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/lp/springer-journals/material-science-for-quantum-computing-with-atom-chips-0n0JSb3fRl
- Publisher
- Springer Journals
- Copyright
- Copyright © 2011 by Springer Science+Business Media, LLC
- Subject
- Physics; Quantum Physics; Computer Science, general; Mathematics, general; Theoretical, Mathematical and Computational Physics; Physics, general
- ISSN
- 1570-0755
- eISSN
- 1573-1332
- D.O.I.
- 10.1007/s11128-011-0311-5
- Publisher site
- See Article on Publisher Site
Abstract
In its most general form, the atom chip is a device in which neutral or charged particles are positioned in an isolating environment such as vacuum (or even a carbon solid state lattice) near the chip surface. The chip may then be used to interact in a highly controlled manner with the quantum state. I outline the importance of material science to quantum computing (QC) with atom chips, where the latter may be utilized for many, if not all, suggested implementations of QC. Material science is important both for enhancing the control coupling to the quantum system for preparation and manipulation as well as measurement, and for suppressing the uncontrolled coupling giving rise to low fidelity through static and dynamic effects such as potential corrugations and noise. As a case study, atom chips for neutral ground state atoms are analyzed and it is shown that nanofabricated wires will allow for more than 104 gate operations when considering spin-flips and decoherence. The effects of fabrication imperfections and the Casimir–Polder force are also analyzed. In addition, alternative approaches to current-carrying wires are briefly described. Finally, an outlook of what materials and geometries may be required is presented, as well as an outline of directions for further study.
Journal
Quantum Information Processing – Springer Journals
Published: Oct 1, 2011
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References
-
Overhead and noise threshold of fault-tolerant quantum error correctionSteane, A.M.
-
Scalable quantum computing in the presence of large detected-error ratesKnill, E.
-
Controlling cold atoms using nanofabricated surfaces: atom chipsFolman, R.; Krüger, P.; Schmiedmayer, J.; Denschlag, J.; Henkel, C.
-
Microchip traps and Bose–Einstein condensationReichel, J.
-
Magnetic microtraps for ultracold atomsFortágh, J.; Zimmermann, C.
-
Noise from metallic surfaces: effects of charge diffusionHenkel, C.; Horovitz, B.
-
Electric field noise above surfaces: a model for heating-rate scaling law in ion trapsDubessy, R.; Coudreau, T.; Guidoni, L.
-
Fabrication and heating rate study of microscopic surface electrode ion trapsDaniilidis, N.; Narayanan, S.; Möller, S.A.; Clark, R.; Lee, T.E.; Leek, P.J.; Wallraff, A.; Schulz, St.; Schmidt-Kaler, F.; Häffner, H.
-
Superconducting microfabricated ion trapsWang, S.X.; Ge, Y.; Labaziewicz, J.; Dauler, E.; Berggren, K.; Chuang Isaac, L.
-
Trapping molecules on a chipMeek, S.A.; Conrad, H.; Meijer, G.
-
Coherent excitation of Rydberg atoms in thermal vapor microcellsKübler, H.; Shaffer, J.P.; Baluktsian, T.; Löw, R.; Pfau, T.
-
Thermal Casimir–Polder shifts in Rydberg atoms near metallic surfacesCrosse, J.A.; Ellingsen, S.A.; Clements, K.; Buhmann, S.Y.; Scheel, S.
-
Energy shifts of Rydberg atoms due to patch fields near metal surfacesCarter, J.D.; Martin, J.D.D.
-
Optimized magnetic lattices for ultracold atomic ensemblesSchmied, R.; Leibfried, D.; Spreeuw, R.J.C.; Whitlock, S.
-
Surface effects in magnetic microtrapsFortágh, J.; Ott, H.; Kraft, S.; Günther, A.; Zimmermann, C.
-
Spin coupling between cold atoms and the thermal fluctuations of a metal surfaceJones, M.P.A.; Vale, C.J.; Sahagun, D.; Hall, B.V.; Hinds, E.A.
-
Role of wire imperfections in micromagnetic traps for atomsEstève, J.; Aussibal, C.; Schumm, T.; Fig, C.; Maill, D.; Bouchoul, I.; Westbrook, C.I.; Aspect, A.
