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  1. Enhancing surface sensitivity of nanostructure-based aluminum sensors using capped dielectric layers
    K.-L. Lee, P.-G. Tsai, M.-L. You, M.-Y. Pan, X. Shi, K. Ueno, H. Misawa, P.-K. Wei, ACS Omega, 2, 10, 7461-7470 (2017).

  2. Interplay of hot electrons from localized and propagating plasmons
    C. V. Hoang, K. Hayashi, Y. Ito, N. Gorai, G. Allison, X. Shi, Q. Sun, Z. Cheng, K. Ueno, K. Goda, .H. Misawa, Nat. Commun., 8: 771 (2017).

  3. Exploring the Near-Field of Strongly Coupled Waveguide-Plasmon Modes by Plasmon-Induced Photocurrent Generation Using a Gold Nanograting-Loaded Titanium Dioxide Photoelectrode
    J. Guo, K. Ueno, J. Yang, X. Shi, J, Li, Q. Sun, T. Oshikiri, H. Misawa, J. Phys. Chem. C, 121, 39, 21627-21633 (2017).

  4. Solid-State Plasmonic Solar Cells
    K. Ueno, T. Oshikiri, Q. Sun, X. Shi, H. Misawa, Chem. Rev., published on the web, DOI: 10.1021/acs.chemrev.7b00235.

  5. Optimization of a compact layer of TiO2 via atomiclayer deposition for high-performance perovskite solar cells
    A. E. Shalan, S. Narra, T. Oshikiri, K. Ueno, X. Shi, H.-P. Wu, M. M. Elshanawany, E. W.-G. Diau, H. Misawa, Sustainable Energy & Fuels, 1, 1533-1540 (2017).

  6. Spatial evolution of the near-field distribution on planar gold nanoparticles with the excitation wavelength across dipole and quadrupole modes
    J. Yang, Q. Sun, H. Yu, K. Ueno, H. Misawa, Q. Gong, Photon. Res., 5, 3, 187-193 (2017).

  7. Near-field spectral properties of coupled plasmonic nanoparticle arrays
    H. Yu, Q. Sun, J. Yang, K. Ueno, T. Oshikiri, A. Kubo, Y. Matsuo, Q. Gong, H. Misawa, Opt. Express, 25, 6, 6883-6894 (2017).

  8. Water splitting using a three-dimensional plasmonic photoanode with titanium dioxide nano-tunnels
    R. Takakura, T. Oshikiri, K. Ueno, X. Shi, T. Kondo, H. Masuda, H. Misawa, Green Chem., published on the web, DOI: 10.1039/c6gc03217f.

  9. Highly sensitive aluminum-based biosensors using tailorable Fano resonances in capped nanostructures
    K.-L. Lee, H.-Y. Hsu, M.-L. You, C.-C. Chang, M.-Y. Pan, X. Shi, K. Ueno, H. Misawa, P.-K. Wei, Sci. Rep., 7, 44104 (2017).

  10. Near-field spectroscopic properties of complementary gold nanostructures: applicability of Babinetfs principle in the optical region
    H. Mizobata, K. Ueno, H. Misawa, H. Okamoto, K. Imura, Opt. Express, 25, 5, 5279-5289 (2017).

  11. Plasmon-induced photoelectrochemical biosensor for in situ real-time measurement of biotin-streptavidin binding kinetics under visible light irradiation
    J. Guo, T. Oshikiri, K. Ueno, Xu Shi, H. Misawa, Anal. Chim. Acta., 957, 70-75 (2017).

  12. Versatile plasmonic-effects at the interface of inverted perovskite solar cells
    A. E. Shalan, T. Oshikiri, H. Sawayanagi, K. Nakamura, K. Ueno, Q. Sun, H.-P. Wu, E. W.-G. Diau, H. Misawa, Nanoscale, 9, 1229-1236 (2017).

  13. Cobalt Oxide (CoOx) as an Efficient Hole-extracting Layer for High-performance Inverted Planar Perovskite Solar Cells
    A. E. Shalan, T. Oshikiri, S. Narra, M. M. Elshanawany, K. Ueno, H.-P. Wu, K. Nakamura, X. Shi, E. W.-G. Diau, H. Misawa, ACS Appl. Mater. Interfaces, 8, 49, 33592-33600 (2016).

  14. Exploring coupled plasmonic nanostructures in the near field by photoemission electron microscopy
    H. Yu, Q. Sun, K. Ueno, T. Oshikiri, A. Kubo, Y. Matsuo, H. Misawa, ACS Nano, 10, 11, 10373-10381 (2016).

  15. Surface plasmon optical antennae in the infrared region with high resonant efficiency and frequency selectivity
    K. Ueno, Q. Sun, M. Mino, T. Itoh, T. Oshikiri, H. Misawa, Opt. Express, 24, 16, 17728-17737 (2016).

  16. Dual Strong Couplings Between TPPS J-Aggregates and Aluminum Plasmonic States
    J. Li, K. Ueno, H. Uehara, J. Guo, T. Oshikiri, H. Misawa, J. Phys. Chem. Lett., 7, 14, 2786-2791 (2016).

  17. Spectroscopic properties of gold curvilinear nanorod arrays
    Y. Yokota, K. Ueno, H. Misawa, T. Tanaka, Photonics, 3, 2, 18 (2016).

  18. Properties of Plasmon-Induced Photoelectric Conversion on a TiO2/NiO p-n Junction with Au Nanoparticles
    K. Nakamura, T. Oshikiri, K. Ueno, Y. Wang, Y. Kamata, Y. Kotake, H. Misawa, J. Phys. Chem. Lett., 7, 6, 1004-1009 (2016).

  19. Dissecting the few-femtosecond dephasing time of dipole and quadrupole modes in gold nanoparticles using polarized photoemission electron microscopy
    Q. Sun, H. Yu, K. Ueno, A. Kubo, Y. Matsuo, H. Misawa, ACS Nano, 10, 3, 3835-3842 (2016).

  20. Selective dinitrogen conversion to ammonia using water and visible light via plasmon-induced charge separation
    T. Oshikiri, K. Ueno, H. Misawa, Angew. Chem. Int. Ed., 55, 12, 3942-3946 (2016).

  21. Plasmon-induced water splitting using metallic nanoparticle-loaded photocatalysts and photoelectrodes
    K. Ueno, T. Oshikiri, H. Misawa, ChemPhysChem, 17, 2, 199-215 (2016).
    Selected as Cover Design

  22. Surface-enhanced terahertz spectroscopy using gold rod structures resonant with terahertz waves
    K. Ueno, S. Nozawa, H. Misawa, Opt. Express, 23, 22, 28584-28592 (2015).

  23. Plasmon-enhanced light energy conversion using gold nanostructured oxide semiconductor photoelectrodes
    K. Ueno, T. Oshikiri, K. Murakoshi, H. Inoue, H. Misawa, Pure Appl. Chem., 87, 6, 547-555 (2015).

  24. Co-catalyst Effects on Hydrogen Evolution in a Plasmon-induced Water-splitting System
    Y. Zhong, K. Ueno, Y. Mori, T. Oshikiri, H. Misawa, J. Phys. Chem. C, 119, 16, 8889-8897 (2015).

  25. Plasmon-induced artificial photosynthesis
    K. Ueno, T. Oshikiri, Y. Zhong, X. Shi, H. Misawa, Interface Focus, 5, 3, 20140082-1-9 (2015).

  26. Plasmon-enhanced water splitting utilizing the heterojunction synergistic effect between SrTiO3 and rutile-TiO2
    Y. Zhong, K. Ueno, Y. Mori, T. Oshikiri, H. Misawa, Chem. Lett., 44, 5, 618-620 (2015).

  27. Plasmon-induced ammonia synthesis through nitrogen photofixation with visible light irradiation
    T. Oshikiri, K. Ueno, H. Misawa, Angew. Chem. Int. Ed., 53, 37, 9802-9805 (2014).
    Selected as Hot Paper.
    Highlighted in Nature Nanotechnology, 9, 660 (2014).


  28. Plasmon-assisted water splitting using two sides of the same SrTiO3 single-crystal substrate: Conversion of visible light to chemical energy
    Y. Zhong, K. Ueno, Y. Mori, X. Shi, T. Oshikiri, K. Murakoshi, H. Inoue, H. Misawa, Angew. Chem. Int. Ed., 53, 39, 10350-10354 (2014).
    Selected as Hot Paper.

  29. Surface-enhanced Raman scattering of crystal violets from periodic array of gold nanocylinders
    G. Bi, L. Wang, C. Cai, K. Ueno, H. Misawa, J. Qiu, J. Modern Opt., 61, 15, 1231-1235 (2014).

  30. Surface-plasmon-mediated programmable optical nanofabrication of an oriented silver nanoplate
    B.-B. Xu, L. Wang, Z.-C. Ma, R. Zhang, Q. Chen, C. Lv, B. Han, X.-Z. Xiao, X.-L. Zhang, Y.-L. Zhang, K. Ueno, H. Misawa, H.-B. Sun, ACS Nano, 8, 7, 6682-6692 (2014).

