Photon‐echo quantum memory in solid state systems
Identifieur interne : 002963 ( Istex/Corpus ); précédent : 002962; suivant : 002964Photon‐echo quantum memory in solid state systems
Auteurs : W. Tittel ; M. Afzelius ; T. Chaneliére ; R. L. Cone ; S. Kröll ; S. A. Moiseev ; M. SellarsSource :
- Laser & Photonics Reviews [ 1863-8880 ] ; 2010-02-20.
English descriptors
- KwdEn :
- Absorber, Absorption line, Adjacent nodes, Afzelius, Atomic coherence, Atomic ensembles, Atomic medium, Bozeman, Cambridge university press, Chaneli, Cirac, Coherence, Coherence times, Coherent superposition, Crib, Cryptography, Data pulse, Data pulses, Data sequence, Data storage, Decoherence, Delity, Dipole moments, Doped, Doped crystals, Doped solids, Eld, Entangled, Entangled photon pairs, Entanglement, Entangling, Entangling operation, Envelope functions, Equall, Gisin, Gmbh, Ground state, Historical development, Homogeneous linewidth, Host material, Inhomogeneous, Inhomogeneously, Input pulse, Input state, January, John wiley sons, Kgaa, Lambda systems, Laser, Laser photon, Lett, Level structure, Linbo3, Linewidth, Linewidths, Long distances, Longdell, Longitudinal, Lumin, Lund university, Macfarlane, Moiseev, Nature physics, Node, Online, Online color, Optical depth, Optical pulses, Optical storage, Optical transition, Optical transitions, Optics, Particular interest, Phase coherence, Phase shift, Photon, Photonic, Phys, Probability amplitude, Protocol, Pulse, Quantum, Quantum channel, Quantum communication, Quantum cryptography, Quantum information, Quantum memories, Quantum memory, Quantum memory protocol, Quantum repeater, Quantum repeaters, Quantum state, Quantum state storage, Quantum states, Qubit, Qubits, Rare earth, Recent review, Repeater, Riedmatten, Second pulse, Sect, Sellars, Single photons, Single qubit, Sio5, Solid state systems, Solid state systems figure, Spectral diffusion, Spectral hole, Staudt, Storage process, Storage time, Superposition, Teleportation, Thiel, Tittel, Ttger, Verlag, Verlag gmbh, Weinheim, Zbinden, Zhang.
- Teeft :
- Absorber, Absorption line, Adjacent nodes, Afzelius, Atomic coherence, Atomic ensembles, Atomic medium, Bozeman, Cambridge university press, Chaneli, Cirac, Coherence, Coherence times, Coherent superposition, Crib, Cryptography, Data pulse, Data pulses, Data sequence, Data storage, Decoherence, Delity, Dipole moments, Doped, Doped crystals, Doped solids, Eld, Entangled, Entangled photon pairs, Entanglement, Entangling, Entangling operation, Envelope functions, Equall, Gisin, Gmbh, Ground state, Historical development, Homogeneous linewidth, Host material, Inhomogeneous, Inhomogeneously, Input pulse, Input state, January, John wiley sons, Kgaa, Lambda systems, Laser, Laser photon, Lett, Level structure, Linbo3, Linewidth, Linewidths, Long distances, Longdell, Longitudinal, Lumin, Lund university, Macfarlane, Moiseev, Nature physics, Node, Online, Online color, Optical depth, Optical pulses, Optical storage, Optical transition, Optical transitions, Optics, Particular interest, Phase coherence, Phase shift, Photon, Photonic, Phys, Probability amplitude, Protocol, Pulse, Quantum, Quantum channel, Quantum communication, Quantum cryptography, Quantum information, Quantum memories, Quantum memory, Quantum memory protocol, Quantum repeater, Quantum repeaters, Quantum state, Quantum state storage, Quantum states, Qubit, Qubits, Rare earth, Recent review, Repeater, Riedmatten, Second pulse, Sect, Sellars, Single photons, Single qubit, Sio5, Solid state systems, Solid state systems figure, Spectral diffusion, Spectral hole, Staudt, Storage process, Storage time, Superposition, Teleportation, Thiel, Tittel, Ttger, Verlag, Verlag gmbh, Weinheim, Zbinden, Zhang.
