
1.School of Electrical & Computer Engineering and Birck Nanotechnology Center, Purdue University, West Lafayette, IN 47907, USA
2.Purdue Quantum Science and Engineering Institute, Purdue University, West Lafayette, IN 47907, USA
3.State Key Lab for Mesoscopic Physics and School of Physics, Peking University, Beijing, China
4.Frontiers Science Center for Nano-optoelectronics & Collaborative Innovation Center of Quantum Matter, Beijing, China
5.Department of Electronic Engineering and International Center for NanoOptoelectronics, Tsinghua University, 100084 Beijing, China
6.School of Electrical, Computer, and Energy Engineering, Arizona State University, Tempe, AZ 85287, USA
7.The Blackett Laboratory, Imperial College London, South Kensington, London SW7 2AZ, UK
8.Center for Nano-Optics (CeNO) and Department of Physics and Astronomy, Georgia State University, Atlanta, GA 30303, USA
9.Nanoscale Science and Engineering Center, University of California, Berkeley, Berkeley, CA 94720, USA
10.Faculties of Sciences and Engineering, University of Hong Kong, Hong Kong, China
Cun-Zheng Ning (cning@tsinghua.edu.cn)
Published:2020,
Published Online:25 May 2020,
Received:31 March 2020,
Revised:15 April 2020,
Accepted:17 April 2020
Scan QR Code
Azzam, S. I. et al. Ten years of spasers and plasmonic nanolasers. Light: Science & Applications, 9, 882-902 (2020).
Azzam, S. I. et al. Ten years of spasers and plasmonic nanolasers. Light: Science & Applications, 9, 882-902 (2020). DOI: 10.1038/s41377-020-0319-7.
Ten years ago
three teams experimentally demonstrated the first spasers
or plasmonic nanolasers
after the spaser concept was first proposed theoretically in 2003. An overview of the significant progress achieved over the last 10 years is presented here
together with the original context of and motivations for this research. After a general introduction
we first summarize the fundamental properties of spasers and discuss the major motivations that led to the first demonstrations of spasers and nanolasers. This is followed by an overview of crucial technological progress
including lasing threshold reduction
dynamic modulation
room-temperature operation
electrical injection
the control and improvement of spasers
the array operation of spasers
and selected applications of single-particle spasers. Research prospects are presented in relation to several directions of development
including further miniaturization
the relationship with Bose–Einstein condensation
novel spaser-based interconnects
and other features of spasers and plasmonic lasers that have yet to be realized or challenges that are still to be overcome.
Townes, C. H. inA Century of Nature: Twenty-One Discoveries that Changed Science and the World(eds Garwin, L.&Lincoln, T.) 107–112 (University of Chicago Press, Chicago, 2003).
Schawlow, A. L.&Townes, C. H. Infrared and optical masers.Phys. Rev.112, 1940–1949 (1958)..
Maiman, T. H. Stimulated optical radiation in ruby.Nature187, 493–494 (1960)..
Krausz, F.&Stockman,M. I. Attosecond metrology: from electron capture to future signal processing.Nat. Photonics8, 205–213 (2014)..
Krausz, F. The birth of attosecond physics and its coming of age.Phys. Scripta91, 63011 (2016)..
Hall, R. N. et al. Coherent light emission from GaAs junctions.Phys. Rev. Lett.9, 366–368 (1962)..
Popov, Y. M. On the history of the invention of the injection laser.Phys. Uspekhi47, 1068–1070 (2004)..
Ning, C. Z. Semiconductor nanolasers and the size-energy-efficiency challenge: a review.Adv. Photonics1, 014002 (2019)..
Hill, M. T.&Gather, M. C. Advances in small lasers.Nat. Photonics8, 908–918 (2014)..
Painter, O. et al. Two-dimensional photonic band-gap defect mode laser.Science284, 1819–1821 (1999)..
Ning, C. Z. Semiconductor nanolasers.Phys. Status Solidi247, 774–788 (2010)..
Huang, M. H. et al. Room-temperature ultraviolet nanowire nanolasers.Science292, 1897–1899 (2001)..