  31. Robust and versatile light absorption at near infrared wavelengths by plasmonic aluminum nanorods
    O. Lecarme, Q. Sun, K. Ueno, H. Misawa, ACS Photonics, 1, 6, 538-546 (2014).

  32. Plasmon modes in single gold nanodiscs
    K. Imura, K. Ueno, H. Misawa, H. Okamoto, D. McArthur, B. Hourahine, F. Papoff, Opt. Express, 22, 10, 12189-12199 (2014).

  33. Photoelectrochemical Behavior of Self-assembled Ag/Co Plasmonic Nanostructures capped with TiO2
    A. Watanabe, Y. Kotake, Y. Kamata, A. Chikamatsu, K. Ueno, H. Misawa, T. Hasegawa, J. Phys. Chem. Lett., 5, 25-29 (2014).

  34. Improvement of plasmon-enhanced photocurrent generation by interference of TiO2 thin-film
    X. Shi, K. Ueno, T. Oshikiri, H. Misawa, J. Phys. Chem. C, 117, 24733-24739 (2013).

  35. Direct imaging of the near field and dynamics of surface plasmon resonance on gold nanostructures using photoemission electron microscopy
    Q. Sun, K. Ueno, H. Yu, A. Kubo, Y. Matsuo, H. Misawa, Light: Science & Applications, 2, e118 (2013).

  36. Plasmon-enhanced photocurrent generation and water oxidation from visible to near-infrared wavelengths
    K. Ueno, H. Misawa, NPG Asia Mater., 5, e61 (2013).

  37. Optical properties of gold nano-bowtie structures
    G. Bi, L. Wang, L. Ling, Y. Yokota, Y. Nishijima, K. Ueno, H. Misawa, J.-R. Qiu, Opt. Commun., 294, 213-217 (2013).

  38. Surface plasmon-enhanced photochemical reactions
    K. Ueno, H. Misawa, J. Photochem. Photobiol. C, 15, 31-52 (2013).

  39. Near Infrared Fluorescence Enhancement by Local Surface Plasmon Resonance from Arrayed Gold Nanoblocks
    F. Ito, R. Ohta, Y. Yokota, K. Ueno, H. Misawa, T. Nagamura, Optics and Photonics Journal, 3, 27-31 (2013).

  40. Spectral Properties and Electromagnetic Field Enhancement Effects on Nano-Engineered Metallic Nanoparticles
    K. Ueno, H. Misawa, Phys. Chem. Chem. Phys., 15, 4093-4099 (2013).

  41. Optical Field Imaging of Elongated Rectangular Nanovoids in Gold Thin Film
    K. Imura, K. Ueno, H. Misawa, H. Okamoto, J. Phys. Chem. C, 117, 6, 2449-2454 (2013).

  42. Single molecule dynamics at a mechanically controllable break junction in solution at room temperature
    T. Konishi, M. Kiguchi, M. Takase, F. Nagasawa, H. Nabika, K. Ikeda, K. Uosaki, K. Ueno, H. Misawa, K. Murakoshi, J. Am. Chem. Soc., 135, 3, 1009-1014 (2013).

  43. Plasmon-enhanced photocurrent generation and water oxidation with a gold nanoisland loaded titanium dioxide photoelectrode
    X. Shi, K. Ueno, N. Takabayashi, H. Misawa, J. Phys. Chem. C, 117, 6, 2494-2499 (2013).

  44. Surface plasmon-enhanced molecular fluorescence induced by gold nanostructures
    Y. Teng, K Ueno, X. Shi, D. Aoyo, J. Qiu, H. Misawa, Ann. der Physik, 524, 11, 733-740 (2012).

  45. Effect of dipole coupling on near-IR LSPR and coherent phonon vibration of periodic gold pair nanocuboids
    L. Wang, Y. Nishijima, K. Ueno, H. Misawa, N. Tamai, J. Phys. Chem. C, 116, 33, 17838-17846 (2012).

  46. Improving surface plasmon detection in gold nanostructures using a multi-polarization spectral integration method
    K.-L. Lee, M.-J. Chih, X. Shi, K. Ueno, H. Misawa, P.-K. Wei, Adv. Mater., 24, 35, 253-259 (2012).

  47. Photoluminescence enhancement induced from silver nanoparticles in Tb3+-doped glass ceramics
    G. Bi, L. Wang, W. Xiong, K. Ueno, H. Misawa, J.-R. Qiu, Chin. Opt. Lett., 10, 9, 092401 (2012).

  48. Fabrication of nano-engineered metallic structures and their application to non-linear photochemical reactions
    K. Ueno, H. Misawa, Bull. Chem. Soc. Jpn., 85, 8, 843-853 (2012).

  49. Enhancement of a two-photon-induced reaction in solution using light-harvesting gold nanodimer structures
    B. Wu, K. Ueno, Y. Yokota, K. Sun, H. Zeng, H. Misawa, J. Phys. Chem. Lett., 3, 1443-1447 (2012).

  50. Near-infrared plasmon-assisted water oxidation
    Y. Nishijima, K. Ueno, Y. Kotake, K. Murakoshi, H. Inoue, H. Misawa, J. Phys. Chem. Lett., 3, 1248-1252 (2012).

  51. Effect of the distance between adherent mesenchymal stem cell and the focus of irradiation of femtosecond laser on cell replication capacity
    J. Sakai, D. Roldan, K. Ueno, H. Misawa, Y. Hosokawa, T. Iino, S. Wakitani, M. Takagi, Cytotechnology, 64, 3, 323-329 (2012).

  52. Quantitative Measurement of the Near-Field Enhancement of Nanostructures by Two-Photon Polymerization
    T. Geldhauser, A. Kolloch, N. Murazawa, K. Ueno, J. Boneberg, P. Leiderer, E. Scheer, H. Misawa, Langmuir, 28, 24, 9041-9046 (2012).

  53. Fabrication of periodical structure and shape-induced modulating spectroscopy of Au nanoparticles
    G. Bi, W. Xiong, L. Wang, K. Ueno, H. Misawa, J.-r. Qiu, Opt. Commun., 285, 9, 2472-2477 (2012).

  54. In situ investigation of the shrinkage of photopolymerized micro/nanostructures: The effect of the drying process
    Q. Sun, K. Ueno, H. Misawa, Opt. Lett., 37, 4, 710-712 (2012).

  55. Plasmon-induced local photocurrent changes in GaAs photovoltaic cells modified with gold nanospheres: A near-field imaging study
    Y. Harada, K. Imura, H. Okamoto,Y. Nishijima, K. Ueno, H. Misawa, J. Appl. Phys., 110, 104306 (2011).

  56. A simultaneous space-sampling method for DNA fraction collection using a comb structure in microfluidic devices
    Z. Li, K. Sun, M. Sunayama, R. Araki, K. Ueno, M. Abe, H. Misawa, Electrophoresis, 32, 3392-3398 (2011).

  57. Real-time imaging of acoustic rectification
    S. Danworaphong, T. A. Kelf, O. Matsuda, M. Tomoda, Y. Tanaka, N. Nishiguchi, O. B. Wright, Y. Nishijima, K. Ueno, S. Juodkazis, and H. Misawa, Appl. Phys. Lett., 99, 201910 (2011).

  58. Fabrication of Au/Si nanocomposite surface structure using nanosecond pulsed laser irradiation
    Y. Yoshida, S. Watanabe, Y. Nishijima, K. Ueno, H. Misawa, T. Kato, Nanotechnology, 22, 375607-1-7 (2011).

  59. Spectral properties of nanoengineered Ag/Au bilayer rods fabricated by electron beam lithography
    L. Wang, W. Xiong, Y. Nishijima, Y. Yokota, K. Ueno, H. Misawa, J. R. Qiu, G. Bi, Appl. Opt., 50, 28, 5600-5605 (2011).

  60. Modifying Plasmonic Spectral Properties of Engineered Silver Nanoblocks by Using Titanium Coating
    L. Wang, W. Xiong, Y. Nishijima, Y. Yokota, K. Ueno, H. Misawa, G. Bi, J. Qiu, IEEE Photonic. Tech. L. 23, 17, 1216-1218 (2011).

  61. Protein Crystallization Induced by Strong Photons-molecules Coupling Fields Photochemical Reaction
    S. Haruta , H. Misawa , K. Ueno, Y. Yokota , H. Uehara , H. Hiratsuka, H. Horiuchi, T. Okutsu, J. Photochem. Photobiol. A: Chem., 221, 268-272 (2011).

  62. Plasmon coupling and coherent acoustic phonon dynamics of periodic gold pair nanocuboids by near-IR transient absorption spectroscopy
    L. Wang, Y. Nishijima, K. Ueno, H. Misawa, N. Tamai, J. Photochem. Photobiol. A: Chem., 221, 164-168 (2011).

