Application of Quantum State Control to Optical Phase-Locked Loop

Yoshihiro YOSHIDA; Masao NAKAGAWA; Osamu HIROTA

Application of Quantum State Control to Optical Phase-Locked Loop

Yoshihiro YOSHIDA, Masao NAKAGAWA, Osamu HIROTA

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In optical coherent communications with homodyne detection system, it is one of the most essential problems to synchronize the phase of local oscillator with that of received signal on the receiver. In general, the phase-locking performance is limited by frequency fluctuation and quantum noise of light source. So far some optical phase-locked loops have been proposed in order to optimize phase-locking performance. Their main purpose is to minimize phase error variance of systems with frequency fluctuation and quantum noise transformed into the electric region. To improve the phase-locking performance under the same situations, this paper proposes a new optical phase-locked loop with received quantum state controller, called a Squeezed-PLL, which can reduce the impact of quantum noise in the optical region. This system can eliminate the effect of the vacuum noise due to the beam splitting. Finally, the general signal to noise ratio of data-branch is shown, and phase-locking performance of the Squeezed-PLL is verified by computer simulation.

Publication: IEICE TRANSACTIONS on transactions Vol.E72-E No.5 pp.539-546

Publication Date: 1989/05/25

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Type of Manuscript: Special Section PAPER (Special Issue on Information Theory and Its Applications)

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Yoshihiro YOSHIDA
Masao NAKAGAWA
Osamu HIROTA

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Yoshihiro YOSHIDA, Masao NAKAGAWA, Osamu HIROTA, "Application of Quantum State Control to Optical Phase-Locked Loop" in IEICE TRANSACTIONS on transactions, vol. E72-E, no. 5, pp. 539-546, May 1989, doi: .
Abstract: In optical coherent communications with homodyne detection system, it is one of the most essential problems to synchronize the phase of local oscillator with that of received signal on the receiver. In general, the phase-locking performance is limited by frequency fluctuation and quantum noise of light source. So far some optical phase-locked loops have been proposed in order to optimize phase-locking performance. Their main purpose is to minimize phase error variance of systems with frequency fluctuation and quantum noise transformed into the electric region. To improve the phase-locking performance under the same situations, this paper proposes a new optical phase-locked loop with received quantum state controller, called a Squeezed-PLL, which can reduce the impact of quantum noise in the optical region. This system can eliminate the effect of the vacuum noise due to the beam splitting. Finally, the general signal to noise ratio of data-branch is shown, and phase-locking performance of the Squeezed-PLL is verified by computer simulation.
URL: https://global.ieice.org/en_transactions/transactions/10.1587/e72-e_5_539/_p

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@ARTICLE{e72-e_5_539,
author={Yoshihiro YOSHIDA, Masao NAKAGAWA, Osamu HIROTA, },
journal={IEICE TRANSACTIONS on transactions},
title={Application of Quantum State Control to Optical Phase-Locked Loop},
year={1989},
volume={E72-E},
number={5},
pages={539-546},
abstract={In optical coherent communications with homodyne detection system, it is one of the most essential problems to synchronize the phase of local oscillator with that of received signal on the receiver. In general, the phase-locking performance is limited by frequency fluctuation and quantum noise of light source. So far some optical phase-locked loops have been proposed in order to optimize phase-locking performance. Their main purpose is to minimize phase error variance of systems with frequency fluctuation and quantum noise transformed into the electric region. To improve the phase-locking performance under the same situations, this paper proposes a new optical phase-locked loop with received quantum state controller, called a Squeezed-PLL, which can reduce the impact of quantum noise in the optical region. This system can eliminate the effect of the vacuum noise due to the beam splitting. Finally, the general signal to noise ratio of data-branch is shown, and phase-locking performance of the Squeezed-PLL is verified by computer simulation.},
keywords={},
doi={},
ISSN={},
month={May},}

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TY - JOUR
TI - Application of Quantum State Control to Optical Phase-Locked Loop
T2 - IEICE TRANSACTIONS on transactions
SP - 539
EP - 546
AU - Yoshihiro YOSHIDA
AU - Masao NAKAGAWA
AU - Osamu HIROTA
PY - 1989
DO -
JO - IEICE TRANSACTIONS on transactions
SN -
VL - E72-E
IS - 5
JA - IEICE TRANSACTIONS on transactions
Y1 - May 1989
AB - In optical coherent communications with homodyne detection system, it is one of the most essential problems to synchronize the phase of local oscillator with that of received signal on the receiver. In general, the phase-locking performance is limited by frequency fluctuation and quantum noise of light source. So far some optical phase-locked loops have been proposed in order to optimize phase-locking performance. Their main purpose is to minimize phase error variance of systems with frequency fluctuation and quantum noise transformed into the electric region. To improve the phase-locking performance under the same situations, this paper proposes a new optical phase-locked loop with received quantum state controller, called a Squeezed-PLL, which can reduce the impact of quantum noise in the optical region. This system can eliminate the effect of the vacuum noise due to the beam splitting. Finally, the general signal to noise ratio of data-branch is shown, and phase-locking performance of the Squeezed-PLL is verified by computer simulation.
ER -