Duan, X. F. et al. Single-nanowire elecctrically driven lasers.Nature421, 241–245 (2003)..
Chin, A. H. et al. Near-infrared semiconductor subwavelength-wire lasers.Appl. Phys. Lett.88, 163115 (2006)..
Maslov, A. V.&Ning, C. Z. Far-field emission of a semiconductor nanowire laser.Opt. Letters29, 572–574 (2004)..
Eaton, S. W. et al. Semiconductor nanowire lasers.Nat. Rev. Mater.1, 16028 (2016)..
Kaminow, I. P., Mammel, W. L.&Weber, H. P. Metal-clad optical waveguides: analytical and experimental study.Appl. Opt.13, 396–405 (1974)..
Maier, S. A. et al. Local detection of electromagnetic energy transport below the diffraction limit in metal nanoparticle plasmon waveguides.Nat. Mater.2, 229–232 (2003)..
Kusunoki, F. et al. Propagation properties of guided waves in index-guided two-dimensional optical waveguides.Appl. Phys. Lett.86, 211101 (2005)..
Pile, D. F. P. et al. Two-dimensionally localized modes of a nanoscale gap plasmon waveguide.Appl. Phys. Lett.87, 261114 (2005)..
Dionne, J. A. et al. Plasmon slot waveguides: towards chip-scale propagation with subwavelength-scale localization.Phys. Rev. B73, 035407 (2006)..
Tanaka, K.&Tanaka, M. Simulations of nanometric optical circuits based on surface plasmon polariton gap waveguide.Appl. Phys. Lett.s82, 1158–1160 (2003)..
Zia, R. et al. Geometries and materials for subwavelength surface plasmon modes.J. Opt. Soc. Am. A21, 2442–2446 (2004)..
Nezhad, M. P., Tetz, K.&Fainman, Y. Gain assisted propagation of surface plasmon polaritons on planar metallic waveguides.Opt. Express12, 4072–4079 (2004)..
Noginov, M. A. et al. Enhancement of surface plasmons in an Ag aggregate by optical gain in a dielectric medium.Opt. Lett.31, 3022–3024 (2006)..
Maier, S. A. Gain-assisted propagation of electromagnetic energy in subwavelength surface plasmon polariton gap waveguides.Opt. Commun.258, 295–299 (2006)..
Hill, M. T. et al. Lasing in metallic-coated nanocavities.Nat. Photonics1, 589–594 (2007)..
Maslov, A. V.&Ning, C. Z. Size reduction of a semiconductor nanowire laser by using metal coating.Phys. Simul. Optoelectron. Devices XV6468, 64680I (2007)..
Manolatou, C.&Rana, F. Subwavelength nanopatch cavities for semiconductor plasmon lasers.IEEE J. Quant. Electron.44, 435–447 (2008)..
Oulton, R. F. et al. A hybrid plasmonic waveguide for subwavelength confinement and long-range propagation.Nat. Photonics2, 495–500 (2008)..
Huang, J. Q., Kim, S. H.&Scherer, A. Design of a surface-emitting, subwavelength metal-clad disk laser in the visible spectrum.Opt. Express18, 19581–19591 (2010)..
Perahia, R. et al. Surface-plasmon mode hybridization in subwavelength microdisk lasers.Appl. Phys. Lett.95, 201114 (2009)..
Bergman, D. J.&Stockman, M. I. Surface plasmon amplification by stimulated emission of radiation: quantum generation of coherent surface plasmons in nanosystems.Phys. Rev. Lett.90, 027402 (2003)..
Hill, M. T. et al. Lasing in metal-insulator-metal sub-wavelength plasmonic waveguides.Opt. Express17, 11107–11112 (2009)..
Oulton, R. F. et al. Plasmon lasers at deep subwavelength scale.Nature461, 629–632 (2009)..
Noginov, M. A. et al. Demonstration of a spaser-based nanolaser.Nature460, 1110–1112 (2009)..
Ma, R. M.&Oulton, R. F. Applications of nanolasers.Nat. Nanotechnol.14, 12–22 (2019)..
Galanzha, E. I. et al. Spaser as a biological probe.Nat. Commun.8, 15528 (2017)..