  63. Photochemical reaction fields with Strong coupling between a photon and a molecule
    K. Ueno, H. Misawa, J. Photochem. Photobiol. A: Chem, 221, 130-137 (2011).

  64. Hybrid states dynamics of gold nanorods/dye J-aggregate under strong coupling
    Y.-W. Hao, H.-Y. Wang, Y. Jiang, Q.-D. Chen, K. Ueno, W.-Q. Wang, H. Misawa, H.-B. Sun, Angew. Chem. Int. Ed., 50, 34, 7824-7828 (2011).

  65. Homogeneous nano-patterning using plasmon assisted photolithography
    K. Ueno, S. Takabatake, K. Onishi, H. Itoh, Y. Nishijima, H. Misawa, Appl. Phys. Lett., 99, 1, 011107 (2011).

    Highlighted in Nature Photonics (News & Views). Nature Photonics, 5, 517 (2011).

    Selected in Virtual Journal of Nanoscale Science & Technology, 24, 3 (2011).

  66. Spatial polarization sensitivity of single Au bowtie nanostructures
    E. Wu, Y. Chi, B. Wu, K. Xia, Y. Yokota, K. Ueno, H. Misawa, H. Zeng, J. Lumin., 131, 9, 1971-1974 (2011).

  67. Spectral properties and mechanism of instability of nanoengineered silver blocks
    L. Wang, W. Xiong, Y. Nishijima, Y. Yokota, K. Ueno, H. Misawa, G. Bi, J.-r. Qiu, Opt. Express, 19, 11, 10640-10646 (2011).

  68. Direct imaging of nanogap-mode plasmon-resonant fields
    Y. Tanaka, H. Ishiguro, H. Fujiwara, Y. Yokota, K. Ueno, H. Misawa, K. Sasaki, Opt. Express, 19, 8, 7726-7733 (2011).

  69. Plasmonic antenna effects on photochemical reactions
    S. Gao, K. Ueno, H. Misawa, Accounts. Chem. Res., 44, 4, 251-260 (2011).

  70. Polarization Dependence for Enhancement of Near Infra-red Fluorescence Intensity by Local Surface Plasmon Resonance from Arranged Gold Nanoblocks
    F. Ito, R. Ohta, Y. Yokota, K. Ueno, H. Misawa, T. Nagamura, Mol. Cryst. Liq. Cryst., 538, 265-271 (2011).

  71. Essential Nanogap Effects on Surface-Enhanced Raman Scattering Signals from Closely Spaced Gold Nanoparticles
    Y. Yokota, K. Ueno, H. Misawa, Chem. Commun., 47, 3505-3507 (2011).

  72. Anomalous light transmission from plasmonic capped nano-aperture
    K. Imura, K. Ueno, H. Misawa, H. Okamoto, Nano Lett., 11, 3, 960-965 (2011).

  73. Femtosecond and picosecond near-field ablation of gold nanotriangles: Nanostructuring and Nanomelting
    A. Kolloch, T. Geldhauser, K. Ueno, H. Misawa, J. Boneberg, A. Plech, P. Leiderer, Appl. Phys. A, 104, 793-799 (2011).

  74. Visualization of optical near-field enhancements of gold triangles by nonlinear photopolymerization
    T. Geldhauser, S. Ikegaya, A. Kolloch, N. Murazawa, K. Ueno, J. Boneberg, P. Leiderer, E. Scheer, H. Misawa, Plasmonics, 6, 2, 207-212 (2011).

  75. On-chip fraction collection for multiple selected ssDNA fragments using isolated extraction channels
    Z. Li, K. Sun, M. Sunayama, Y. Matsuo, V. Mizeikis , R. Araki, K. Ueno, M. Abe, H. Misawa,
    J. Chromatogr. A, 1218, 7, 997-1003 (2011).

  76. Highly Controlled Surface-Enhanced Raman Scattering Analysis Chips Using Nano-Engineered Gold Blocks
    Y. Yokota, K. Ueno, H. Misawa, Small, 7, 2, 252-258 (2011).

  77. Pulse duration dependent nonlinear propagation of a focused femtosecond laser pulse in fused silica
    Q. Sun, H. Asahi, Y. Nishijima, N. Murazawa, K. Ueno, H. Misawa, Opt. Express, 18, 24495-24503 (2010).

  78. Near-Infrared Fluorescence Enhancement by Regularly Arranged Gold Nanoblocks
    F. Ito, R. Ohta, Y. Yokota, K. Ueno, H. Misawa, T. Nagamura, Chem. Lett., 39, 1218-1219 (2010).

  79. Plasmon-assisted photocurrent generation from visible to near-infrared wavelength using a Au-nanorods/TiO2 electrode
    Y. Nishijima, K. Ueno, Y. Yokota, K. Murakoshi, H. Misawa, J. Phys. Chem. Lett., 1, 13, 2031-2036 (2010).

    Selected in A Virtual Special Issue from JPCC (Plasmon Resonances - A Physical Chemistry Perspective), 1, 2 (2011).

  80. Influence of localized surface plasmon resonance on shape changes of nanostructures: Investigation using metal nanoblocks in halide solutions
    T. Tsuji, K. Ueno, Y. Yokota, M. Tsuji, H. Misawa, J. Photochem. Photobiol. A: Chem., 212, 20-26 (2010).

  81. Nano-Patterning of a TiO2-organic hybrid material assisted by localizaed surface plasmon
    H. Segawa, K. Ueno, Y. Yokota, H. Misawa, T. Yano, S. Shibata, J. Am. Ceram. Soc., 93, 6, 1634-1638 (2010).

  82. Nanogap-assisted surface plasmon nanolithography
    K. Ueno, S. Takabatake, Y. Nishijima, V. Mizeikis, Y. Yokota, H. Misawa,
    J. Phys. Chem. Lett., 1, 3, 657-662 (2010).

    Selected in A Virtual Special Issue from JPCC (Plasmon Resonances - A Physical Chemistry Perspective), 1, 2 (2011).

  83. Redox Cycling Effect on SERS Signal of Crystal Violet Molecules at Nanostructured Interdigitated Array Electrodes
    M. M Islam, K. Ueno, H. Misawa, Anal. Sci., 26, 1, 19-24 (2010).

  84. Development of Interdigitated Array Electrodes with Surface-enhanced Raman Scattering Functionality
    M. M. Islam, K. Ueno, S. Juodkazis, Y. Yokota, H. Misawa, Anal. Sci., 26, 1, 13-18 (2010).
    (Hot Article and Cover Design)

  85. High-fidelity fractionation of ssDNA fragments differing in size by one-base on a spiral-channel electrophoretic chip
    K. Sun, N. Suzuki, Z. Li, R. Araki, K. Ueno, S. Juodkazis, M. Abe, S. Noji, H. Misawa, Electrophoresis, 30, 24, 4277-4284 (2009).

  86. Vibrations of microspheres probed with ultrashort optical pulses
    T. Dehoux, T. A. Kelf, O. Matsuda, O. B. Wright, K. Ueno, Y. Nishijima, S. Juodkazis, H. Misawa, V. Tournat, V. E. Gusev, Opt. Lett. 34, 23, 3740-3742 (2009).

  87. Nano-textured metallic surfaces for optical sensing and detection applications
    Y. Yokota, K. Ueno, S. Juodkazis, V. Mizeikis, N. Murazawa, H. Misawa, H. Kasa, K. Kintaka, J. Nishii, J. Photochem. Photobio. A; Chem, 207, 126-134 (2009).

  88. Near-IR vibrational dynamics of periodic gold single and pair nanocuboids
    L. Wang, Y. Nishijima, K. Ueno, H. Misawa, N. Tamai, Appl. Phys. Lett., 95, 053116 (2009).

  89. Nanoparticle-enhanced photopolymerization
    K. Ueno, S. Juodkazis, T. Shibuya, V. Mizeikis, Y. Yokota, H. Misawa, J. Phys. Chem. C, 113, 27, 11720-11724 (2009).

  90. Lasing with well-defined cavity modes in dye-infiltrated silica inverse opals
    Y. Nishijima, K. Ueno, S. Juodkazis, V. Mizeikis, H. Fujiwara, K. Sasaki, H. Misawa, Opt. Express, 17(4), 2976-2983 (2009).

  91. Spatially selective non-linear photopolymerization induced by the near-field of surface plasmons localized on rectangular gold nanorods
    N. Murazawa, K. Ueno, V. Mizeikis, S. Juodkzis, H. Misawa, J. Phys. Chem. C, 113, 4, 1147-1149 (2009).

  92. Nano-scopic Molecular Filter using a Periodic Array of Metallic Nano-gates
    H. Nabika, N. Iijima, B. Takimoto, K. Ueno, H. Misawa, K. Murakoshi, Anal. Chem., 81, 2, 699-704 (2009).