Abstract
Many applications of quantum communication crucially depend on reversible transfer of quantum states between light and matter. Motivated by rapid recent developments in theory and experiment, we review research related to quantum memory based on a photon‐echo approach in solid state material with emphasis on use in a quantum repeater. After introducing quantum communication, the quantum repeater concept, and properties of a quantum memory required to be useful in a quantum repeater, we describe the historical development from spin echoes, discovered in 1950, to photon‐echo quantum memory. We present a simple theoretical description of the ideal protocol, and comment on the impact of a non‐ideal realization on its quantum nature. We extensively discuss rare‐earth‐ion doped crystals and glasses as material candidates, elaborate on traditional photon‐echo experiments as a test‐bed for quantum state storage, and describe the current state‐of‐the‐art of photon‐echo quantum memory. Finally, we give a brief outlook on current research.
Url:
DOI: 10.1002/lpor.200810056
Links to Exploration step
ISTEX:BBBAD35DDB2D39DA5DBC4B940A15C0949E1F0F39Le document en format XML
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Tittel</name><affiliation><mods:affiliation>E-mail: wtittel@qis.ucalgary.ca</mods:affiliation></affiliation><affiliation><mods:affiliation>E-mail: wtittel@qis.ucalgary.ca</mods:affiliation></affiliation></author><author><name sortKey="Afzelius, M" sort="Afzelius, M" uniqKey="Afzelius M" first="M." last="Afzelius">M. Afzelius</name><affiliation><mods:affiliation>Group of Applied Physics, University of Geneva, Switzerland</mods:affiliation></affiliation></author><author><name sortKey="Chaneliere, T" sort="Chaneliere, T" uniqKey="Chaneliere T" first="T." last="Chaneliére">T. Chaneliére</name><affiliation><mods:affiliation>Laboratoire Aimé Cotton, CNRS‐UPR 3321, Orsay, France</mods:affiliation></affiliation></author><author><name sortKey="Cone, R L" sort="Cone, R L" uniqKey="Cone R" first="R. L." last="Cone">R. L. 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Sellars</name><affiliation><mods:affiliation>Laser Physics Centre, Australian National University, Canberra, Australia</mods:affiliation></affiliation></author></analytic><monogr></monogr><series><title level="j" type="main">Laser & Photonics Reviews</title><title level="j" type="alt">LASER PHOTONICS REVIEWS</title><idno type="ISSN">1863-8880</idno><idno type="eISSN">1863-8899</idno><imprint><biblScope unit="vol">4</biblScope><biblScope unit="issue">2</biblScope><biblScope unit="page" from="244">244</biblScope><biblScope unit="page" to="267">267</biblScope><biblScope unit="page-count">24</biblScope><publisher>WILEY‐VCH Verlag</publisher><pubPlace>Berlin</pubPlace><date type="published" when="2010-02-20">2010-02-20</date></imprint><idno type="ISSN">1863-8880</idno></series></biblStruct></sourceDesc><seriesStmt><idno type="ISSN">1863-8880</idno></seriesStmt></fileDesc><profileDesc><textClass><keywords scheme="KwdEn" xml:lang="en"><term>Absorber</term><term>Absorption 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material</term><term>Inhomogeneous</term><term>Inhomogeneously</term><term>Input pulse</term><term>Input state</term><term>January</term><term>John wiley sons</term><term>Kgaa</term><term>Lambda systems</term><term>Laser</term><term>Laser photon</term><term>Lett</term><term>Level structure</term><term>Linbo3</term><term>Linewidth</term><term>Linewidths</term><term>Long distances</term><term>Longdell</term><term>Longitudinal</term><term>Lumin</term><term>Lund university</term><term>Macfarlane</term><term>Moiseev</term><term>Nature physics</term><term>Node</term><term>Online</term><term>Online color</term><term>Optical depth</term><term>Optical pulses</term><term>Optical storage</term><term>Optical transition</term><term>Optical transitions</term><term>Optics</term><term>Particular interest</term><term>Phase coherence</term><term>Phase shift</term><term>Photon</term><term>Photonic</term><term>Phys</term><term>Probability amplitude</term><term>Protocol</term><term>Pulse</term><term>Quantum</term><term>Quantum channel</term><term>Quantum communication</term><term>Quantum cryptography</term><term>Quantum information</term><term>Quantum memories</term><term>Quantum memory</term><term>Quantum memory protocol</term><term>Quantum repeater</term><term>Quantum repeaters</term><term>Quantum state</term><term>Quantum state storage</term><term>Quantum states</term><term>Qubit</term><term>Qubits</term><term>Rare earth</term><term>Recent review</term><term>Repeater</term><term>Riedmatten</term><term>Second pulse</term><term>Sect</term><term>Sellars</term><term>Single photons</term><term>Single qubit</term><term>Sio5</term><term>Solid state