Gao, Z. S. et al. Spaser nanoparticles for ultranarrow bandwidth STED super-resolution imaging.Adv. Mater.32, 1907233 (2020)..
Ma, R. M. et al. Room-temperature sub-diffraction-limited plasmon laser by total internal reflection.Nat. Mater.10, 110–113 (2011)..
Ma, R. M. et al. Multiplexed and electrically modulated plasmon laser circuit.Nano Lett.12, 5396–5402 (2012)..
Ma, R. M. et al. Explosives detection in a lasing plasmon nanocavity.Nat. Nanotechnol.9, 600–604 (2014)..
Zhang, Q. et al. A room temperature low-threshold ultraviolet plasmonic nanolaser.Nat. Commun.5, 4953 (2014)..
Wang, S. et al. High-yield plasmonic nanolasers with superior stability for sensing in aqueous solution.ACS Photonics4, 1355–1360 (2017)..
Wu, Z. Y. et al. All-inorganic CsPbBr3nanowire based plasmonic lasers.Adv. Opt. Mater.6, 1800674 (2018)..
Lu, Y. J. et al. Plasmonic nanolaser using epitaxially grown silver film.Science337, 450–453 (2012)..
Lu, Y. J. et al. All-color plasmonic nanolasers with ultralow thresholds: autotuning mechanism for single-mode lasing.Nano Lett.14, 4381–4388 (2014)..
Gwo, S.&Shih, C. K. Semiconductor plasmonic nanolasers: current status and perspectives.Rep. Prog. Phys.79, 086501 (2016)..
Lee, C. J. et al. Low-threshold plasmonic lasers on a single-crystalline epitaxial silver platform at telecom wavelength.ACS Photonics4, 1431–1439 (2017)..
Kress, S. J. P. et al. A customizable class of colloidal-quantum-dot spasers and plasmonic amplifiers.Sci. Adv.3, e1700688 (2017)..
Keshmariz, E. K., Tait, R. N.&Berini, P. Single-mode surface plasmon distributed feedback lasers.Nanoscale10, 5914–5922 (2018)..
Huang, C. et al. Formation of lead halide perovskite based plasmonic nanolasers and nanolaser arrays by tailoring the substrate.ACS Nano12, 3865–3874 (2018)..
Zhu, W. Q. et al. Surface plasmon polariton laser based on a metallic trench Fabry-Perot resonator.Sci. Adv.3, e1700909 (2017)..
Suh, J. Y. et al. Plasmonic bowtie nanolaser arrays.Nano Lett.12, 5769–5774 (2012)..
Zhang, C. et al. Plasmonic lasing of nanocavity embedding in metallic nanoantenna array.Nano Lett.15, 1382–1387 (2015)..
Lu, C. Y. et al. Metal-cavity surface-emitting microlaser at room temperature.Applied Phys. Lett.96, 251101 (2010)..
Yu, K., Lakhani, A.&Wu, M. C. Subwavelength metal-optic semiconductor nanopatch lasers.Opt. Express18, 8790–8799 (2010)..
Wu, X. Q. et al. Hybrid photon-plasmon nanowire lasers.Nano Lett.13, 5654–5659 (2013)..
Nezhad, M. P. et al. Room-temperature subwavelength metallo-dielectric lasers.Nat. Photonics4, 395–399 (2010)..
Kwon, S. H. et al. Subwavelength plasmonic lasing from a semiconductor nanodisk with silver nanopan cavity.Nano Lett.10, 3679–3683 (2010)..
Shen, K. C. et al. Deep-ultraviolet hyperbolic metacavity laser.Adv. Mater.30, 1706918 (2018)..
Lakhani, A. M. et al. Plasmonic crystal defect nanolaser.Opt. Express19, 18237–18245 (2011)..
Marell, M. J. H. et al. Plasmonic distributed feedback lasers at telecommunications wavelengths.Opt. Express19, 15109–15118 (2011)..
Kim, M. K., Lakhani, A. M.&Wu, M. C. Efficient waveguide-coupling of metal-clad nanolaser cavities.Opt. Express19, 23504–23512 (2011)..
