MICROWAVE-TO-OPTICAL PHOTON TRANSDUCER

A microwave-to-optical photon transducer (1) is provided for generating coupling between a microwave signal (Sin2) and an optical signal (Spi_in1, Spi_out1). The transducer (1) comprises: a first input port (3); a second input port (5); a first output port (9) for outputting the optical signal (Spi_...

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Hauptverfasser: JAVERZAC-GALY, Clément, ANDERSON, Mitchell, FEOFANOV, Olexiy
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Sprache:eng ; fre ; ger
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creator JAVERZAC-GALY, Clément
ANDERSON, Mitchell
FEOFANOV, Olexiy
description A microwave-to-optical photon transducer (1) is provided for generating coupling between a microwave signal (Sin2) and an optical signal (Spi_in1, Spi_out1). The transducer (1) comprises: a first input port (3); a second input port (5); a first output port (9) for outputting the optical signal (Spi_out1) and one or more optical sideband signals (Sout1, Sout11, Sout12); a first waveguide (13) disposed between the first input port (3) and the first output port (9) to allow the optical signal (Spi_in1) and the one or more optical sideband signals (Sout1, Sout11, Sout12) to propagate in the first waveguide (13); a second waveguide (15) connected to the second input port (5), and extending in the transducer (1) adjacent to the first waveguide (13) to allow the microwave signal (Sin2) to propagate in the second waveguide (15); a phase-matching arrangement to cause at least the optical signal (Spi_in1) and the microwave signal (Sin2) to be phase-matched or quasi-phase-matched. The first waveguide (13) is made of or comprising non-linear material such that a first electromagnetic field generated by the optical signal (Spi_in1) in the first waveguide (13) and a second electromagnetic field generated by the microwave signal (Sin2) in the second waveguide (15) are arranged to interact in the non-linear material so that the number of optical photons in the one or more optical sideband signals (Sout1, Sout11, Sout12) at the first output port (9) equals the number of microwave photons in the microwave signal (Sin2) at the second input port (5) multiplied by a transducer gain.
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The first waveguide (13) is made of or comprising non-linear material such that a first electromagnetic field generated by the optical signal (Spi_in1) in the first waveguide (13) and a second electromagnetic field generated by the microwave signal (Sin2) in the second waveguide (15) are arranged to interact in the non-linear material so that the number of optical photons in the one or more optical sideband signals (Sout1, Sout11, Sout12) at the first output port (9) equals the number of microwave photons in the microwave signal (Sin2) at the second input port (5) multiplied by a transducer gain.</abstract><oa>free_for_read</oa></addata></record>
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language eng ; fre ; ger
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subjects CALCULATING
COMPUTER SYSTEMS BASED ON SPECIFIC COMPUTATIONAL MODELS
COMPUTING
COUNTING
DEVICES OR ARRANGEMENTS, THE OPTICAL OPERATION OF WHICH ISMODIFIED BY CHANGING THE OPTICAL PROPERTIES OF THE MEDIUM OF THEDEVICES OR ARRANGEMENTS FOR THE CONTROL OF THE INTENSITY,COLOUR, PHASE, POLARISATION OR DIRECTION OF LIGHT, e.g.SWITCHING, GATING, MODULATING OR DEMODULATING
ELECTRIC COMMUNICATION TECHNIQUE
ELECTRICITY
FREQUENCY-CHANGING
NON-LINEAR OPTICS
OPTICAL ANALOGUE/DIGITAL CONVERTERS
OPTICAL LOGIC ELEMENTS
OPTICS
PHYSICS
TECHNIQUES OR PROCEDURES FOR THE OPERATION THEREOF
TRANSMISSION
title MICROWAVE-TO-OPTICAL PHOTON TRANSDUCER
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