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7 - Graphene Plasmonics

from Part I

Published online by Cambridge University Press:  22 June 2017

Phaedon Avouris
Affiliation:
IBM T. J. Watson Research Center, New York
Tony F. Heinz
Affiliation:
Stanford University, California
Tony Low
Affiliation:
University of Minnesota
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Chapter
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2D Materials
Properties and Devices
, pp. 104 - 140
Publisher: Cambridge University Press
Print publication year: 2017

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References

7.6 References

Fallahi, A and Perruisseau-Carrier, J. “Design of Tunable Biperiodic Graphene Metasurfaces,” Physical Review B 86, 19 (November 2012), 195408.Google Scholar
Marini, A, Silveiro, I, and García de Abajo, FJ. “Molecular Sensing with Tunable Graphene Plasmons,” ACS Photonics 2, 7 (June 2015), pp. 876–82.Google Scholar
Abedinpour, SH et al.Drude Weight, Plasmon Dispersion, and AC Conductivity in Doped Graphene Sheets,” Physical Review B 84, 4 (2011), 045429.CrossRefGoogle Scholar
Alonso-González, P et al. “Ultra-Confined Acoustic THz Graphene Plasmons Revealed by Photocurrent Nanoscopy,” Nature Nanotechnology arXiv:1601.05753 (2016).Google Scholar
Ashoori, RC, Stormer, HL, and Pfeifer, LN. “Edge Magnetoplasmons in the Time Domain,” Physical Review B 45, 7 (1992), pp. 58.Google Scholar
Barlas, Y et al.Chirality and Correlations in Graphene,” Physical Review Letters 98, 23 (2007), 236601.Google Scholar
Barnard, ES et al.Imaging the Hidden Modes of Ultrathin Plasmonic Strip Antennas by Cathodoluminescence,” Nano Letters 11, 10 (2011), pp. 4265–9.Google Scholar
Bohm, D. and Pines, D.. “A Collective Description of Electron Interactions: III. Coulomb Interactions in a Degenerate Electron Gas,” Physical Review 92, 3 (November 1953), pp. 609–25.Google Scholar
Bostwick, A et al.Observation of Plasmarons in Quasi-Freestanding Doped Graphene,” Science (New York, NY) 328, 5981 (May 2010), pp. 9991002.CrossRefGoogle ScholarPubMed
Brar, VW et al.Highly Confined Tunable Mid-Infrared Plasmonics in Graphene Nanoresonators,” Nano Letters 13, 6 (2013), pp. 2541–7.Google Scholar
Caldwell, JD et al.Sub-Diffractional Volume-Confined Polaritons in the Natural Hyperbolic Material Hexagonal Boron Nitride,” Nature Communications 5 (2014), 5221.CrossRefGoogle ScholarPubMed
Alzar, CG, Martinez, MA, and Nussenzveig, P. “Classical Analog of Electromagnetically Induced Transparency,” American Journal of Physics 70, 1 (January 2002), pp. 3741.Google Scholar
Chen, J et al.Optical Nano-Imaging of Gate-Tunable Graphene Plasmons,” Nature 487, 7405 (July 2012), pp. 7781.Google Scholar
Chen, J et al.Strong Plasmon Reaction at Nanometer-Size Gaps in Monolayer Graphene on SiC,” Nano Letters 13, 12 (2013), pp. 6210–15.Google Scholar
Christensen, J et al.Graphene Plasmon Waveguiding and Hybridization in Individual and Paired Nanoribbons,” ACS Nano 6 (2012), pp. 431–40.Google Scholar
Cox, JD and García de Abajo, FJ. “Electrically Tunable Nonlinear Plasmonics in Graphene Nanoislands,” Nature Communications 5 (2014).Google Scholar
Cox, JD and García de Abajo, FJ. “Extraordinary Nonlinear Plasmonics in Graphene Nanoislands,” Nature Communications 5 (2014) 5725.Google Scholar
Cox, JD and García de Abajo, FJ. “Plasmon-Enhanced Nonlinear Wave Mixing in Nanostructured Graphene,” ACS Photonics 2, 2 (2015), pp. 306–12.CrossRefGoogle Scholar