  93. Tunable single-mode photonic lasing from zirconia inverse opal photonic crystals
    Y. Nishijima, K. Ueno, S. Juodkazis, V. Mizeikis, H. Misawa, M. Maeda, M. Minaki, Opt. Express, 16, 18, 13676 (2008).

  94. Electrophoretic chip for fractionation of selective DNA fragment
    K. Sun, N. Suzuki, Z. Li, R. Araki, K. Ueno, S. Juodkazis, M. Abe, S. Noji, H. Misawa, Electrophoresis, 29, 19, 3959-3963 (2008).

  95. Nano-structured materials in plasmonics and photonics
    K. Ueno, Y. Yokota, S. Juodkazis, V. Mizeikis, H. Misawa, Curr. Nanosci., 4, 3, 232-235 (2008).

  96. Polymer Channel Chips As Versatile Tools in Microchemistry
    N. Kitamura, K. Ueno, and H.-B. Kim, Anal. Sci., 24, 6, 701-710 (2008).

  97. Nanoparticle plasmon-assisted two-photon polymerization induced by incoherent excitation source
    K. Ueno, S. Juodkazis, T. Shibuya, Y. Yokota, V. Mizeikis, K. Sasaki, H. Misawa, J. Am. Chem. Soc. 130, 6928-6929 (2008).

  98. Correlation between Cell Morphology and Expression Rate of Aggrecan Gene during Differentiation from Mesenchymal Stem Cells to Chondrocytes
    M. Takagi, T. Kitabayashi, S. Koizumi, H. Hirose, S. Kondo, M. Fujiwara, K. Ueno, H. Misawa, Y. Hosokawa, H. Masuhara, S. Wakitani, Biotechnol. Lett., 30, 1189-1195 (2008).

  99. Clusters of closely-spaced gold nanoparticles as a source of two-photon photoluminescence at visible wavelengths
    K. Ueno, S. Juodkazis, V. Mizeikis, K. Sasaki, H. Misawa, Adv. Mater., 20, 26-30 (2008).

    Highlighted in NPG Asia Materials (research highlight). NPG Asia Materials ISSN 1884-4049 (Print) ISSN 1884-4057 (Online).

  100. Three-dimensional micro- and nano-structuring of materials by tightly focused laser radiation
    S. Juodkazis, V. Mizeikis, S. Matsuo, K. Ueno, H. Misawa, Bull. Chem. Soc. Jpn., 81, 4, 411-448 (2008).

  101. Optical characterization of plasmonic metallic nanostructures fabricated by high-resolution lithography
    Y. Yokota, K. Ueno, V. Mizeikis, S. Juodkazis, K. Sasaki, H. Misawa, J. Nanophotonics, 1, 011594 (2007).

  102. Inhibition of multipolar plasmon excitation in periodic chains of gold nanoblocks
    K. Ueno, S. Juodkazis, V. Mizeikis, D. Ohnishi, K. Sasaki, H. Misawa, Opt. Express, 15, 25, 16527-16539 (2007).

  103. Inverse silica opal photonic crystals for optical sensing applications
    Y. Nishijima, K. Ueno, S. Juodkazis, V. Mizeikis, H. Misawa, T. Tanimura, K. Maeda, Opt. Express, 15, 20, 12979-12988 (2007).

  104. Enhanced Two-Photon Absorption of the Chromophores Confined in Two-Dimensional Nano-Space
    K. Kamada, Y. Tanamura, K. Ueno, K. Ohta, H. Misawa, J. Phys. Chem. C, 111, 30, 11193-11198 (2007).

  105. Electrophoretic chip for high-fidelity multi-target fractionation of ds-DNA
    K. Sun, Z. Li, K. Ueno, S. Juodkazis, S. Noji, H. Misawa, Electrophoresis, 28, 1572-1578 (2007).

  106. Spectral Sensitivity of Uniform Arrays of Gold Nanorods to Dielectric Environment
    K. Ueno, S. Juodkazis, M. Mino, V. Mizeikis, H. Misawa, J. Phys. Chem. C, 111, 11, 4180-4184 (2007).

  107. Spectrally-resolved atomic-scale length variations of gold nanorods
    K. Ueno, S. Juodkazis, V. Mizeikis, K. Sasaki, H. Misawa, J. Am. Chem. Soc., 128, 14226-14227 (2006).

  108. Raman Microspectroscopy/Imaging Study on Phase-Vanishing Processes of Fluorous Biphase Systems in Microchannel - Microheater Chips
    T. Araki, K. Ueno, H. Misawa, N. Kitamura, Anal. Sci., Vol. 22, No. 10, 1283-1289 (2006).
    (Hot Article & Cover Design)

  109. Photodecomposition of Phenol by Silica-Supported Porphyrin Derivative in Polymer Microchannel Chips
    N. Kitamura, K. Yamada, K. Ueno, S. Iwata, J. Photochem. Photobiol. A: Chem., 184, 1-2, 170-176 (2006).

  110. Optical Properties of nano-engineered gold blocks
    K. Ueno, V. Mizeikis, S. Juodkazis, K. Sasaki, H. Misawa, Opt. Lett. Vol. 30, No. 16, 2158-2160 (2005).

  111. Fabrication and Electrochemical Characterization of Interdigitated Nanoelectrode Arrays
    K. Ueno, M. Hayashida, J.Y. Yei, H. Misawa, Electrochem. Commun., Vol. 7, No. 2, 161-165 (2005).

  112. One-Step Electrochemical Cyanation Reaction of Pyrene in Polymer Microchannel-Electrode Chips
    K. Ueno, F. Kitagawa, and N. Kitamura, Bull. Chem. Soc. Jpn, Vol. 77, No. 7, 1331-1338 (2004).
    (Selected Paper)

  113. Application of Plastic Microchannel-Microheater Chip to Thermal Synthetic Reaction
    N. Kitamura, Y. Hosoda, K. Ueno, and S. Iwata, Anal. Sci., Vol. 20, No. 5, 783-786 (2004).

  114. A Spectroelectrochemical Study on Perylene Cation Radical in Polymer Microchannel- Microelectrode Chips
    K. Ueno and N. Kitamura, Analyst, Vol. 128, 1401-1405 (2003).
    (RSC Hot Article and Cover Design)

  115. Thermal Phase Transition of an Aqueous Poly(N-isopropylacrylamide) Solution in a Microchannel-Microheater Chip
    N. Kitamura, Y. Hosoda, C. Iwasaki, K. Ueno and H. -B. Kim, Langmuir, Vol. 19, 8484-8489 (2003).

  116. Characteristic Electrochemical Responses of Polymer Microchannel-Microelectrode Chip
    K. Ueno, H. -B. Kim and N. Kitamura, Anal. Chem., Vol. 75, No. 9, 2086-2091 (2003).

  117. Channel Shape Effects on Solution-Flow Characteristics and Liquid/Liquid Extraction Efficiency in Polymer Microchannel Chips
    K. Ueno, H. -B. Kim and N. Kitamura, Anal. Sci., Vol. 19, No.3, 391-394 (2003).

  118. Photocyanation of Pyrene across an Oil/Water Interface in a polymer Microchannel Chip
    K. Ueno, F. Kitagawa and N. Kitamura, Lab. Chip, Vol. 2, No. 4, 231-234 (2002).

  119. Fabrication and Characteristic Electrochemical Responses of Integrated Polymer Microchannel Chip
    K. Ueno, F. Kitagawa, H. -B. Kim, T. Tokunaga, S. Matsuo, H. Misawa and N. Kitamura
    Chem. Lett., Vol. 29, No. 8, 858-859 (2000).

  120. A Spatially-Resolved Fluorescence Spectroscopic Study on Liquid/Liquid Extraction Processes in Polymer Microchannels
    H. -B. Kim, K. Ueno, M. Chiba, O. Kogi and N. Kitamura. Anal. Sci., Vol.16, No. 8, 871-876 (2000).

@˜_•ś@@‘ŕE‰đŕEProceedingE‘Đ‘ź@@ľ‘ҍu‰‰EŽóÜu‰‰@@Šw‰ďEu‰‰@@“Á‹–
@‘ŕE‰đŕEProceedingE‘Đ‘ź

  1. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‚̐lŒűŒő‡Ź‚Ö‚Ě“WŠJ
    ‰ŸŘ —F–ç, ă–ě vś, ŽOŕV O–ž, ‹@”\Ţ—ż, 37, 8, 40-49 (2017).

  2. Nanolithography based on surface plasmon
    K. Ueno, H. Misawa, Handbook of Solid State Chemistry, edited by Richard Dronskowski, Shinichi Kikkawa, and Andreas Stein, Wiley-VCH Verlag GmbH, in press.