Khajavikhan, M. et al. Thresholdless nanoscale coaxial lasers.Nature482, 204–207 (2012)..
Ding, K. et al. Room-temperature continuous wave lasing in deep-subwavelength metallic cavities under electrical injection.Phys. Rev. B85, 041301 (2012)..
Gu, Q. et al. Amorphous Al2O3shield for thermal management in electrically pumped metallo-dielectric nanolasers.IEEE J. Quant. Electron.50, 499–509 (2014)..
Dolores-Calzadilla, V. et al. Waveguide-coupled nanopillar metal-cavity light-emitting diodes on silicon.Nat. Commun.8, 14323 (2017)..
Ding, K. et al. Modulation bandwidth and energy efficiency of metallic cavity semiconductor nanolasers with inclusion of noise effects.Laser Photonics Rev.9, 488–497 (2015)..
Ding, K.&Ning, C. Z. Metallic subwavelength-cavity semiconductor nanolasers.Light Sci. Appl.1, e20 (2012)..
Wang, X. Y. et al. Lasing enhanced surface plasmon resonance sensing.Nanophotonics6, 472–478 (2017)..
Cheng, P. J. et al. High-performance plasmonic nanolasers with a nanotrench defect cavity for sensing applications.ACS Photonics5, 2638–2644 (2018)..
Fan, X. D.&Yun, S. H. The potential of optofluidic biolasers.Nat. Methods11, 141–147 (2014)..
Zhou, W. et al. Lasing action in strongly coupled plasmonic nanocavity arrays.Nat. Nanotechnol.8, 506–511 (2013)..
Van Beijnum, F. et al. Surface plasmon lasing observed in metal hole arrays.Phys. Rev. Lett.110, 206802 (2013)..
Schokker, A. H.&Koenderink, A. F. Lasing in quasi-periodic and aperiodic plasmon lattices.Optica3, 686–693 (2016)..
Wang, D. Q. et al. Band-edge engineering for controlled multi-modal nanolasing in plasmonic superlattices.Nat. Nanotechnol.12, 889–894 (2017)..
Wang, D. Q. et al. Stretchable nanolasing from hybrid quadrupole plasmons.Nano Lett.18, 4549–4555 (2018)..
Lei, Z. Y. et al. Surface-emitting surface plasmon polariton laser in a second-order distributed feedback defect cavity.ACS Photonics6, 612–619 (2019)..
Ding, K.&Ning, C. Z. Fabrication challenges of electrical injection metallic cavity semiconductor nanolasers.Semicond. Sci. Technol.28, 124002 (2013)..
Kudyshev, Z. A. et al. Artificial-intelligence-assisted photonics (Conference Presentation). InProc. SPIE 11080, Metamaterials, Metadevices, and Metasystems 2019(SPIE, San Diego, California, 2019).
Stockman, M. I. The spaser as a nanoscale quantum generator and ultrafast amplifier.J. Opt.12, 024004 (2010)..
Stockman, M. I. Nanoplasmonics: past, present, and glimpse into future.Opt. Express19, 22029–22106 (2011)..
Haken, H.Laser Theory(Springer-Verlag, Berlin, 1983).
Sidiropoulos, T. P. H. et al. Ultrafast plasmonic nanowire lasers near the surface plasmon frequency.Nat. Phys.10, 870–876 (2014)..
Ning, C. Z. What is laser threshold?IEEE J. Select. Top. Quant. Electron.19, 1503604 (2013)..
Chow, W. W., Jahnke, F.&Gies, C. Emission properties of nanolasers during the transition to lasing.Light Sci. Appl.3, e201 (2014)..
Stevens, M. J. et al. High-order temporal coherences of chaotic and laser light.Opt. Express18, 1430–1437 (2010)..
Feynman, R. P. There's plenty of room at the bottom.Caltech Eng. Sci.23, 22–36 (1960)..
Novotny, L.&Stranick, S. J. Near-field optical microscopy and spectroscopy with pointed probes.Ann. Rev. Phys. Chem.57, 303–331 (2006)..