Crassee, I. “Intrinsic Terahertz Plasmons and Magnetoplasmons in Large Scale Monolayer Graphene,” Nano Letters 12 (2012), pp. 2470–4.Google Scholar
Rodrigo, D et al.Mid-Infrared Plasmonic Biosensing with Graphene,” Science 349, 6244 (July 2015), pp. 165–8.Google Scholar
Dai, S et al.Graphene on Hexagonal Boron Nitride as a Tunable Hyperbolic Metamaterial,” Nature Nanotechnology 10, 8 (2015), pp. 682–6.CrossRefGoogle ScholarPubMed
Dai, S et al.Tunable Phonon Polaritons in Atomically Thin van der Waals Crystals of Boron Nitride,” Science 343, 6175 (2014), pp. 1125–9.Google Scholar
Das, A et al.Monitoring Dopants by Raman Scattering in an Electrochemically Top-Gated Graphene Transistor,” Nature Nanotechnology 3, 4 (April 2008), pp. 210–15.Google Scholar
Farmer, DB et al.Ultrasensitive Plasmonic Detection of Molecules with Graphene,” ACS Photonics 3 (2016), pp. 553–7.Google Scholar
Dorfmuller, J et al.Fabry–Pérot Resonances in One-Dimensional Plasmonic Nanostructures,” Nano Letters 9, 6 (2009), pp. 2372–7.Google Scholar
Dubois, LH. “Oxygen Chemisorption and Cuprous Oxide Formation on Cu(111): A High Resolution EELS Study,” Surface Science 119, 2–3 (July 1982), pp. 399410.Google Scholar
Carrasco, E et al.Gate-Controlled Mid-Infrared Light Bending with Aperiodic Graphene Nanoribbons Array,” Nanotechnology 26, 13 (March 2015), 134002.Google Scholar
Efetov, DK and Kim, P. “Controlling Electron–Phonon Interactions in Graphene at Ultrahigh Carrier Densities,” Physical Review Letters 105, 25 (December 2010), 256805.Google Scholar
Fang, Z et al.Gated Tunability and Hybridization of Localized Plasmons in Nanostructured Graphene,” ACS Nano 7, 3 (March 2013), pp. 2388–95.Google Scholar
Fang, Z et al.Active Tunable Absorption Enhancement with Graphene Nanodisk Arrays,” Nano Letters 14, 1 (2013), pp. 299304.Google Scholar
Farmer, DB et al.Chemical Doping and Electron–Hole Conduction Asymmetry in Graphene Devices,” Nano Letters 9, 1 (2008), pp. 388–92.Google Scholar
Fei, Z. “Gate-Tuning of Graphene Plasmons Revealed by Infrared Nano-Imaging,” Nature 487 (2012), pp. 82–5.Google Scholar
Fei, Z et al.Electronic and Plasmonic Phenomena at Graphene Grain Boundaries,” Nature Nanotechnology 8, 11 (2013), pp. 821–5.Google Scholar
Fei, Z et al.Infrared Nanoscopy of Dirac Plasmons at the Graphene–SiO2 Interface,” Nano Letters 11, 11 (November 2011), pp. 4701–5.Google Scholar
Fei, Z et al.Edge Plasmons and Plane Plasmons in Graphene Nanoribbons,” Nano Letters 15 (2015), pp. 8271–6.Google Scholar
Fetter, AL. “Edge Magnetoplasmons in a Bounded Two-Dimensional Electron Fluid,” Physical Review B 32, 12 (1985), pp. 7676–84.Google Scholar
Fuchs, R and Kliewer, KL. “Optical Modes of Vibration in an Ionic Crystal Slab,” Physical Review 140,6A (1965), A2076.Google Scholar
Gan, X et al.Strong Enhancement of Light–Matter Interaction in Graphene Coupled to a Photonic Crystal Nanocavity,” Nano Letters 12, 11 (2012), pp. 5626–31.Google Scholar
Garcia-Pomar, JL et al.Scattering of Graphene Plasmons by Defects in the Graphene Sheet,” ACS Nano 7, 6 (2013), pp. 4988–94.CrossRefGoogle ScholarPubMed
Gell-Mann, M and Brueckner, KA. “Correlation Energy of an Electron Gas at High Density,” Physical Review 106, 2 (1957), p. 364.Google Scholar
Gierz, I et al.Atomic Hole Doping of Graphene,” Nano Letters 8, 12 (2008), pp. 4603–7.Google Scholar
Giuliani, G and Vignale, G. Quantum Theory of the Electron Liquid. Cambridge: Cambridge University Press, 2005.Google Scholar
