Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of light

Abstract Quantum logic gate operates on a number of qubits, where a controlled Z gate operates on two qubit data. Similarly, the square root of controlled Z (SRCZ) operates also on two qubit data. The SRCZ gate is very much advantageous in quantum computing. Different quantum gates are implemented b...

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Main Authors: Minakshi Mandal, Sourangshu Mukhopadhyay
Format: Article
Language:English
Published: Wiley 2021-02-01
Series:IET Optoelectronics
Subjects:
Online Access:https://doi.org/10.1049/ote2.12008
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author Minakshi Mandal
Sourangshu Mukhopadhyay
author_facet Minakshi Mandal
Sourangshu Mukhopadhyay
author_sort Minakshi Mandal
collection DOAJ
description Abstract Quantum logic gate operates on a number of qubits, where a controlled Z gate operates on two qubit data. Similarly, the square root of controlled Z (SRCZ) operates also on two qubit data. The SRCZ gate is very much advantageous in quantum computing. Different quantum gates are implemented by using the physical properties of light such as phase, polarization, intensity, and frequency. Here, the authors propose a photonic scheme for implementing quantum SRCZ logic gate using phase as well as intensity encoding. The non‐linear property of Pockels material with proper external biasing voltage is used to develop the scheme.
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spelling doaj.art-cb7bfcc86cd14d9d9561984e9953e6832022-12-22T01:44:58ZengWileyIET Optoelectronics1751-87681751-87762021-02-01151526010.1049/ote2.12008Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of lightMinakshi Mandal0Sourangshu Mukhopadhyay1Department of Physics The University of Burdwan Burdwan West Bengal IndiaDepartment of Physics The University of Burdwan Burdwan West Bengal IndiaAbstract Quantum logic gate operates on a number of qubits, where a controlled Z gate operates on two qubit data. Similarly, the square root of controlled Z (SRCZ) operates also on two qubit data. The SRCZ gate is very much advantageous in quantum computing. Different quantum gates are implemented by using the physical properties of light such as phase, polarization, intensity, and frequency. Here, the authors propose a photonic scheme for implementing quantum SRCZ logic gate using phase as well as intensity encoding. The non‐linear property of Pockels material with proper external biasing voltage is used to develop the scheme.https://doi.org/10.1049/ote2.12008Pockels effectquantum computingquantum communicationquantum gateslogic gatesoptical logic
spellingShingle Minakshi Mandal
Sourangshu Mukhopadhyay
Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of light
IET Optoelectronics
Pockels effect
quantum computing
quantum communication
quantum gates
logic gates
optical logic
title Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of light
title_full Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of light
title_fullStr Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of light
title_full_unstemmed Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of light
title_short Photonic scheme for implementing quantum square root controlled Z gate using phase and intensity encoding of light
title_sort photonic scheme for implementing quantum square root controlled z gate using phase and intensity encoding of light
topic Pockels effect
quantum computing
quantum communication
quantum gates
logic gates
optical logic
url https://doi.org/10.1049/ote2.12008
work_keys_str_mv AT minakshimandal photonicschemeforimplementingquantumsquarerootcontrolledzgateusingphaseandintensityencodingoflight
AT sourangshumukhopadhyay photonicschemeforimplementingquantumsquarerootcontrolledzgateusingphaseandintensityencodingoflight