Johnson, T. W. et al. Highly reproducible near-field optical imaging with sub-20-nm resolution based on template-stripped gold pyramids.ACS Nano6, 9168–9174 (2012)..
Novotny, L.&Hecht, B.Principles of Nano-Optics(Cambridge University Press, Cambridge, 2012).
Stockman, M. I. Nanoplasmonic sensing and detection.Science348, 287–288 (2015)..
Stockman, M. I., Faleev, S. V.&Bergman, D. J. Localization versus delocalization of surface plasmons in nanosystems: can one state have both characteristics?Phys. Rev. Lett.87, 167401 (2001)..
Pauli, W. The connection between spin and statistics.Phys. Rev. J. Arch.58, 716–722 (1940)..
Stockman, M. I. Spasers explained.Nat. Photonics2, 327–329 (2008)..
Stockman, M. I.&Bergman, D. J. Surface plasmon amplification by stimulated emission of radiation (SPASER). US patent: US20040155184A1 (2009).
Stockman, M. I.&Bergman, D. J. Method for surface plasmon amplification by stimulated emission of radiation (SPASER). US patent: US8017406B2 (2011).
Stockman, M. Spasers to speed up CMOS processors. US patent: 10, 096, 675 (2018).
Brorson, S. D., Yokoyama, H.&Ippen, E. P. Spontaneous emission rate alteration in optical waveguide structures.IEEE J. Quant. Electron.26, 1492–1499 (1990)..
Yokoyama, H. et al. Controlling spontaneous emission and threshold-less laser oscillation with optical microcavities.Opt. Quant. Electron.24, S245–S272 (1992)..
Bjork, G.&Yamamoto, Y. Analysis of semiconductor microcavity lasers using rate equations.IEEE J. Quant. Electron.27, 2386–2396 (1991)..
Noda, S. Seeking the ultimate nanolaser.Science314, 260–261 (2006)..
Ma, R. M. Lasing under ultralow pumping.Nat. Mater.18, 1152–1153 (2019)..
Purcell, E. M. Spontaneous emission probabilities at radio frequencies.Phys. Rev.69, 681 (1946)..
Altug, H., Englund, D.&Vučković, J. Ultrafast photonic crystal nanocavity laser.Nat. Phys.2, 484–488 (2006)..
Lau, E. K. et al. Enhanced modulation bandwidth of nanocavity light emitting devices.Opt. Express17, 7790–7799 (2009)..
Ni, C. Y. A.&Chuang, S. L. Theory of high-speed nanolasers and nanoLEDs.Opt. Express20, 16450–16470 (2012)..
Pan, S. H. et al. Nanolasers: second-order intensity correlation, direct modulation and electromagnetic isolation in array architectures.Prog. Quant. Electron.59, 1–18 (2018)..
MacDonald, K. F. et al. Ultrafast active plasmonics.Nat. Photonics3, 55–58 (2009)..
Shore, K. A. Modulation bandwidth of metal-clad semiconductor nanolasers with cavity-enhanced spontaneous emission.Electron. Lett.46, 1688–1689 (2010)..
Suhr, T. et al. Modulation response of nanoLEDs and nanolasers exploiting Purcell enhanced spontaneous emission.Opt. Express18, 11230–11241 (2010)..
Aust, R. et al. Modulation response of nanolasers: what rate equation approaches miss.Opt. Quant. Electron.48, 109 (2016)..
Li, D. B.&Ning, C. Z. Peculiar features of confinement factors in a metal-semiconductor waveguide.Appl. Phys. Lett.96, 181109 (2010)..
Maslov, A. V.&Ning, C. Z. Modal gain in a semiconductor nanowire laser with anisotropic bandstructure.IEEE J. Quant. Electron.40, 1389–1397 (2004)..
Li, D. B.&Ning, C. Z. Giant modal gain, amplified surface plasmon-polariton propagation, and slowing down of energy velocity in a metal-semiconductor-metal structure.Phys. Rev. B80, 153304 (2009)..
Ho, J. et al. Low-threshold near-infrared GaAs-AlGaAs core-shell nanowire plasmon laser.ACS Photonics2, 165–171 (2015)..