-
Bose–Einstein condensates: microscopic magnetic-field imagingWildermuth, S.; Hofferberth, S.; Lesanovsky, I.; Haller, E.; Andersson, L.M.; Groth, S.; Bar-Joseph, I.; Krüger, P.; Schmiedmayer, J.
-
Long-range order in electronic transport through disordered metal filmsAigner, S.; Della Pietra, L.; Japha, Y.; Entin-Wohlman, O.; David, T.; Salem, R.; Folman, R.; Schmiedmayer, J.
-
Measurement of the trapping lifetime close to a cold metallic surface on a cryogenic atom-chipEmmert, A.; Lupaşcu, A.; Nogues, G.; Brune, M.; Raimond, J.-M.; Haroche, S.
-
Reduction of magnetic noise in atom chips by material optimizationDikovsky, V.; Japha, Y.; Henkel, C.; Folman, R.
-
Roughness suppression via rapid current modulation on an atom chipTrebbia, J.-B.; Garrido Alzar, C.L.; Cornelussen, R.; Westbrook, C.I.; Bouchoule, I.
-
Trapping cold atoms near carbon nanotubes: thermal spin flips and Casimir–Polder potentialFermani, R.; Scheel, S.; Knight, P.L.
-
Model for organized current patterns in disordered conductorsJapha, Y.; Entin-Wohlman, O.; David, T.; Salem, R.; Aigner, S.; Schmiedmayer, J.; Folman, R.
-
Magnetic interactions of cold atoms with anisotropic conductorsDavid, T.; Japha, Y.; Dikovsky, V.; Salem, R.; Henkel, C.; Folman, R.
-
Atom chips with two-dimensional electron gases: theory of near-surface trapping and ultracold-atom microscopy of quantum electronic systemsSinuco-León, G.; Kaczmarek, B.; Krüger, P.; Fromhold, T.M.
-
Impact of the Casimir–Polder potential and Johnson noise on Bose–Einstein condensate stability near surfacesLin, Y.J.; Teper, I.; Chin, C.; Vuletić, V.
-
Measurement of the temperature dependence of the Casimir–Polder forceObrecht, J.M.; Wild, R.J.; Antezza, M.; Pitaevskii, L.P.; Stringari, S.; Cornell, E.A.
-
Direct measurement of the van der Waals interaction between an atom and its images in a micron-sized cavitySandoghdar, V.; Sukenik, C.I.; Hinds, E.A.
-
Measurement of the Casimir–Polder forceSukenik, C.I.; Boshier, M.G.; Cho, D.; Sandoghdar, V.; Hinds, E.A.
-
Atom interferometry measurement of the atom-surface van der Waals interactionLepoutre, S.; Lonij, V.P.A.; Jelassi, H.; Trénec, G.; Büchner, M.; Cronin, A.D.; Vigué, J.
-
Cold-atom scanning probe microscopyGierling, M.; Schneeweiss, P.; Visanescu, G.; Federsel, P.; Häffner, M.; Kern, D.P.; Judd, T.E.; Günther, A.; Fortágh, J.
-
An atomic trap based on evanescent light wavesOvchinnikov Yu, B.; Shulga, S.V.; Balykin, V.I.
-
Quantum wires and quantum dots for neutral atomsSchmiedmayer, J.
-
Microscopic electro-optical atom trap on an evanescent-wave mirrorShevchenko, A.; Lindvall, T.; Tittonen, I.; Kaivola, M.
-
Simultaneous optical trapping and detection of atoms by microdisk resonatorsRosenblit, M.; Japha, Y.; Horak, P.; Folman, R.
-
Combined static potentials for confinement of neutral speciesRicci, L.; Bassi, D.; Bertoldi, A.
-
Towards surface quantum optics with Bose–Einstein condensates in evanescent wavesBender, H.; Courteille, P.; Zimmermann, C.; Slama, S.
-
Two-dimensional quantum gas in a hybrid surface trapGillen, J.I.; Bakr, W.S.; Peng, A.; Unterwaditzer, P.; Fölling, S.; Greiner, M.
-
Trapping and manipulation of isolated atoms using nanoscale plasmonic structuresChang, D.E.; Thompson, J.D.; Park, H.; Vuletić, V.; Zibrov, A.S.; Zoller, P.; Lukin, M.D.
