical cavity optomechanical ...
Cavity-enhanced Brillouin scattering interactions with gigahertz-frequency acoustic phonons offer a ...
The rapid development of high-QM macroscopic mechanical resonators has enabled great advances in opt...
Cavity optomechanics is a rapidly evolving field operating at the intersection of solid-state physic...
An exciting scientific goal, common to many fields of research, is the development of ever-larger ph...
Light can transfer momentum to a mechanical oscillator via the radiation pressure force. Conversely,...
Thermal motion of a room-temperature mechanical resonator typically dominates the quantum backaction...
The work in this thesis focuses on potential ways to bring a macroscopic mechanicalresonator in a cl...
Optomechanical systems offer a potential platform for testing quantum effects in relatively massive ...
This thesis explores the possibility of controlling the quantum states of high frequency mechanical ...
The search for experimental demonstration of the quantum behavior of macroscopic mechanical resonato...
Mechanical oscillators which respond to radiation pressure are a promising means of transferring qua...
This thesis concentrates on generating and measuring non-classical states of mechanical oscillators ...
Mechanical oscillators are extensively used in applications ranging from chronometry using quartz os...
We study an optomechanical system in which a microwave field and an optical field are coupled to the...
A mechanical oscillator coupled to the optical field in a cavity is a typical cavity optomechanical ...
Cavity-enhanced Brillouin scattering interactions with gigahertz-frequency acoustic phonons offer a ...
The rapid development of high-QM macroscopic mechanical resonators has enabled great advances in opt...
Cavity optomechanics is a rapidly evolving field operating at the intersection of solid-state physic...
An exciting scientific goal, common to many fields of research, is the development of ever-larger ph...
Light can transfer momentum to a mechanical oscillator via the radiation pressure force. Conversely,...
Thermal motion of a room-temperature mechanical resonator typically dominates the quantum backaction...
The work in this thesis focuses on potential ways to bring a macroscopic mechanicalresonator in a cl...
Optomechanical systems offer a potential platform for testing quantum effects in relatively massive ...