Chou, Y. H. et al. High-operation-temperature plasmonic nanolasers on single-crystalline aluminum.Nano Lett.16, 3179–3186 (2016)..
Khurgin, J. B.&Sun, G. Comparative analysis of spasers, vertical-cavity surface-emitting lasers and surface-plasmon-emitting diodes.Nat. Photonics8, 468–473 (2014)..
Wang, S. et al. Unusual scaling laws for plasmonic nanolasers beyond the diffraction limit.Nat. Commun.8, 1889 (2017)..
Fernandez-Bravo, A. et al. Ultralow-threshold, continuous-wave upconverting lasing from subwavelength plasmons.Nat. Mater.18, 1172–1176 (2019)..
Ulrich, S. M. et al. Photon statistics of semiconductor microcavity lasers.Phys. Rev. Lett.98, 043906 (2007)..
Chow, W. W.&Reitzenstein, S. Quantum-optical influences in optoelectronics—an introduction.Appl. Phys. Rev.5, 041302 (2018)..
Ding, K. et al. An electrical injection metallic cavity nanolaser with azimuthal polarization.Appl. Phys. Lett.102, 041110 (2013)..
Ding, K. et al. Record performance of electrical injection sub-wavelength metallic-cavity semiconductor lasers at room temperature.Opt. Express21, 4728–4733 (2013)..
Li, D. B.&Ning, C. Z. Interplay of various loss mechanisms and ultimate size limit of a surface plasmon polariton semiconductor nanolaser.Opt. Express20, 16348–16357 (2012)..
Li, D.&Ning, C. Z. Electrical injection in longitudinal and coaxial heterostructure nanowires: A comparative study through a three-dimensional simulation.Nano Lett.8, 4234–4237 (2008)..
Hu, J. et al. Fringing field effects on electrical resistivity of semiconductor nanowire-metal contacts.Appl. Phys. Lett.92, 083503 (2008)..
Ding, K. et al. Electrical injection, continuous wave operation of subwavelength-metallic-cavity lasers at 260 K.Appl. Phys. Lett.98, 231108 (2011)..
Lee, J. H. et al. Electrically pumped sub-wavelength metallo-dielectric pedestal pillar lasers.Opt. Express19, 21524–21531 (2011)..
Wang, S., Chen, H. Z.&Ma, R. M. High performance plasmonic nanolasers with external quantum efficiency exceeding 10%.Nano Lett.18, 7942–7948 (2018)..
Chen, H. Z. et al. Imaging the dark emission of spasers.Sci. Adv.3, e1601962 (2017)..
Qi, B. K. et al. Parity-time symmetry synthetic lasers: physics and devices.Adv. Opt. Mater.7, 1900694 (2019)..
Chen, H. Z. et al. Revealing the missing dimension at an exceptional point.Nat. Phys.https://doi.org/10.1038/s41567-020-0807-yhttps://doi.org/10.1038/s41567-020-0807-y(2020)..
Wu, J. S., Apalkov, V.&Stockman, M. I. Topological spaser.Phys. Rev. Lett.124, 017701 (2020)..
Xie, Y. Y. et al. Metasurface-integrated vertical cavity surface-emitting lasers for programmable directional lasing emissions.Nat. Nanotechnol.15, 125–130 (2020)..
Shao, Z. K. et al. A high-performance topological bulk laser based on band-inversion-induced reflection.Nat. Nanotechnol.15, 67–72 (2020)..
Meng, X. G. et al. Unidirectional spaser in symmetry-broken plasmonic core-shell nanocavity.Sci. Rep.3, 1241 (2013)..
Meng, X. G. et al. Wavelength-tunable spasing in the visible.Nano Lett.13, 4106–4112 (2013)..
Song, P. et al. Three-level spaser for next-generation luminescent nanoprobe.Sci. Adv.4, eaat0292 (2018)..
Bordo, V. G. Cooperative effects in spherical spasers: Ab initio analytical model.Phys. Rev. B95, 235412 (2017)..
Shesterikov, A. V. et al. On the effect of dipole–dipole interactions on the quantum statistics of surface plasmons in multiparticle spaser systems.JETP Lett.107, 435–439 (2018)..