Gu, T et al.Photonic and Plasmonic Guided Modes in Graphene–Silicon Photonic Crystals,” ACS Photonics 2, 11 (2015), pp. 1552–8.Google Scholar
Yan, H et al.Tunable Phonon-Induced Transparency in Bilayer Graphene Nanoribbons,” Nano Letters 14, 8 (July 2014), pp. 4581–6.Google Scholar
Hwang, EH and Das Sarma, S. “Dielectric Function, Screening, and Plasmons in Two-Dimensional Graphene,” Physical Review B 75, 20 (2007), p. 205418.Google Scholar
Hwang, EH, Sensarma, R, and Das Sarma, S. “Plasmon–Phonon Coupling in Graphene,” Physical Review B 82, 19 (November 2010), 195406.Google Scholar
Hwang, E and Das Sarma, S. “Quasiparticle Spectral Function in Doped Graphene: Electronelectron Interaction Effects in ARPES,” Physical Review B 77 (2008), pp. 25.Google Scholar
Jablan, M, Buljan, H, and Soljačić, M. “Plasmonics in Graphene at Infrared Frequencies,” Physical Review B 80, 24 (December 2009), 245435.Google Scholar
Jang, MS et al.Tunable Large Resonant Absorption in a Midinfrared Graphene Salisbury Screen,” Physical Review B 90, 16 (2014), 165409.Google Scholar
Ju, L et al.Graphene Plasmonics for Tunable Terahertz Metamaterials,” Nature Nanotechnology 6, 10 (2011), pp. 630–4.Google Scholar
Kawabata, A and Kubo, R. “Electronic Properties of Fine Metallic Particles. II. Plasma Resonance Absorption,” Journal of the Physical Society of Japan 21, 9 (September 1966), pp. 1765–72.Google Scholar
Khrapach, I et al.Novel Highly Conductive and Transparent Graphene-Based Conductors,” Advanced Materials 24 (2012), pp. 2844–9Google Scholar
Kloeckner, K. et al.Electron–Phonon–Plasmon Interaction in MBE-Grown Indium Nitride: A High Resolution Electron Energy Loss Spectroscopy (HREELS) Study,” Physica Status Solidi (C) 7, 2 (February 2010), pp. 173–6.Google Scholar
Koch, RJ, Seyller, T, and Schaefer, JA. “Strong Phonon–Plasmon Coupled Modes in the Graphene/Silicon Carbide Heterosystem,” Physical Review B 82, 20 (2010), 201413.Google Scholar
Koppens, FHL, Chang, DE, and García de Abajo, FJ. “Graphene Plasmonics: A Platform for Strong Light Matter Interactions,” Nano Letters (2011).Google Scholar
Kotov, VN et al.Electron–Electron Interactions in Graphene: Current Status and Perspectives,” Reviews of Modern Physics 84 (2012), pp. 1067–125.Google Scholar
Kreibig, U and Vollmer, M. Optical Properties of Metal Clusters. Berlin: Springer Verlag (1995).Google Scholar
Kuttge, M, García de Abajo, FJ, and Polman, A. “Ultrasmall Mode Volume Plasmonic Nanodisk Resonators,” Nano Letters 10, 5 (May 2010), pp. 1537–41.Google Scholar
Lafkioti, M et al.Graphene on a Hydrophobic Substrate: Doping Reduction and Hysteresis Suppression under Ambient Conditions,” Nano Letters 10, 4 (2010), pp. 1149–53.Google Scholar
Langer, T et al.Plasmon Damping Below the Landau Regime: The Role of Defects in Epitaxial Graphene,” New Journal of Physics 12, 3 (March 2010), 033017.Google Scholar
de Leon, NP et al.Tailoring Light–Matter Interaction with a Nanoscale Plasmon Resonator,” Physical Review Letters 108, 22 (May 2012), 226803.Google Scholar
Levitov, LS, Shtyk, AV, and Feigelman, MV. “Electron–Electron Interactions and Plasmon Dispersion in Graphene,” Physical Review B 8 (2013), 235403.Google Scholar
Liu, Yu et al.Plasmon Dispersion and Damping in Electrically Isolated Two-Dimensional Charge Sheets,” Physical Review B 78, 20 (November 2008), 201403.Google Scholar
Low, T et al.Novel Midinfrared Plasmonic Properties of Bilayer Graphene,” Physical Review Letters 112, 11 (July 2014), 116801.Google Scholar
