We investigate the single mode operation of a quantum optical nonlinear \pi phase shift gate implemented by a single two-level atom in one-dimensional free space. Since the single mode property of the input photons at the atom is not preserved in the interaction at the atom, we analyze the effeciency of single mode operation that can still be achieved. We show how the input pulse shape can be optimized to obtain high efficiencies for the nonlinear single mode operation. With this analysis, we obtain an optimal single mode transmittance per photon of 78% for the successful nonliner \pi phase shift operation
Two qubit gates for photons are generally thought to require exotic materials with huge optical nonl...
Linear optical quantum computing aims to harness the inherent advantages of photons, such as an abse...
A theory of intracavity nonlinearities for single photon input states shows that there is a source o...
We investigate the single-mode operation of a quantum optical nonlinear π phase-shift gate implement...
International audienceA strong limitation of linear optical quantum computing is the probabilistic o...
Full quantum theory of the optical two-qubit quantum phase gate for single photons is formulated. Tr...
We describe the simplest single-photon encoding schemes and introduce the concept of a quantum optic...
The parametric interaction of light beams in nonlinear materials is usually thought to be too weak t...
Photonics is a promising architecture for the realisation of quantum information processing, since t...
A comprehensive theoretical analysis of the cavity quantum electrodynamics (QED) in single-photon Ma...
Quantum computers promise to increase greatly the efficiency of solving problems such as factoring l...
We show that a nonlinear phase shift of pi can be obtained by using a single two level atom in a one...
We provide a broad outline of the requirements that should be met by components produced for a Quant...
A single semiconductor quantum dot that is strongly coupled to a photonic crystal nanocavity yields ...
Full control over the spatiotemporal structure of quantum states of light is an important goal in qu...
Two qubit gates for photons are generally thought to require exotic materials with huge optical nonl...
Linear optical quantum computing aims to harness the inherent advantages of photons, such as an abse...
A theory of intracavity nonlinearities for single photon input states shows that there is a source o...
We investigate the single-mode operation of a quantum optical nonlinear π phase-shift gate implement...
International audienceA strong limitation of linear optical quantum computing is the probabilistic o...
Full quantum theory of the optical two-qubit quantum phase gate for single photons is formulated. Tr...
We describe the simplest single-photon encoding schemes and introduce the concept of a quantum optic...
The parametric interaction of light beams in nonlinear materials is usually thought to be too weak t...
Photonics is a promising architecture for the realisation of quantum information processing, since t...
A comprehensive theoretical analysis of the cavity quantum electrodynamics (QED) in single-photon Ma...
Quantum computers promise to increase greatly the efficiency of solving problems such as factoring l...
We show that a nonlinear phase shift of pi can be obtained by using a single two level atom in a one...
We provide a broad outline of the requirements that should be met by components produced for a Quant...
A single semiconductor quantum dot that is strongly coupled to a photonic crystal nanocavity yields ...
Full control over the spatiotemporal structure of quantum states of light is an important goal in qu...
Two qubit gates for photons are generally thought to require exotic materials with huge optical nonl...
Linear optical quantum computing aims to harness the inherent advantages of photons, such as an abse...
A theory of intracavity nonlinearities for single photon input states shows that there is a source o...