Petrosyan, L. S.&Shahbazyan, T. V. Spaser quenching by off-resonant plasmon modes.Phys. Rev. B96, 075423 (2017)..
Zheludev, N. I. et al. Lasing spaser.Nat. Photonics2, 351–354 (2008)..
Xiao, S. M. et al. Loss-free and active optical negative-index metamaterials.Nature466, 735–738 (2010)..
Meng, X. G. et al. Highly directional spaser array for the red wavelength region.Laser Photonics Rev.8, 896–903 (2014)..
Huang, Y. W. et al. Toroidal lasing spaser.Sci. Rep.3, 1237 (2013)..
Pourjamal, S. et al. Lasing in Ni nanodisk arrays.ACS Nano13, 5686–5692 (2019)..
Chandrasekar, R. et al. Lasing action with gold nanorod hyperbolic metamaterials.ACS Photonics4, 674–680 (2017)..
Yang, A. K. et al. Real-time tunable lasing from plasmonic nanocavity arrays.Nat. Commun.6, 6939 (2015)..
Ramezani, M. et al. Plasmon-exciton-polariton lasing.Optica4, 31–37 (2017)..
Hell, S. W.&Wichmann, J. Breaking the diffraction resolution limit by stimulated emission: stimulated-emission-depletion fluorescence microscopy.Opt. Lett.19, 780–782 (1994)..
Hell, S. W. Microscopy and its focal switch.Nat. Methods6, 24–32 (2009)..
Pustovit, V. N. et al. Coulomb and quenching effects in small nanoparticle-based spasers.Phys. Rev. B93, 165432 (2016)..
Li, X. F.&Yu, S. F. Design of low-threshold compact Au-nanoparticle lasers.Opt. Lett.35, 2535–2537 (2010)..
Baranov, D. G. et al. Exactly solvable toy model for surface plasmon amplification by stimulated emission of radiation.Optics Express21, 10779–10791 (2013)..
Arnold, N. et al. Spasers with retardation and gain saturation: electrodynamic description of fields and optical cross-sections.Opt. Mater. Express5, 2546–2577 (2015)..
Nagra, A. S.&York, R. A. FDTD analysis of wave propagation in nonlinear absorbing and gain media.IEEE Trans. Antennas Propag.46, 334–340 (1998)..
Chang, S. H.&Taflove, A. Finite-difference time-domain model of lasing action in a four-level two-electron atomic system.Opt. Express12, 3827–3833 (2004)..
Gongora, J. S. T. et al. Energy equipartition and unidirectional emission in a spaser nanolaser.Laser Photonics Rev.10, 432–440 (2016)..
Chua, S. L. et al. Modeling of threshold and dynamics behavior of organic nanostructured lasers.J. Mater. Chem. C2, 1463–1473 (2014)..
Pusch, A. et al. Coherent amplification and noise in gain-enhanced nanoplasmonic metamaterials: A maxwell-bloch langevin approach.ACS Nano6, 2420–2431 (2012)..
Kristanz, G. V. et al. Power balance and temperature in optically pumped spasers and nanolasers.ACS Photonics5, 3695–3703 (2018)..
Trivedi, D. J. et al. Model for describing plasmonic nanolasers using Maxwell-Liouville equations with finite-difference time-domain calculations.Phys. Rev. A96, 053825 (2017)..
Azzam, S. I. et al. Exploring time-resolved multiphysics of active plasmonic systems with experiment-based gain models.Laser Photonics Rev.13, 1800071 (2018)..
Ning, C. Z. inSelforganization in Complex Systems: the Past, Present, and Future of Synergetics(eds Wunner, G.&Pelster, A.) 109–128 (Springer, Cham, 2016).
Fan, F. et al. Fabrication and room temperature operation of semiconductor nano-ring lasers using a general applicable membrane transfer method.Appl. Phys. Lett.110, 171105 (2017)..
Li, D. B.&Ning, C. Z. All-semiconductor active plasmonic system in mid-infrared wavelengths.Opt. Express19, 14594–14603 (2011)..