Lukosz, W. “Principles and Sensitivities of Integrated Optical and Surface Plasmon Sensors for Direct A_Nity Sensing and Immunosensing,” Biosensors and Bioelectronics 6, 3 (December 1991), pp. 215–25.Google Scholar
Freitag, M et al.Photocurrent in Graphene Harnessed by Tunable Intrinsic Plasmons,” Nature Communications 4 (June 2013).Google Scholar
Manzoni, MT et al. “Second-Order Quantum Nonlinear Optical Processes in Graphene Nanostructures,” arXiv:1406.4360 (2014).Google Scholar
Mast, DB, Dahm, AJ, and Fetter, AL. “Observation of Bulk and Edge Magnetoplasmons in a Two-Dimensional Electron Liquid,” Physical Review Letters 54, 15 (1985), pp. 1706–9.Google Scholar
Mikhailov, SA. “Edge and Inter-Edge Magnetoplasmons in Two-Dimensional Electron Systems,” Edge Excitations of Low-Dimensional Charged Systems. Ed. by Kirichek, O. New York: Nova Science Publishers, Inc., 2000, pp. 147.Google Scholar
Mishchenko, EG et al.Guided Plasmons in Graphene pn Junctions,” Physical Review Letters 104, 15 (2010), p. 156806.Google Scholar
Nair, RR. “Fine Structure Constant Defines Visual Transparency of Graphene,” Science 320 (2008), 1308.Google Scholar
Ni, GX et al.Plasmons in Graphene Moire Superlattices,” Nature Materials 14 (2015), pp. 1217–22.CrossRefGoogle ScholarPubMed
Yu Nikitin, A et al.Fields Radiated by a Nanoemitter in a Graphene Sheet,” Physical Review B 84, 19 (2011), 195446.Google Scholar
Nikitin, A et al.Anomalous Reaction Phase of Graphene Plasmons and Its Influence on Resonators,” Physical Review B 90, 4 (2014), 041407.Google Scholar
Nikitin, A et al.Edge and Waveguide Terahertz Surface Plasmon Modes in Graphene Microribbons,” Physical Review B 84, 16 (2011), 161407.Google Scholar
Palik, ED. Handbook of Optical Constants of Solids. Amsterdam: Elsevier,1997.Google Scholar
Petković, I et al.Carrier Drift Velocity and Edge Magnetoplasmons in Graphene,” Physical Review Letters 110, 1 (January 2013), 016801.Google Scholar
Pfnur, H et al.Multiple Plasmon Excitations in Adsorbed Two-Dimensional Systems," Journal of Physics Condensed Matter 23, 11 (2011), 112204.Google Scholar
Pines, D and Nozières, P. The Theory of Quantum Liquids. Boston, MA: Addison-Wesley, 1990.Google Scholar
Piper, JR and Fan, S. “Total Absorption in a Graphene Monolayer in the Optical Regime by Critical Coupling with a Photonic Crystal Guided Resonance,” ACS Photonics 1, 4 (2014), pp. 347–53.Google Scholar
Polini, M et al. “Plasmons and the Spectral Function of Graphene,” Physical Review B 77 (2008), 81411.Google Scholar
Polini, M and Koppens, FHL. “Graphene: Plasmons in Moire Superlattices,” Nature Materials 14, 12 (2015), pp. 1187–8.Google Scholar
Polyakov, VM et al. “Investigation of the Space Charge Regime of Epitaxially Grown GaAs (100) by High-Resolution Electron Energy-Loss Spectroscopy,” Applied Surface Science (September 1996), pp. 24–34.Google Scholar
Principi, A, Polini, M, and Vignale, G. “Linear Response of Doped Graphene Sheets to Vector Potentials,” Physical Review B 80 (2009), 75418.Google Scholar
Principi, A et al.Impact of Disorder on Dirac Plasmon Losses,” Physical Review B 88, 12 (2013), 121405.Google Scholar
Principi, A et al.Intrinsic Lifetime of Dirac Plasmons in Graphene,” Physical Review B 88, 19 (2013), 195405.CrossRefGoogle Scholar
Principi, A et al.Plasmon Losses Due to Electron–Phonon Scattering: The Case of Graphene Encapsulated in Hexagonal Boron Nitride,” Physical Review B 90, 16 (2014), 165408.Google Scholar