systems</term><term>Solid state systems figure</term><term>Spectral diffusion</term><term>Spectral hole</term><term>Staudt</term><term>Storage process</term><term>Storage time</term><term>Superposition</term><term>Teleportation</term><term>Thiel</term><term>Tittel</term><term>Ttger</term><term>Verlag</term><term>Verlag gmbh</term><term>Weinheim</term><term>Zbinden</term><term>Zhang</term></keywords><keywords scheme="Teeft" xml:lang="en"><term>Absorber</term><term>Absorption line</term><term>Adjacent nodes</term><term>Afzelius</term><term>Atomic coherence</term><term>Atomic ensembles</term><term>Atomic medium</term><term>Bozeman</term><term>Cambridge university press</term><term>Chaneli</term><term>Cirac</term><term>Coherence</term><term>Coherence times</term><term>Coherent superposition</term><term>Crib</term><term>Cryptography</term><term>Data pulse</term><term>Data pulses</term><term>Data sequence</term><term>Data storage</term><term>Decoherence</term><term>Delity</term><term>Dipole moments</term><term>Doped</term><term>Doped crystals</term><term>Doped solids</term><term>Eld</term><term>Entangled</term><term>Entangled photon pairs</term><term>Entanglement</term><term>Entangling</term><term>Entangling operation</term><term>Envelope functions</term><term>Equall</term><term>Gisin</term><term>Gmbh</term><term>Ground state</term><term>Historical development</term><term>Homogeneous linewidth</term><term>Host material</term><term>Inhomogeneous</term><term>Inhomogeneously</term><term>Input pulse</term><term>Input state</term><term>January</term><term>John wiley sons</term><term>Kgaa</term><term>Lambda systems</term><term>Laser</term><term>Laser photon</term><term>Lett</term><term>Level structure</term><term>Linbo3</term><term>Linewidth</term><term>Linewidths</term><term>Long distances</term><term>Longdell</term><term>Longitudinal</term><term>Lumin</term><term>Lund university</term><term>Macfarlane</term><term>Moiseev</term><term>Nature physics</term><term>Node</term><term>Online</term><term>Online color</term><term>Optical depth</term><term>Optical pulses</term><term>Optical storage</term><term>Optical transition</term><term>Optical transitions</term><term>Optics</term><term>Particular interest</term><term>Phase coherence</term><term>Phase shift</term><term>Photon</term><term>Photonic</term><term>Phys</term><term>Probability amplitude</term><term>Protocol</term><term>Pulse</term><term>Quantum</term><term>Quantum channel</term><term>Quantum communication</term><term>Quantum cryptography</term><term>Quantum information</term><term>Quantum memories</term><term>Quantum memory</term><term>Quantum memory protocol</term><term>Quantum repeater</term><term>Quantum repeaters</term><term>Quantum state</term><term>Quantum state storage</term><term>Quantum states</term><term>Qubit</term><term>Qubits</term><term>Rare earth</term><term>Recent review</term><term>Repeater</term><term>Riedmatten</term><term>Second pulse</term><term>Sect</term><term>Sellars</term><term>Single photons</term><term>Single qubit</term><term>Sio5</term><term>Solid state systems</term><term>Solid state systems figure</term><term>Spectral diffusion</term><term>Spectral hole</term><term>Staudt</term><term>Storage process</term><term>Storage time</term><term>Superposition</term><term>Teleportation</term><term>Thiel</term><term>Tittel</term><term>Ttger</term><term>Verlag</term><term>Verlag gmbh</term><term>Weinheim</term><term>Zbinden</term><term>Zhang</term></keywords></textClass></profileDesc></teiHeader><front><div type="abstract" xml:lang="en">Many applications of quantum communication crucially depend on reversible transfer of quantum states between light and matter. Motivated by rapid recent developments in theory and experiment, we review research related to quantum memory based on a photon‐echo approach in solid state material with emphasis on use in a quantum repeater. After introducing quantum communication, the quantum repeater concept, and properties of a quantum memory required to be useful in a quantum repeater, we describe the historical development from spin echoes, discovered in 1950, to photon‐echo quantum memory. We present a simple theoretical description of the ideal protocol, and comment on the impact of a non‐ideal realization on its quantum nature. We extensively discuss rare‐earth‐ion doped crystals and glasses as material candidates, elaborate on traditional photon‐echo experiments as a test‐bed for quantum state storage, and describe the current state‐of‐the‐art of photon‐echo quantum memory. 