-
Trapped-atom interferometer in a magnetic microtrapHänsel, W.; Reichel, J.; Hommelhoff, P.; Hänsch, T.W.
-
Atom chip based fast production of Bose–Einstein condensateHorikoshi, M.; Nakagawa, K.
-
Nanowire atomchip traps for sub-micron atom-surface distancesSalem, R.; Japha, Y.; Chabé, J.; Hadad, B.; Keil, M.; Milton, K.A.; Folman, R.
-
Matter-wave interferometry in a double well on an atom chipSchumm, T.; Hofferberth, S.; Andersson, L.M.; Wildermuth, S.; Groth, S.; Bar-Joseph, I.; Schmiedmayer, J.; Krüger, P.
-
Matter-wave interferometry with phase fluctuating Bose–Einstein condensatesJo, G.B.; Choi, J.-H.; Christensen, C.A.; Lee, Y.R.; Pasquini, T.A.; Ketterle, W.; Pritchard, D.E.
-
Microwave potentials and optimal control for robust quantum gates on an atom chipTreutlein, P.; Hänsch, T.W.; Reichel, J.; Negretti, A.; Cirone, M.A.; Calarco, T.
-
Coherent manipulation of Bose–Einstein condensates with state-dependent microwave potentials on an atom chipBöhi, P.; Riedel, M.F.; Hoffrogge, J.; Reichel, J.; Hänsch, T.W.; Treutlein, P.
-
Atom chips: fabrication and thermal propertiesGroth, S.; Krueger, P.; Wildermuth, S.; Folman, R.; Fernholz, T.; Mahalu, D.; Bar-Joseph, I.; Schmiedmayer, J.
-
Disordered Bose–Einstein condensates in quasi-one-dimensional magnetic microtrapsWang, D.W.; Lukin, M.D.; Demler, E.
-
Cold atoms probe the magnetic field near a wireJones, M.P.A.; Vale, C.J.; Sahagun, D.; Hall, B.V.; Eberlein, C.C.; Sauer, B.E.; Furusawa, K.; Richardson, D.; Hinds, E.A.
-
Effect of magnetization inhomogeneity on magnetic microtraps for atomsWhitlock, S.; Hall, B.V.; Roach, T.; Anderson, R.; Volk, M.; Hannaford, P.; Sidorov, A.I.
-
Potential roughness near lithographically fabricated atom chipsKrüger, P.; Andersson, L.M.; Wildermuth, S.; Hofferberth, S.; Haller, E.; Aigner, S.; Groth, S.; Bar-Joseph, I.; Schmiedmayer, J.
-
Heating of trapped atoms near thermal surfacesHenkel, C.; Wilkens, M.
-
Fundamental limits for coherent manipulation on atom chipsHenkel, C.; Krüger, P.; Folman, R.; Schmiedmayer, J.
-
Coherent transport of matter wavesHenkel, C.; Pötting, S.
-
Loss and heating of particles in small and noisy trapsHenkel, C.; Pötting, S.; Wilkens, M.
-
Spatial decoherence near metallic surfacesFermani, R.; Scheel, S.; Knight, P.L.
-
Magnetic noise around metallic microstructuresZhang, B.; Henkel, C.
-
Quantum Mechanics: Non-Relativistic TheoryLandau, L.D.; Lifshitz, E.M.
-
Optical Coherence and Quantum OpticsMandel, L.; Wolf, E.
-
Thermally induced losses in ultra-cold atoms magnetically trapped near room-temperature surfacesHarber, D.M.; McGuirk, J.M.; Obrecht, J.M.; Cornell, E.A.
-
Surface effects in magnetic microtrapsFortágh, J.; Ott, H.; Kraft, S.; Günther, A.; Zimmermann, C.
-
Relevance of sub-surface chip layers for the lifetime of magnetically trapped atomsZhang, B.; Henkel, C.; Haller, E.; Wildermuth, S.; Hofferberth, S.; Krüger, P.; Schmiedmayer, J.
-
Coherence in microchip trapsTreutlein, P.; Hommelhoff, P.; Steinmetz, T.; Hänsch, T.W.; Reichel, J.
