We present an experimental realization of a robust quantum communication scheme [Phys. Rev. Lett. 93, 220501 (2004)] using pairs of photons entangled in polarization and time. Our method overcomes errors due to collective rotation of the polarization modes (e.g., birefringence in optical fiber or misalignment), is insensitive to the phase's fluctuation of the interferometer, and does not require any shared reference frame including time reference, except the need to label different photons. The practical robustness of the scheme is further shown by implementing a variation of the Bennett-Brassard 1984 quantum key distribution protocol over 1 km optical fiber
Robust implementation of quantum key distribution requires precise state generation and measurements...
We present a single-photon source based on the stimulated four-wave mixing process with adjustable ...
In this paper, a novel quantum dialogue (QD) protocol is proposed based on single photons in both po...
We present an experimental realization of a robust quantum communication scheme [Phys. Rev. Lett. 93...
Noise and imperfection of realistic devices are major obstacles for implementing quantum cryptograph...
Error-free transmission (EFT) of quantum information is a crucial ingredient in quantum communicatio...
We present two polarization-based protocols for quantum key distribution. The protocols encode key b...
Standard quantum key distribution (QKD) protocols typically assume that the distant parties share a ...
This work deals with creation, manipulation and detection of quantum photon states, in one and two d...
Quantum laws can be used to implement secure communication channels; this has been named quantum cry...
At the heart of quantum physics lies the principle of superposition, and at the heart of information...
The time-bin quantum state is known to be highly robust against decoherence effects in both fiber-op...
Faithful transmission of quantum information is a crucial ingredient in quantum communication networ...
A one-way quantum key distribution scheme based on intrinsically stable Faraday-mirror type Michelso...
Quantum communication employs the counter-intuitive features of quantum physics for tasks that are i...
Robust implementation of quantum key distribution requires precise state generation and measurements...
We present a single-photon source based on the stimulated four-wave mixing process with adjustable ...
In this paper, a novel quantum dialogue (QD) protocol is proposed based on single photons in both po...
We present an experimental realization of a robust quantum communication scheme [Phys. Rev. Lett. 93...
Noise and imperfection of realistic devices are major obstacles for implementing quantum cryptograph...
Error-free transmission (EFT) of quantum information is a crucial ingredient in quantum communicatio...
We present two polarization-based protocols for quantum key distribution. The protocols encode key b...
Standard quantum key distribution (QKD) protocols typically assume that the distant parties share a ...
This work deals with creation, manipulation and detection of quantum photon states, in one and two d...
Quantum laws can be used to implement secure communication channels; this has been named quantum cry...
At the heart of quantum physics lies the principle of superposition, and at the heart of information...
The time-bin quantum state is known to be highly robust against decoherence effects in both fiber-op...
Faithful transmission of quantum information is a crucial ingredient in quantum communication networ...
A one-way quantum key distribution scheme based on intrinsically stable Faraday-mirror type Michelso...
Quantum communication employs the counter-intuitive features of quantum physics for tasks that are i...
Robust implementation of quantum key distribution requires precise state generation and measurements...
We present a single-photon source based on the stimulated four-wave mixing process with adjustable ...
In this paper, a novel quantum dialogue (QD) protocol is proposed based on single photons in both po...