  3. ‹ÇÝ•\–Ęƒvƒ‰ƒYƒ‚ƒ“‚đŠˆ—p‚ľ‚˝lHŒő‡Ź
    ‰ŸŘ —F–ç, ă–ě vś, ŽOŕV O–ž, Œő‰ťŠw, 47, 1, 2-8 (2016).

  4. ‰ÂŽ‹Œő‚đ—p‚˘‚˝‹ó’†’‚‘fŒĹ’č‚É‚ć‚éƒAƒ“ƒ‚ƒjƒA‡Ź
    ‰ŸŘ —F–ç, ă–ě vś, ŽOŕV O–ž, ŒŽŠ§ƒtƒ@ƒCƒ“ƒPƒ~ƒJƒ‹, “ÁW ƒAƒ“ƒ‚ƒjƒA‡Ź‚̍ŐV“ŽŒü (ƒV[ƒGƒ€ƒV[o”Ĺ), 45, 3, 41-46 (2016).

  5. ‹ßÔŠO•ßWƒAƒ“ƒeƒi‹Zp‚ĚŠJ”­‚Ć‘ž—z“d’r‚ւ̉ž—p
    ŽOŕVO–ž, ă–ě vś, ‰ŸŘ—F–ç, ‹ßÔŠOEŽ‡ŠOü-”g’ˇ•ĎŠˇ‚ĆŒő‹zŽű‘‘ĺ‚É‚ć‚é‘ž—z“d’r‚̍‚Œř—Ś‰ť‹Zp, •Ş’SŽˇ•M(S&To”Ĺ), ‘ć2Í, ‘ć4ß, 130-141 (2015).

  6. ‰ÂŽ‹Œő‚đ—p‚˘‚˝‹ó‹C’†‚Ě’‚‘f‚Š‚ç‚̐lHŒő‡Ź‚É‚ć‚éƒAƒ“ƒ‚ƒjƒA‡Ź
    ‰ŸŘ —F–ç, ă–ě vś, ŽOŕV O–ž, ƒAƒ“ƒ‚ƒjƒA‚đ—p‚˘‚˝…‘fƒGƒlƒ‹ƒM[ƒVƒXƒeƒ€, •Ş’SŽˇ•M(ƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC Ź“‡—RŒp), 102-111 (2015).

  7. ƒvƒ‰ƒYƒ‚ƒ“—U‹NlHŒő‡Ź‚̍\’z‚ĆPEEM‚É‚ć‚éŠÉ˜a‰ß’ö‚̒ǐŐ
    ă–ě vś, ‘ˇ ň, ŽOŕV O–ž, •\–ʉȊw, 35, 12, 668-673 (2014).

  8. Žűˇ•âł“§‰ß“dŽqŒ°”÷‹ž‚É‚ć‚鉝Šw”˝‰ž‚Ěin-situŒv‘Ş‹Zp
    ă–ě vś, ‚Ô‚ń‚š‚Ť (ƒgƒsƒbƒNƒX), 6ŒŽ†, 303 (2014).

  9. ‹ÇÝ•\–Ęƒvƒ‰ƒYƒ‚ƒ“‚É‚ć‚鐅‚̉Ž‹Œő•Ş‰đ
    ă–ě vś, ŽOŕV O–ž, ŒőŠw, 43, 6, 275-277 (2014).

  10. ‰ÂŽ‹Œő‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‚̐lHŒő‡Ź‚Ö‚Ě“WŠJ
    ă–ě vś, ŽOŕV O–ž, ‰ťŠwH‹Ć, 65, 3, 21-25 (2014).

  11. “dŽqƒr[ƒ€ƒŠƒ\ƒOƒ‰ƒtƒB[
    ă–ě vś, ŽOŕV O–ž, ƒvƒ‰ƒYƒ‚ƒ“ƒiƒmŢ—żŠJ”­‚ĚĹ‘Oü‚Ɖž—p, •Ş’SŽˇ•M (ƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC ŽR“c ~), 87-93 (2013).

  12. Precisely controlled plasmonic nanostructures and its application to nanolithography
    K. Ueno, H. Misawa, Proc. SPIE, 8613, 861302 (2013).

  13. Microfluidic devices for fluctionation of DNA fragments
    K. Sun, Z. Li, K. Ueno, N. Ren, H. Misawa, Proceeding of 16th International Conference on Miniaturized Systems for Chemistry and Life Sciences, 1165-1167 (2012).

  14. ŒőƒAƒ“ƒeƒi“‹ÚŒ^‰ÂŽ‹E‹ßÔŠOŒő“d•ĎŠˇƒVƒXƒeƒ€
    ă–ě vś, ŽOŕV O–ž, —ĘŽqƒhƒbƒg‘ž—z“d’r‚ĚĹ‘Oü, •Ş’SŽˇ•M (ƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC –L“c‘ž˜Y), 140-148 (2012).

  15. Plasmon-assisted nanolithography exposed by femtosecond laser beam through gold nanostructured photomasks
    K. Ueno, H. Misawa, 2012 ICALEO Conference Proceedings, 1150-1159 (2012).

  16. ‘ć7Í ƒvƒ‰ƒYƒ‚ƒjƒbƒN‰ťŠw
    ă–ě vś, ŽOŕV O–ž, ‹ŕ‘Ž‚¨‚ć‚Ń”ź“ą‘Ěƒiƒm—ąŽq‚̉Ȋw, •Ş’SŽˇ•M (‰ťŠw“Żl), 81-87 (2012).

  17. ‹ŕ‘Žƒiƒm\‘˘‚É‚ć‚čŒő‚đ‹ÇÝ‰ť‚ł‚š‚é‹Zp
    ă–ě vś, 30”NŒă‚̉ťŠw‚Ě–˛ƒ[ƒhƒ}ƒbƒvi“ú–{‰ťŠw‰ďj(2012).

  18. Surface plasmon-assisted nanolithography with nanometric accuracy
    K. Ueno, H. Misawa, Proc. SPIE, 8243, 82430F (2012).

  19. Achieving single-nanometer-size dots with photolithography
    K. Ueno, H. Misawa, SPIE News Room, DOI: 10.1117/2.1201109.003842 (2011).

  20. Strong photon-molecule coupling fields for chemical reactions
    K. Ueno, H. Misawa, Photochemistry, 39, 228-255 (2011). (RSC SPR-Photochemistry).

  21. ƒ_ƒCƒiƒ~ƒbƒNƒ}ƒXƒNƒŒƒXƒŠƒ\ƒOƒ‰ƒtƒB‹Zp‚É‚ć‚é3ŽŸŒłŒőd‡‘Ě‚Ěěť‚ÉŠÖ‚ˇ‚錤‹†
    ă–ě vśAŽOŕV O–žA–x“c —SŽĄ, NanotechJapan Bulletin, 4, 5, 32-1-5 (2011).

  22. ‚Œř—Ś‚Č“ńŒőŽq—ă‹N‚đ‰Â”\‚É‚ˇ‚é”˝‰žę‚ĚÝŒv‚ƍ쐻
    ă–ě vś, ŽOŕV O–ž, ‚Œř—Ś“ńŒőŽq‹zŽűŢ—ż‚ĚŠJ”­‚Ɖž—p, •Ş’SŽˇ•M (ƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC “n•Ó•qs), 117-127 (2011).

  23. ƒvƒ‰ƒYƒ‚ƒjƒNƒX‚ĚŒő‰ťŠw“IƒAƒvƒ[ƒ`
    ă–ě vś, ŽOŕV O–ž, ƒvƒ‰ƒYƒ‚ƒjƒNƒXƒfƒoƒCƒXŠJ”­Ĺ‘Oü, •Ş’SŽˇ•M (ƒGƒkEƒeƒB[EƒGƒX), 3-12 (2011).

  24. ŒőƒAƒ“ƒeƒi“‹ÚŒő“d•ĎŠˇ‚đ—˜—p‚ľ‚˝‚Œř—Ś‘ž—z“d’r‚ĚŠJ”­
    ŽOŕV O–ž, ă–ě vś, ƒvƒ‰ƒYƒ‚ƒjƒNƒXƒfƒoƒCƒXŠJ”­Ĺ‘Oü, •Ş’SŽˇ•M (ƒGƒkEƒeƒB[EƒGƒX), 237-246 (2011).

  25. “d‹Cƒr[ƒ€ƒŠƒ\ƒOƒ‰ƒtƒB‚đ—p‚˘‚é‹ŕ‘Žƒiƒm‹K‘Ľ\‘˘‚ĚÝŒvEěť‚Ć‚ť‚ĚŒőŠw“ÁŤ
    ă–ě vś, ŽOŕV O–ž, ƒvƒ‰ƒYƒ‚ƒ“ƒiƒmŢ—ż‚ĚŠJ”­‚Ɖž—p, •Ş’SŽˇ•M (ƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC ŽR“c ~), 103-112 (2011).

  26. ƒvƒ‰ƒYƒ‚ƒjƒNƒX‚ĆŒő‰ťŠw”˝‰ž
    ă–ě vś, ŽOŕV O–ž, ‰ž—p•¨—, 80, 9, 766-771 (2011).