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Tittel</name><affiliations><json:string>E-mail: wtittel@qis.ucalgary.ca</json:string></affiliations></json:item><json:item><name>M. Afzelius</name><affiliations><json:string>Group of Applied Physics, University of Geneva, Switzerland</json:string></affiliations></json:item><json:item><name>T. Chaneliére</name><affiliations><json:string>Laboratoire Aimé Cotton, CNRS‐UPR 3321, Orsay, France</json:string></affiliations></json:item><json:item><name>R.L. Cone</name><affiliations><json:string>Department of Physics, Montana State University, Bozeman, USA</json:string></affiliations></json:item><json:item><name>S. Kröll</name><affiliations><json:string>Department of Physics, Lund University, Sweden</json:string></affiliations></json:item><json:item><name>S.A. Moiseev</name><affiliations><json:string>Institute for Quantum Information Science & Department of Physics and Astronomy, University of Calgary, Canada</json:string><json:string>Kazan Physical‐Technical Institute of the Russian Academy of Sciences, Russia</json:string></affiliations></json:item><json:item><name>M. Sellars</name><affiliations><json:string>Laser Physics Centre, Australian National University, Canberra, Australia</json:string></affiliations></json:item></author><subject><json:item><lang><json:string>eng</json:string></lang><value>Quantum memory</value></json:item><json:item><lang><json:string>eng</json:string></lang><value>quantum repeater</value></json:item><json:item><lang><json:string>eng</json:string></lang><value>quantum communication</value></json:item><json:item><lang><json:string>eng</json:string></lang><value>photon‐echo</value></json:item><json:item><lang><json:string>eng</json:string></lang><value>rare‐earth‐ions.</value></json:item></subject><articleId><json:string>LPOR200810056</json:string></articleId><language><json:string>eng</json:string></language><originalGenre><json:string>article</json:string></originalGenre><abstract>Many applications of quantum communication crucially depend on reversible transfer of quantum states between light and matter. Motivated by rapid recent developments in theory and experiment, we review research related to quantum memory based on a photon‐echo approach in solid state material with emphasis on use in a quantum repeater. After introducing quantum communication, the quantum repeater concept, and properties of a quantum memory required to be useful in a quantum repeater, we describe the historical development from spin echoes, discovered in 1950, to photon‐echo quantum memory. We present a simple theoretical description of the ideal protocol, and comment on the impact of a non‐ideal realization on its quantum nature. We extensively discuss rare‐earth‐ion doped crystals and glasses as material candidates, elaborate on traditional photon‐echo experiments as a test‐bed for quantum state storage, and describe the current state‐of‐the‐art of photon‐echo quantum memory. 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KGaA, Weinheim</licence></availability><date type="published" when="2010-02-20"></date></publicationStmt><notesStmt><note type="content-type" subtype="article" source="article" scheme="https://content-type.data.istex.fr/ark:/67375/XTP-6N5SZHKN-D">article</note><note type="publication-type" subtype="journal" scheme="https://publication-type.data.istex.fr/ark:/67375/JMC-0GLKJH51-B">journal</note></notesStmt><sourceDesc><biblStruct type="article"><analytic><title level="a" type="main" xml:lang="en">Photon‐echo quantum memory in solid state systems</title><author xml:id="author-0000"><persName><forename type="first">W.</forename><surname>Tittel</surname></persName><email>wtittel@qis.ucalgary.ca</email></author><author xml:id="author-0001"><persName><forename type="first">M.</forename><surname>Afzelius</surname></persName><affiliation>Group of Applied Physics, University of Geneva, Switzerland<address><country key="CH"></country></address></affiliation></author><author xml:id="author-0002"><persName><forename type="first">T.</forename><surname>Chaneliére</surname></persName><affiliation>Laboratoire Aimé Cotton, CNRS‐UPR 3321, Orsay, France<address><country key="FR"></country></address></affiliation></author><author xml:id="author-0003"><persName><forename type="first">R.L.</forename><surname>Cone</surname></persName><affiliation>Department of Physics, Montana State University, Bozeman, USA<address><country key="US"></country></address></affiliation></author><author xml:id="author-0004"><persName><forename type="first">S.</forename><surname>Kröll</surname></persName><affiliation>Department of Physics, Lund University, Sweden<address><country key="SE"></country></address></affiliation></author><author xml:id="author-0005"><persName><forename type="first">S.A.</forename><surname>Moiseev</surname></persName><affiliation>Institute for Quantum Information Science & Department of Physics and Astronomy, University of Calgary, Canada<address><country key="CA"></country></address></affiliation><affiliation>Kazan Physical‐Technical Institute of the Russian Academy of Sciences, Russia<address><country key="RU"></country></address></affiliation></author><author xml:id="author-0006"><persName><forename type="first">M.