-
Spin self-rephasing and very long coherence times in a trapped atomic ensembleDeutsch, C.; Ramirez-Martinez, F.; Lacroûte, C.; Reinhard, F.; Schneider, T.; Fuchs, J.N.; Piéchon, F.; Laloë, F.; Reichel, J.; Rosenbusch, P.
-
Enhanced and reduced atom number fluctuations in a BEC splitterMaussang, K.; Marti, G.E.; Schneider, T.; Treutlein, P.; Li, Y.; Sinatra, A.; Long, R.; Estéve, J.; Reichel, J.
-
A soluble model for quantum mechanical dissipationKampen, N.G.
-
Quantum computers and dissipationPalma, G.M.; Suominen, K.-A.; Ekert, A.K.
-
Scaling of decoherence effects in quantum computersDalton, B.J.
-
Limitation of entanglement due to spatial qubit separationDoll, R.; Wubs, M.; Hänggi, P.; Kohler, S.
-
Handbook on Physical and Technical Basis of CryogenicsMalkov, M.P.; Danilov, I.B.; Danilov, I.B.; Fradkov, A.B.
-
Principles of Statistical Radiophysics III: Elements of Random FieldsRytov, S.M.; Kravtsov, Y.A.; Tatarskii, V.I.
-
Trapping cold atoms using surface-grown carbon nanotubesPetrov, P.G.; Machluf, S.; Younis, S.; Macaluso, R.; David, T.; Hadad, B.; Japha, Y.; Keil, M.; Joselevich, E.; Folman, R.
-
Nanoscale atomic waveguides with suspended carbon nanotubesPeano, V.; Thorwart, M.; Kasper, A.; Egger, R.
-
Integrated atom detector based on field ionization near carbon nanotubesGrüner, B.; Jag, M.; Stibor, A.; Visanescu, G.; Häffner, M.; Kern, D.; Günther, A.; Fortágh, J.
-
Electro-optical nanotraps for neutral atomsMurphy, B.; Hau, L.V.
-
Bose Einstein condensation on a superconducting atom chipRoux, C.; Emmert, A.; Lupaşcu, A.; Nirrengarten, T.; Nogues, G.; Brune, M.; Raimond, J.-M.; Haroche, S.
-
Superconducting atom chips: advantages and challengesDikovsky, V.; Sokolovsky, V.; Zhang, B.; Henkel, C.; Folman, R.
-
Persistent supercurrent atom chipMukai, T.; Hufnagel, C.; Kasper, A.; Meno, T.; Tsukada, A.; Semba, K.; Shimizu, F.
-
Meissner effect in superconducting microtrapsCano, D.; Kasch, B.; Hattermann, H.; Kleiner, R.; Zimmermann, C.; Koelle, D.; Fortágh, J.
-
Cold atoms near superconductors: atomic spin coherence beyond the Johnson noise limitKasch, B.; Hattermann, H.; Cano, D.; Judd, T.E.; Scheel, S.; Zimmermann, C.; Kleiner, R.; Koelle, D.; Fortágh, J.
-
Design of magnetic traps for neutral atoms with vortices in type-II superconducting microstructuresZhang, B.; Fermani, R.; Müller, T.; Lim, M.J.; Dumke, R.
-
Trapping of ultra-cold atoms with the magnetic field of vortices in a thin-film superconducting micro-structureMüller, T.; Zhang, B.; Fermani, R.; Chan, K.S.; Wang, Z.W.; Zhang, C.B.; Lim, M.J.; Dumke, R.
-
Bose–Einstein condensation on a permanent-magnet atom chipSinclair, C.D.J.; Curtis, E.A.; Llorente Garcia, I.; Retter, J.A.; Hall, B.V.; Eriksson, S.; Sauer, B.E.; Hind, E.A.
-
Two-dimensional array of microtraps with atomic shift register on a chipWhitlock, S.; Gerritsma, R.; Fernholz, T.; Spreeuw, R.J.C.
-
Superfluid to Mott insulator quantum phase transition in a 2D permanent magnetic latticeGhanbari, S.; Blakie, P.B.; Hannaford, P.; Kieu, T.D.