Stauber, T, Gomez-Santos, G, and de Abajo, FJ García. “Extraordinary Absorption of Decorated Undoped Graphene,” Physical Review Letters 112 (2014), 077401.Google Scholar
Thongrattanasiri, S et al.Complete Optical Absorption in Periodically Patterned Graphene,” Physical Review Letters 108, 4 (January 2012), 047401.Google Scholar
Tielrooij, KJ et al.Electrical Control of Optical Emitter Relaxation Pathways Enabled by Graphene,” Nature Physics 11, 3 (2015), pp. 281–7.CrossRefGoogle Scholar
Tomadin, A et al.Accessing Phonon Polaritons in Hyperbolic Crystals by Angle-Resolved Photoemission Spectroscopy,” Physical Review Letters 115, 8 (2015), 087401.Google Scholar
Volkov, VA and Mikhailov, SA. “Edge Magnetoplasmons: Low-Frequency Weakly Damped Excitations in Inhomogeneous Two-Dimensional Electron Systems,” Soviet Physics – Journal of Experimental and Theoretical Physics 67 (1988), pp. 1639–53.Google Scholar
Volkov, V A et al.Edge Magnetoplasmons under Conditions of the Quantum Hall Effect,” JETP Letters 44 (1986), pp. 655–9.Google Scholar
Brar, VW et al.Electronic Modulation of Infrared Radiation in Graphene Plasmonic Resonators,” Nature Communications 6 (May 2015).Google Scholar
Walter, AL. “Effective Screening and the Plasmaron Bands in Graphene,” Physical Review B 84 (2011), 85410.Google Scholar
Wang, W et al.Edge Plasmons in Graphene Nanostructures,” Physical Review B 84, 8 (2011), 085423.Google Scholar
Woessner, A et al.Highly Confined Low-Loss Plasmons in Graphene–Boron Nitride Heterostructures,” Nature Materials 14 (2014), pp. 421–5.Google Scholar
Wunsch, B et al.Dynamical Polarization of Graphene at Finite Doping,” New Journal of Physics 8, 12 (2006), p. 318.Google Scholar
Li, Y et al.Graphene Plasmon Enhanced Vibrational Sensing of Surface-Adsorbed Layers,” Nano Letters 14, 3 (February 2014), pp. 1573–7.Google Scholar
Yan, H. “Tunable Infrared Plasmonic Devices Using Graphene/Insulator Stacks,” Nature Nanotechnology 7 (2012), pp. 330–4.Google Scholar
Yan, H. et al.Infrared Spectroscopy of Tunable Dirac Terahertz Magneto-Plasmons in Graphene,” Nano Letters 12, 7 (July 2012), pp. 3766–71.Google Scholar
Yan, H et al.Damping Pathways of Mid-Infrared Plasmons in Graphene Nanostructures,” Nature Photonics 7, 5 (2013), pp. 394399.Google Scholar
Ye, J et al.Accessing the Transport Properties of Graphene and Its Multilayers at High Carrier Density,” Proceedings of the National Academy of Sciences of the United States of America 108 (2011), pp. 13002–6.Google Scholar
Yeung, YM et al.Far-Infrared Graphene Plasmonic Crystals for Plasmonic Band Engineering,” Nano Letters 14, 5 (2014), pp. 2479–84.Google Scholar
Yu, N et al.Light Propagation with Phase Discontinuities: Generalized Laws of Reaction and Refraction,” Science 334, 6054 (October 2011), pp. 333–7.Google Scholar
Zhu, X et al.Experimental Observation of Plasmons in a Graphene Monolayer Resting on a Two Dimensional Subwavelength Silicon Grating,” Applied Physics Letters 102, 13 (2013), 131101.Google Scholar
Zhu, X et al.Plasmon–Phonon Coupling in Large-Area Graphene Dot and Antidot Arrays Fabricated by Nanosphere Lithography,” Nano Letters 14, 5 (2014), pp. 2907–13.Google Scholar
Nikitin, AY et al.Real-space mapping of tailored sheet and edge plasmons in graphene nanoresonators,” Nature Photonics 10, 4 (2016), pp. 239–43.Google Scholar

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