</forename><surname>Sellars</surname></persName><affiliation>Laser Physics Centre, Australian National University, Canberra, Australia<address><country key="AU"></country></address></affiliation></author><idno type="istex">BBBAD35DDB2D39DA5DBC4B940A15C0949E1F0F39</idno><idno type="ark">ark:/67375/WNG-F54L6WM6-N</idno><idno type="DOI">10.1002/lpor.200810056</idno><idno type="unit">LPOR200810056</idno><idno type="toTypesetVersion">file:LPOR.LPOR200810056.pdf</idno></analytic><monogr><title level="j" type="main">Laser & Photonics Reviews</title><title level="j" type="alt">LASER PHOTONICS REVIEWS</title><idno type="pISSN">1863-8880</idno><idno type="eISSN">1863-8899</idno><idno type="book-DOI">10.1002/(ISSN)1863-8899</idno><idno type="book-part-DOI">10.1002/lpor.v4:2</idno><idno type="product">LPOR</idno><imprint><biblScope unit="vol">4</biblScope><biblScope unit="issue">2</biblScope><biblScope unit="page" from="244">244</biblScope><biblScope unit="page" to="267">267</biblScope><biblScope unit="page-count">24</biblScope><publisher>WILEY‐VCH Verlag</publisher><pubPlace>Berlin</pubPlace><date type="published" when="2010-02-20"></date></imprint></monogr></biblStruct></sourceDesc></fileDesc><profileDesc><abstract xml:lang="en" style="main"><head>Abstract</head><p>Many applications of quantum communication crucially depend on reversible transfer of quantum states between light and matter. Motivated by rapid recent developments in theory and experiment, we review research related to quantum memory based on a photon‐echo approach in solid state material with emphasis on use in a quantum repeater. After introducing quantum communication, the quantum repeater concept, and properties of a quantum memory required to be useful in a quantum repeater, we describe the historical development from spin echoes, discovered in 1950, to photon‐echo quantum memory. We present a simple theoretical description of the ideal protocol, and comment on the impact of a non‐ideal realization on its quantum nature. We extensively discuss rare‐earth‐ion doped crystals and glasses as material candidates, elaborate on traditional photon‐echo experiments as a test‐bed for quantum state storage, and describe the current state‐of‐the‐art of photon‐echo quantum memory. 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Motivated by rapid recent developments in theory and experiment, we review research related to quantum memory based on a photon‐echo approach in solid state material with emphasis on use in a quantum repeater. After introducing quantum communication, the quantum repeater concept, and properties of a quantum memory required to be useful in a quantum repeater, we describe the historical development from spin echoes, discovered in 1950, to photon‐echo quantum memory. We present a simple theoretical description of the ideal protocol, and comment on the impact of a non‐ideal realization on its quantum nature. We extensively discuss rare‐earth‐ion doped crystals and glasses as material candidates, elaborate on traditional photon‐echo experiments as a test‐bed for quantum state storage, and describe the current state‐of‐the‐art of photon‐echo quantum memory. Finally, we give a brief outlook on current research.</abstract><abstract type="graphical" lang="en">Many applications of quantum communication crucially depend on reversible transfer of quantum states between light and matter. Motivated by rapid recent developments in theory and experiment, this article reviews research related to quantum memory based on a photon‐echo approach in solid state material with emphasis on use in a quantum repeater. After introducing quantum communication, the quantum repeater concept, and properties of a quantum memory required to be useful in a quantum repeater, the historical development from spin echoes, discovered in 1950, to photon‐echo quantum memory is described. Rare‐earth‐ion doped crystals and glasses are discussed as material candidates as well as traditional photon‐echo experiments as a test‐bed for quantum state storage.</abstract><note type="funding">Natural Sciences and Engineering Research Council of Canada (NSERC) - No. General Dynamics Canada; </note><note type="funding">Alberta's Informatics Circle of Research Excellence (iCORE)</note><note type="funding">Swiss NCCR Quantum Photonics</note><note type="funding">European Commission - No. QAP; </note><note type="funding">U. S. Air Force Research Laboratory (US Air Force Office of Scientific Research)</note><note type="funding">U. S. 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