Chikkaraddy, R. et al. Single-molecule strong coupling at room temperature in plasmonic nanocavities.Nature535, 127–130 (2016)..
Li, Y. Z. et al. Optical properties and light-emission device applications of 2-D Layered Semiconductors. InProc. IEEE1–28,https://doi.org/10.1109/JPROC.2019.2936424https://doi.org/10.1109/JPROC.2019.2936424(2019)..
Zheng, D. et al. Manipulating coherent plasmon-exciton interaction in a single silver nanorod on monolayer WSe2.Nano Lett.17, 3809–3814 (2017)..
Wang, Z. et al. Giant photoluminescence enhancement in tungsten-diselenide-gold plasmonic hybrid structures.Nat. Commun.7, 11283 (2016)..
Lee, B. et al. Fano resonance and spectrally modified photoluminescence enhancement in monolayer MoS2integrated with plasmonic nanoantenna array.Nano Lett.15, 3646–3653 (2015)..
Han, X. B. et al. Rabi splitting in a plasmonic nanocavity coupled to a WS2monolayer at room temperature.ACS Photonics5, 3970–3976 (2018)..
Chernikov, A. et al. Population inversion and giant bandgap renormalization in atomically thin WS2layers.Nat. Photonics9, 466–470 (2015)..
Wang, Z. et al. Excitonic complexes and optical gain in two-dimensional molybdenum ditelluride well below the Mott transition.Light Sci. Appl.9, 39 (2020)..
Wu, S. F. et al. Monolayer semiconductor nanocavity lasers with ultralow thresholds.Nature520, 69–72 (2015)..
Ye, Y. et al. Monolayer excitonic laser.Nat. Photonics9, 733–737 (2015)..
Li, Y. Z. et al. Room-temperature continuous-wave lasing from monolayer molybdenum ditelluride integrated with a silicon nanobeam cavity.Nat. Nanotechnol.12, 987–992 (2017)..
Kavokin, A. V. et al.Microcavities(Oxford University Press, Oxford, 2011).
Carusotto, I.&Ciuti, C. Quantum fluids of light.Rev. Mod. Phys.85, 299–366 (2013)..
Kasprzak, J. et al. Bose-Einstein condensation of exciton polaritons.Nature443, 409–414 (2006)..
Daskalakis, K. S. et al. Nonlinear interactions in an organic polariton condensate.Nat. Mater.13, 271–278 (2014)..
Plumhof, J. D. et al. Room-temperature Bose–Einstein condensation of cavity exciton-polaritons in a polymer.Nat. Mater.13, 247–252 (2014)..
Klaers, J. et al. Bose-Einstein condensation of photons in an optical microcavity.Nature468, 545–548 (2010)..
Klaers, J., Vewinger, F.&Weitz, M. Thermalization of a two-dimensional photonic gas in a 'white wall' photon box.Nat. Phys.6, 512–515 (2010)..
Marelic, J., Walker, B. T.&Nyman, R. A. Phase-space views into dye-microcavity thermalized and condensed photons.Phys. Rev. A94, 063812 (2016)..
Marelic, J. et al. Spatiotemporal coherence of non-equilibrium multimode photon condensates.N. J. Phys.18, 103012 (2016)..
Walker, B. T. et al. Driven-dissipative non-equilibrium Bose–Einstein condensation of less than ten photons.Nat. Phys.14, 1173–1177 (2018)..
Hakala, T. K. et al. Bose–Einstein condensation in a plasmonic lattice.Nat. Phys.14, 739–744 (2018)..
Nyman, R. A.&Walker, B. T. Bose–Einstein condensation of photons from the thermodynamic limit to small photon numbers.J. Mod. Opt.65, 754–766 (2018)..
Eggleston, M. S. et al. Optical antenna enhanced spontaneous emission.Proc. Natl Acad. Sci. USA112, 1704–1709 (2015)..
Li, D. B.&Stockman, M. I. Electric spaser in the extreme quantum limit.Phys. Rev. Lett.110, 106803 (2013)..
0
Views
0
Downloads
0
CSCD
Publicity Resources
Related Articles
Related Author
Related Institution
京公网安备11010802024621