  27. Effect of drying process on photon-polymerized microstructures in resists
    Q. Sun, H. Asahi, N. Murazawa, K. Ueno, K. H. Misawa, Proceedings of Advances in Optoelectronics and Micro/Nano-Optics (AOM), OSA-IEEE-COS, 1-4 (2010).

  28. ƒeƒ‰ƒwƒ‹ƒc‘Ń‚Éƒvƒ‰ƒYƒ‚ƒ“‹¤–ÂŽü”g”‚đ—L‚ˇ‚é‹ŕƒiƒmƒXƒŠƒbƒgƒŠƒ“ƒO\‘˘‚ĚŒőŠw“ÁŤ
    ă–ěvśAŽOŕVO–žA‘吟 ‘ĺA”ž–ě —yˆęAâŒű ‘ńś, NanotechJapan Bulletin, 3, 5, 11-1-7 (2010).

  29. ƒvƒ‰ƒYƒ‚ƒ“ƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚éƒiƒm‰ÁH
    ă–ě vś, ŽOŕV O–ž, ’´¸–§, 16, 37-42 (2010).

  30. ‘ć14Í ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚đ—p‚˘‚˝Œőƒiƒm‰ÁH
    ă–ě vś, ŽOŕV O–ž (•Ş’SŽˇ•M), ‹ßÚęŒő‚ĚƒZƒ“ƒVƒ“ƒOEƒCƒ[ƒWƒ“ƒO‹Zp‚ւ̉ž—p |ĹV‚ĚƒoƒCƒIE‰ťŠwEƒfƒoƒCƒX•Ş–ě‚Ö‚Ě“WŠJiƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC –Ż’J‰hˆęA’Š“ú „), 155-161 (2010).

  31. ‹ŕ‘Žƒiƒm\‘˘‚đ—p‚˘‚˝Œő‹ÇÝę‚Ě‘nŹ‚ĆŒő‰ťŠw”˝‰ž‚ւ̉ž—p
    ă–ě vś, ŽOŕV O–ž, G”}, 52, 3, 166-171 (2010).

  32. Œő‚Ć•ŞŽq‚Ş‹­‚­Œ‹‡‚ˇ‚éƒiƒm‹óŠÔ‚Ě‘nŹ@|ŒőŽq‚đ—LŒř—˜—p‚Ĺ‚Ť‚éVŠT”O‚Ě”˝‰žę|
    ă–ě vś, ŽOŕV O–ž, ŒŽŠ§‰ťŠwi‰ťŠw“Żlj, 65, 4, 22-27 (2010).

  33. Enhancement of optical near-field using metallic nanostructures tailored with high accuracy
    K. Ueno, S. Juodkazis, V. Mizeikis, H. Misawa, Molecular Electronic and Related Materials- Control and Probe with Light, T. Naito ed. Research Signpost, 261-280 (2010).

  34. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‚đ—˜—p‚ľ‚˝”ńüŒ`Œő‰ťŠw
    ă–ě vś, ŽOŕV O–ž, ŒŽŠ§‹@”\Ţ—ż, 29, 11, 6-13 (2009).

  35. ‹ŕ‘Žƒiƒm\‘˘‚É‚ć‚éŒő‹ÇÝę‚Ě‘nť‚Ć”ńüŒ`Œő”˝‰ž‚ւ̉ž—p
    ă–ě vś, ŽOŕV O–ž, ‰ťŠwH‹Ć, 60, 10, 737-742 (2009).

  36. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚ĚŒ`Ź‚ĆŒő”˝‰ž
    ă–ě vś, ŽOŕV O–ž, ŒőŠw, 38, 9, 448-455 (2009).

  37. •ŞŽqŒ¤Œ¤‹†‰ď•ńuƒvƒ‰ƒYƒ‚ƒjƒbƒN•¨Žż‚Ć•ŞŽq‰ČŠwŒ¤‹†v
    ă–ě vś, •ŞŽqŒ¤ƒŒƒ^[ƒY, 60, 63-65 (2009).

  38. ‘ć4Í Œő|•ŞŽq‹­Œ‹‡”˝‰žę‚Ć‘˝ŒőŽq”˝‰ž
    ă–ě vś, ŽOŕV O–ž (•Ş’SŽˇ•M), ƒvƒ‰ƒYƒ‚ƒ“ƒiƒmŢ—ż‚̍ŐV‹ZpiƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC ŽR“c ~), 138-145 (2009).

  39. ‘ć3Í Œő“dę‘‹­
    ă–ě vś, ŽOŕV O–ž (•Ş’SŽˇ•M), ‹ŕ‘ŽƒiƒmEƒ}ƒCƒNƒ—ąŽq‚ĚŒ`óE\‘˘§Œä‹ZpiƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC •ÄŕV“O), 29-42 (2009).

  40. ”ź“ą‘̉ÁH‹Zp‚É‚ć‚čěť‚ľ‚˝‹ŕ‘Žƒiƒm\‘˘‚É‚ć‚éV‚ľ‚˘ƒtƒHƒgƒjƒbƒNŢ—ż
    ă–ě vś, ŽOŕV O–ž, –˘—ˆŢ—ż, Vol. 8, No. 1, 14-20 (2008).

  41. ‹ŕ‘Žƒiƒm\‘˘‚đ—˜—p‚ľ‚˝•ŞŒőŒv‘Ş‹Zp
    ă–ě vś, ‚Ô‚ń‚š‚Ť (i•ŕ‘ŕ), 7ŒŽ†, 356-361 (2007).

  42. ‘ć9Í “dŽqƒr[ƒ€ƒŠƒ\ƒOƒ‰ƒtƒB‚đ—p‚˘‚é‹ŕ‘Žƒiƒm‹K‘Ľ\‘˘‚ĚÝŒvEěť‚Ć‚ť‚ĚŒőŠw“ÁŤ
    ă–ě vś, ŽOŕV O–ž (•Ş’SŽˇ•M)
    ƒvƒ‰ƒYƒ‚ƒ“ƒiƒmŢ—ż‚ĚÝŒv‚Ɖž—p‹ZpiƒV[ƒGƒ€ƒV[o”Ĺ ŠÄC ŽR“c~), 103-112 (2006).

  43. Œő|•ŞŽq‹­Œ‹‡ę‚Ě‘nť‚Ć‚ť‚ĚŒőŠw“ÁŤ‚Ě•]‰ż
    ă–ě vś, ŽOŕV O–ž, Œő‰ťŠw, iƒŒƒrƒ…[j, 36, 2, 128-134 (2005).

  44. ‹ŕ‘Žƒiƒm\‘˘‘Ě•\–Ę‚Ĺ‚Ě‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‹¤–‚Ƒ‹­ƒ‰ƒ}ƒ“ŽU—‚đ—p‚˘‚˝ƒZƒ“ƒVƒ“ƒO
    ă–ě vś, ‚Ô‚ń‚š‚Ť (˜b‘č), 3ŒŽ†, 153-154 (2005).

  45. ’´’Zƒpƒ‹ƒXXü‚Ě”­ś‚Ć•ŞÍ‰ťŠw“I‰ž—p
    ă–ě vś, ‚Ô‚ń‚š‚Ť (ƒgƒsƒbƒNƒX), 5ŒŽ†, 275 (2004).

  46. Photocyanation of Aromatic Hydrocarbons across Oil/Water interface in Polymer Microfluidic Chips
    F. Kitagawa, K. Ueno, and N. Kitamura
    "Micro Total Analysis Systems 2002", Y. Baba, S. Syoji, and A. van den Berg eds., 876-878 (2002).

  47. Fabrication and Applications of Polymer-Based Microchannel-Heater Chip as Microreactor
    Y. Hosoda, K. Ueno, S. Ishizaka, and N. Kitamura
    "Micro Total Analysis Systems 2002", Y. Baba, S. Syoji, and A. van den Berg eds., 882-884 (2002).

  48. ƒ|ƒŠƒ}[ƒ}ƒCƒNƒƒ`ƒƒƒlƒ‹ƒ`ƒbƒv‚Ě‘nť‚ƉťŠw“I‰ž—p
    ă–ě vśAŠě‘˝‘ş úf, ‚Ô‚ń‚š‚Ť, 5ŒŽ†, 238-241(2002).

  49. ƒ|ƒŠƒ}[Šî”ÂŒ^“d‹C‰ťŠwƒ`ƒbƒv‚Ě‘nť‚Ć“Á’Ľ
    ă–ě vśAŠě‘˝‘ş úf, ‰ťŠwH‹ĆŽ, Vol. 52, No. 11, 861-865 (2001).