-
Trapping and manipulating neutral atoms with electrostatic fieldsKrueger, P.; Luo, X.; Klein, M.W.; Brugger, K.; Haase, A.; Wildermuth, S.; Groth, S.; Bar-Joseph, I.; Folman, R.; Schmiedmayer, J.
-
Quantum wires and quantum dots for neutral atomsSchmiedmayer, J.
-
Microscopic electro-optical atom trap on an evanescent-wave mirrorShevchenko, A.; Lindvall, T.; Tittonen, I.; Kaivola, M.
-
Bose–Einstein condensates near a microfabricated surfaceLeanhardt, A.; Shin, Y.; Chikkatur, A.; Kielpinski, D.; Ketterle, W.; Pritchard, D.
-
Coupling between internal spin dynamics and external degrees of freedom in the presence of colored noiseMachluf, S.; Coslovsky, J.; Petrov, P.G.; Japha, Y.; Folman, R.
-
The influence of retardation on the London–van der Waals forcesCasimir, H.B.G.; Polder, D.
-
Decoherence of cold atomic gases in magnetic microtrapsSchroll, C.; Belzig, W.; Bruder, C.
-
Role of surface plasmons in the Casimir effectIntravaia, F.; Henkel, C.; Lambrecht, A.
-
Quantum levitation by laft-handed metamaterialsLeonhardt, U.; Philbin, T.G.
-
Measured long-range repulsive Casimir–Lifshitz forcesMunday, J.N.; Capasso, F.; Parsegian, V.A.
-
First-principles study of Casimir repulsion in metamaterialsYannopapas, V.; Vitanov, N.V.
-
Resonant Casimir–Polder forces in planar meta-materialsSambale, A.; Buhmann, S.Y.; Dung, H.T.; Welsch, D.G.
-
Direct measurement of repulsive van der Waals interactionsMilling, A.; Mulvaney, P.; Larson, I.
-
Repulsive van der Waals forces for silica and aluminaLee, S.; Sigmund, W.M.
-
Repulsive van der Waals forces in soft matter: why bubbles do not stick to wallsTabor, R.F.; Manica, R.; Chan, D.Y.C.; Grieser, F.; Dagastine, R.R.
-
Atomic spin decoherence near conducting and superconducting filmsScheel, S.; Rekdal, P.K.; Knight, P.L.; Hinds, E.A.
-
Magnetostatic field noise near metallic surfacesHenkel, C.
-
Optical properties of a metal film and its application as an infrared absorber and as a beam splitterBauer, S.
-
Thermal radiation and near-field energy density of thin metallic filmsBiehs, S.A.; Reddig, D.; Holthaus, M.
-
Thermal heat radiation, near-field energy density and near-field radiative heat transfer of coated materialsBiehs, S.A.
-
Measurement of the internal state of a single atom without energy exchangeVolz, J.; Gehr, R.; Dubois, G.; Estéve, J.; Reichel, J.
-
Optical interface created by laser-cooled atoms trapped in the evanescent field surrounding an optical nanofiberVetsch, E.; Reitz, D.; Sague’, G.; Schmidt, R.; Dawkins, S.T.; Rauschenbeutel, A.
-
Single-atom detection using whispering gallery modes of microdisk resonatorsRosenblit, M.; Horak, P.; Helsby, S.; Folman, R.
-
Simultaneous optical trapping and detection of atoms by microdisk resonatorsRosenblit, M.; Japha, Y.; Horak, P.; Folman, R.
-
An array of integrated atom-photon junctionsKohnen, M.; Succo, M.; Petrov, P.G.; Nyman, R.A.; Trupke, M.; Hinds, E.A.
-
Fabry-Pérot interferometer for atomsWilkens, M.; Goldstein, E.; Taylor, B.; Meystre, P.
-
Mimicking surface plasmons with structured surfacesPendry, J.B.; Martín-Moreno, L.; Garcia-Vidal, F.J.
-
Integrating cavity quantum electrodynamics and ultracold-atom chips with on-chip dielectric mirrors and temperature stabilizationPurdy, T.P.; Stamper-Kurn, D.M.
-
Theoretical analysis of a realistic atom-chip quantum gateCharron, E.; Cirone, M.A.; Negretti, A.; Schmiedmayer, J.; Calarco, T.
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