A two qubit quantum gate, namely the C-phase, has been realized by exploiting the longitudinal momentum (i.e. the optical path) degree of freedom of a single photon. The experimental setup used to engineer this quantum gate represents an advanced version of the high stability closed-loop interferometric setup adopted to generate and characterize 2-photon 4-qubit phased Dicke states. Some experimental results, dealing with the characterization of multipartite entanglement of the phased Dicke states are also discussed in detail. © EDP Sciences, Società Italiana di Fisica, Springer-Verlag 2012
We solve the Jaynes-Cummings Hamiltonian with time-dependent coupling parameters under the dipol...
We show that the optical Kerr effect can be used to construct a quantum phase gate. It is well known...
Two-qubit interactions are at the heart of quantum information processing. For single-spin qubits in...
A two qubit quantum gate, namely the C-phase, has been realized by exploiting the longitud...
A three level atom and a longitudinal mode of a cavity can implement two-qubit quantum phase gates. ...
Optical quantum computing (QC) increasingly uses integrated optics based experiments which permit ci...
Full quantum theory of the optical two-qubit quantum phase gate for single photons is formulated. Tr...
A single three-level atom driven by a longitudinal mode of a high-Q cavity is used to implement two-...
We propose a protocol for a two-qubit quantum phase gate based upon the reflection of photon pulses ...
A single three-level atom driven by a longitudinal mode of a high-Q cavity is used to implement two-...
A recently introduced family of multipartite entangled states, the 4-qubit phased Dicke states, has ...
We implement a four-qubit controlled-shift gate leveraging photon entanglement in extended Hilbert s...
The quantum description of light offers a unique set of optical effects that has led to promising ap...
We discuss progress towards implementing two qubit quantum gates in optics. We review the operation ...
Generating quantum entanglement is not only an important scientific endeavor, but will be essential ...
We solve the Jaynes-Cummings Hamiltonian with time-dependent coupling parameters under the dipol...
We show that the optical Kerr effect can be used to construct a quantum phase gate. It is well known...
Two-qubit interactions are at the heart of quantum information processing. For single-spin qubits in...
A two qubit quantum gate, namely the C-phase, has been realized by exploiting the longitud...
A three level atom and a longitudinal mode of a cavity can implement two-qubit quantum phase gates. ...
Optical quantum computing (QC) increasingly uses integrated optics based experiments which permit ci...
Full quantum theory of the optical two-qubit quantum phase gate for single photons is formulated. Tr...
A single three-level atom driven by a longitudinal mode of a high-Q cavity is used to implement two-...
We propose a protocol for a two-qubit quantum phase gate based upon the reflection of photon pulses ...
A single three-level atom driven by a longitudinal mode of a high-Q cavity is used to implement two-...
A recently introduced family of multipartite entangled states, the 4-qubit phased Dicke states, has ...
We implement a four-qubit controlled-shift gate leveraging photon entanglement in extended Hilbert s...
The quantum description of light offers a unique set of optical effects that has led to promising ap...
We discuss progress towards implementing two qubit quantum gates in optics. We review the operation ...
Generating quantum entanglement is not only an important scientific endeavor, but will be essential ...
We solve the Jaynes-Cummings Hamiltonian with time-dependent coupling parameters under the dipol...
We show that the optical Kerr effect can be used to construct a quantum phase gate. It is well known...
Two-qubit interactions are at the heart of quantum information processing. For single-spin qubits in...