  50. ƒ|ƒŠƒ}[ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚Ě‘nť‚Ć‚ť‚̉ťŠw“I‰ž—p
    Šě‘˝‘ş@¸A‹ŕ@K•vAă–ě@vś, “d‹CŠw‰ďŽE (Trans. IEE of Japan), Vol.121-E, No. 4, 169-174 (2001).
@˜_•ś@@‘ŕE‰đŕEProceedingE‘Đ‘ź@@ľ‘ҍu‰‰EŽóÜu‰‰@@Šw‰ďEu‰‰@@“Á‹–
@ľ‘ҍu‰‰EŽóÜu‰‰

  1. ƒvƒ‰ƒYƒ‚ƒjƒbƒNƒiƒm\‘˘‚̍쐻‚Ć‹ßÚę•ŞŒő“ÁŤ
    ă–ěvśA–źŒĂ‰Ž‘ĺŠw ‰ž—p•¨Žż‰ťŠwƒZƒ~ƒi[Aˆ¤’mA8ŒŽ (2017).

  2. Near-Field Spectroscopy of the Coupled Plasmonic Systems Using Multiphoton Photoemission Electron Microscopy
    K. Ueno, Q. Sun, H. Misawa, 9th International Conference on Materials for Advanced Technologies (ICAMT2017), Suntec Singapore, Singapore, June (2017).

  3. Near-Field Spectral Properties of Coupled Plasmonic Systems
    K. Ueno, Q. Sun, H. Misawa, Progress In Electromagnetics Research Symposium 2017 (PIERS 2017), Park Inn by Radisson Pribaltiyskaya hotel, St Petersburg, Russia, May. (2017).

  4. Spectral Properties of Plasmon-Molecule Hybrid States and Coupled Plasmonic Systems
    K. Ueno, S. Nozawa, H, Yu, J. Li, Q. Sun, T. Oshikiri, H. Misawa, 8th RSC-CSJ Joint Symposium on Recent Developments in Plasmonics, Keio Univ., Kanagawa, March (2017).

  5. ƒvƒ‰ƒYƒ‚ƒjƒbƒNŒ‹‡Œn‚¨‚ć‚Ńƒvƒ‰ƒYƒ‚ƒ“|•ŞŽq‹­Œ‹‡Œn‚Ě•ŞŒő“ÁŤ
    ă–ěvśA—› Œ‰A˜° ŕjA‘ˇ ňA‰ŸŘ—F–çAŽOŕVO–žA‰ž—p•¨—Šw‰ďE—ĘŽqƒGƒŒƒNƒgƒƒjƒNƒXŒ¤‹†‰ďuŒő-•¨Žż‘ŠŒÝ§Œä@`§Œä‹Zp‚̐i“W‚ƐV‚ľ‚˘•¨—‚Ě’T‹`vAă’q‘ĺŠwŒyˆä‘ňƒZƒ~ƒi[ƒnƒEƒXA’ˇ–ěA12ŒŽ (2016).

  6. Infrared plasmonic chemistry based on strong coupling between gold nanostructures and molecular/intermolecular vibrational modes
    K. Ueno, S. Nozawa, J. Li, Q. Sun, T. Oshikiri, H. Misawa, 9th Asian Photochemistry Conference, D1-1-A2, Nanyang Technological University, Singapore, December (2016).

  7. Spectral modulations induced by interactions between molecular vibrational modes and infrared plasmon; strong coupling or electromagnetically induced transparency
    K. Ueno, S. Nozawa, J. Li, Q. Sun, T. Oshikiri, H. Misawa, 8th International Workshop on Advanced Materials Science and Nanotechnology, IWAMSN 2016, MEP-I06, Halong Grand Hotel, Halong City, Vietnam, November (2016).

  8. Plasmon-induced water splitting by visible and near infrared light using gold nanostructured oxide semiconductors
    K. Ueno, T. Oshikiri, H. Misawa, Global Artificial Photosynthesis - Breakthroughs for the Sustainocene, Lord Howe Island, Australia, September (2016).

  9. Surface plasmon-assisted chemical reactions using nano-engineered gold nanoparticles
    K. Ueno, H. Misawa, The 14th International Conference of Near-Field Optics (NFO-14), Act City Hamamatsu Congress Center, Shizuoka, September (2016).

  10. Spectral modulation of molecular/intermolecular vibrational mode by infrared plasmon
    K. Ueno, Progress in Electromagnetics Research Symposium 2016 (PIERS 2016), Shanghai, Chaina, August (2016).

  11. Infrared and THz plasmonics using nano-engineered gold structures
    K. Ueno, 7th International Conference on Metamaterials, Photonic Crystals and Plasmonics (META 2016), Malaga, Spain July (2016).

  12. Plasmon-induced artificial photosynthesis; evolution of hydrogen and ammonia
    K. Ueno, T. Oshikiri, H. Misawa, The 6th Sino-Japan bilateral young chemist forum, Dalian, China July (2016).

  13. Fabrication of Plasmon-Enhanced Chemical Reaction Fields and Its Application to Light Energy Conversion
    K. Ueno, T. Oshikiri, X. Shi, Q. Sun, H. Misawa, International Workshop on Nanostructures-Based Chemistry and Light-Energy Conversion, Tokyo Metropolitan Univ., Tokyo, June (2016).

  14. Plasmonic photochemistry using nano-engineered gold particles
    K. Ueno, The 10th Asia-Pacific Laser Symposium (APLS2016), Jeju Island, Korea, May. (2016).

  15. Plasmon-based physics and chemistry using nano-engineered gold nanoparticles
    K. Ueno, The 11th Annual IEEE International Conference on Nano/Micro Engineered and Molecular Systems (IEEE-NEMS 2016), 1181, Matsushima, Miyagi, Apr. (2016).

  16. Plasmon-enhanced photochemistry using nano-engineered gold particles
    K. Ueno, The 9th International Conference on Nanophotonics (ICNP 2016), Academia Sinica, Taipei, Taiwan, March (2016).

  17. Fabrication and plasmonic application of nano-engineered gold particles (Plenary)
    K. Ueno, International Conference on Materials for the Millennium (MATCON2016), Cochin University of Science and Technology (CUSAT), Cochin, Kerala, India, Jan. (2016).

  18. Surface-enhanced terahertz spectroscopy using plasmonic structures
    K. Ueno, City University of Hong Kong\RIES symposium, City University of Hong Kong, Hong Kong, Dec. (2015).

  19. Plasmon-induced photochemical reactions using nanoengineered gold particles
    K. Ueno, The Seventh RIES-CIS Symposium, National Chia Tung University, Taiwan, Nov. (2015).

  20. ‹ŕ‘Žƒiƒm”÷—ąŽq‚đ—p‚˘‚˝ƒvƒ‰ƒYƒ‚ƒ“—U‹NŒő‰ťŠw”˝‰ž
    ă–ě vśA‰ŸŘ —F–çAŽOŕV O–žA‘ć5‰ń‰ťŠwƒtƒFƒXƒ^2015Aƒ^ƒ[ƒz[ƒ‹‘D–xA10ŒŽ (2015).

  21. Surface plasmon-enhanced photochemical reactions
    K. Ueno, XVIIIth International Krutyn Summer School 2015, Krutyn, Masurian Lake District, Poland, September 30th (2015).

  22. Spectral properties and dynamics of plasmon nanostructures
    K. Ueno, XVIIIth International Krutyn Summer School 2015, Krutyn, Masurian Lake District, Poland, September 30th (2015).

  23. ƒvƒ‰ƒYƒ‚ƒ“ƒiƒmŢ—ż‚É‚ć‚鉝ŠwƒZƒ“ƒT[‚ĚŠJ”­ \‹ßÔŠOŒő‚Š‚çƒeƒ‰ƒwƒ‹ƒc”g‹Zp‚ց\
    ă–ě vśA‘ć‚P‰ńƒŒ[ƒU[Šw‰ďuƒŒ[ƒU[ƒoƒCƒIˆă—Áv‹Zpę–ĺˆĎˆő‰ďAçÎ‰ČŠw‹Zp‘ĺŠwA6ŒŽi2015).

  24. Chemical applications of plasmonics using precisely controlled metallic nanostructures
    K. Ueno, The 7th International Conference on Surface Plasmon Photonics (SPP7), the Ramada Hotel, Jerusalem, Israel, June (2015).

  25. Plasmonic chemistry using precisely controlled metallic nanostructures
    K. Ueno, The 7th International Workshop on Advanced Materials Science and Nanotechnology (IWAMSN2014), Halong Grand Hotel, Halong City, Vietnam, November (2014).

  26. Plasmonics in terahertz and far-infrared regions
    K. Ueno, Belgium and Japan Joint Symposium on Nanoplasmonics and Nanoimaging Chemistry, Hokkaido University, Sapppro, October (2014).

  27. Plasmon-assisted artificial photosynthesis
    K. Ueno, UK-Japan Solar Driven Fuel Synthesis Workshop: Materials, Understanding and Reactor Design, British Embassy Tokyo, September (2014).

  28. ˜b‘č’ń‹ŸF ƒvƒ‰ƒYƒ‚ƒjƒbƒN‰ťŠw
    ă–ě vśA“ú–{ŒőŠw‰ď ƒiƒmƒIƒvƒeƒBƒNƒXŒ¤‹†ƒOƒ‹[ƒv ƒgƒsƒJƒ‹ƒ~[ƒeƒBƒ“ƒO@uƒiƒmƒIƒvƒeƒBƒNƒX‚Ě–{Žż‚Ć••ŐŤ‚ɂ‚˘‚čl‚Ś‚évA”ŸŠŮŽs‘Ű…ŽYEŠC—m‘‡Œ¤‹†ƒZƒ“ƒ^[A9ŒŽ (2014).

  29. ƒvƒ‰ƒYƒ‚ƒ“‚đ—p‚˘‚˝Ĺć’[ƒiƒmŒőƒŠƒ\ƒOƒ‰ƒtƒB[
    ă–ě vśA–kŠC“š’nˆć‚R‘ĺŠw‚QŒöÝŽŽ V‹Zpŕ–ž‰ďAJST“Œ‹ž–{•”•ĘŠŮƒz[ƒ‹A9ŒŽ (2014).

  30. ƒvƒ‰ƒYƒ‚ƒjƒbƒNƒiƒm\‘˘‚đ—˜—p‚ľ‚˝‰ťŠw”˝‰ž§Œä
    ă–ě vśA‘ĺăŽs—§‘ĺŠw—Šw•”‰ťŠw‰Č’k˜b‰ďA‘ĺăŽs—§‘ĺŠwA5ŒŽ (2014).

  31. ƒiƒmƒvƒ‰ƒYƒ‚ƒjƒNƒX‚̉ťŠw“I‰ž—p
    ă–ě vśA2014”N“x‘ć2‰ńƒVƒ“ƒOƒ‹ƒiƒmƒpƒ^[ƒjƒ“ƒOŒ¤‹†ƒOƒ‹[ƒvu‰‰‰ďA‘ˆî“c‘ĺŠwA5ŒŽ (2014).

  32. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚đ—p‚˘‚˝•\–ʉťŠw”˝‰ž
    ă–ě vśA•˝Ź‚Q‚T”N“x“ú–{•\–ʉȊw‰ď“Œ–kE–kŠC“šŽx•”Šwpu‰‰‰ďA“Œ–k‘ĺŠwA3ŒŽ (2014).

  33. ƒvƒ‰ƒYƒ‚ƒ“•úŽËˆł‚đ—˜—p‚ľ‚˝‰“ÔŠO•ŞŒőƒCƒ[ƒWƒ“ƒO‹Zp
    ă–ě vśA 2013”N“x“ú–{•ŞŒőŠw‰ď–kŠC“šŽx•”ƒVƒ“ƒ|ƒWƒEƒ€A–kŠC“š‘ĺŠwA1ŒŽ (2014).

  34. Fabrication and characterization of metallic nanostructures with single nanometer-sized gap
    K. Ueno, 26th International Microprocesses and Nanotechnology Conference (MNC 2013), Royton Sapporo, November (2013).

  35. ƒvƒ‰ƒYƒ‚ƒ“‘‹­‚đ—p‚˘‚˝•\–ĘŒő‰ťŠw”˝‰ž
    ă–ě vśA ‘ć78‰ń•\–ʉȊwŒ¤‹†‰ď ƒiƒmƒXƒP[ƒ‹‚̐U“Ž•ŞŒő‚ĚĹ‘OüA“Œ‹žH‹Ć‘ĺŠwA10ŒŽ (2013).

  36. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚đ—p‚˘‚˝Œő|ƒGƒlƒ‹ƒM[•ĎŠˇŒn‚̍\’z
    ă–ě vśA í—Ş–Ú•WuƒvƒƒZƒXƒCƒ“ƒeƒOƒŒ[ƒVƒ‡ƒ“‚É‚ć‚鎟˘‘ăƒiƒmƒVƒXƒeƒ€‚Ě‘nťv‚RŒ¤‹†—Ěˆć‡“ŻŒöŠJƒVƒ“ƒ|ƒWƒEƒ€AƒRƒNƒˆƒz[ƒ‹A10ŒŽ (2013).

  37. ƒvƒ‰ƒYƒ‚ƒjƒbƒN\‘˘‚đ—˜—p‚ľ‚˝Œő‰ťŠw”˝‰ž§Œä
    ă–ě vśA“ú–{•¨—Šw‰ď2013”NH‹G”N‰ďA27pDA3, “ż“‡‘ĺŠwA9ŒŽ (2013).

  38. ÔŠOŒőƒGƒlƒ‹ƒM[•ĎŠˇ@|ƒvƒ‰ƒYƒ‚ƒ“•úŽËˆł‚É‚ć‚鍂•ŞŽqƒQƒ‹‚̑̐ϑŠ“]ˆÚ|
    ă–ě vśA‘ć13‰ńƒoƒCƒIƒeƒ“ƒvƒŒ[ƒgŒ¤‹†§’k‰ďA“Œ‹žH‹Ć‘ĺŠwA8ŒŽ (2013).

  39. Plasmonic chemistry and its application to nanolithography and infrared sensor
    K. Ueno, Symposium on Plasmon-based Chemistry and Physics (ICP2013 preconference), KU Leuven, Leuven, Belgium, July (2013).

  40. Precisely controlled plasmonic nanostructures and its application to nanolithography
    K. Ueno, H. Misawa, SPIE Photonic West 2013, 8613-1, The Moscone Center San Francisco, USA, February (2013).

  41. Plasmon-Enhanced Photochemical Reactions on Nano-Engineered Gold Particles
    K. Ueno, 25th International Microprocesses and Nanotechnology Conference (MNC 2012), Kobe Meriken Park Oriental Hotel, Kobe, Japan, November (2012).

  42. Plasmonic chemistry and its application to nanofabrication
    K. Ueno, RIES CIS Joint Symposium, Sapporo, October (2012).

  43. Plasmonic nanostructures for chemical applications
    K. Ueno, Japan-India Bilateral Seminar on Supramolecular Nanomaterials for Energy Innovation (seminar lecture), Takamatsu, October (2012).

  44. Plasmon-assisted nanolithography exposed by femtosecond laser beam through gold nanostructured photomasks
    K. Ueno, 31th International Congress on Applications of Lasers & Electro-Optics (ICALEO2012), Anaheim, USA, September (2012).

  45. Plasmonic Nanostructures and Its Application to Nanolithography
    K. Ueno, Jilin University lecture meeting, Jilin University, China, August (2012).

  46. Plasmonic Nanostructures and Its Application to Nanolithography
    K. Ueno, The Opening Ceremony of NICE2 and Forum on Environmental Nanotechnology, Harbin Institute of Technology, China, August (2012).

  47. ƒvƒ‰ƒYƒ‚ƒjƒbƒNƒiƒm\‘˘‚ĚŒő‰ČŠw‚Ć‚ť‚̉ž—p
    ă–ě vśA–kŠC“š‘ĺŠw“dŽq‰ČŠwŒ¤‹†Š‘n—§20Žü”NE•‘ŽƒOƒŠ[ƒ“ƒiƒmƒeƒNƒmƒƒW[Œ¤‹†ƒZƒ“ƒ^[”­‘Ť‹L”OŽŽ“T@‹L”Ou‰‰‰ďA‹ž‰¤ƒvƒ‰ƒUƒzƒeƒ‹ŽD–yA7ŒŽ (2012).

  48. ƒ_ƒCƒiƒ~ƒbƒNƒ}ƒXƒNƒŒƒXƒŠƒ\ƒOƒ‰ƒtƒB[‹Zp‚É‚ć‚éƒ}ƒCƒNƒƒŒƒ“ƒYƒAƒŒƒC‚ĚŠJ”­‚Ć—L‹@ELŒőŽć‚čo‚ľ‹Zp
    ă–ě vśA—L‹@‚d‚k‚ĚŒőŽć‚čo‚ľŒř—ŚŒüă‹Zpi‹Zpî•ń‹Ś‰ďŽĺĂjAŒÜ”˝“c‚䂤‚Ű‚¤‚ƁA5ŒŽ (2012).

  49. ƒvƒ‰ƒYƒ‚ƒjƒbƒNƒiƒm\‘˘‚ĚŒő‰ČŠw
    ă–ě vśA‘ć2‰ńƒiƒmƒVƒXƒeƒ€ŽáŽčŒđ—Ź‰ďA–k—¤ć’[‰ČŠw‹Zp‘ĺŠw‰@‘ĺŠwA5ŒŽ (2012).

  50. §Œä‚ł‚ę‚˝‹ŕ‘Žƒiƒm\‘˘‚É‚ć‚éŒő‘‹­ę‚Ě‘nť‚ƉťŠw”˝‰ž‚ւ̉ž—p
    ă–ě vśA“ú–{‰ťŠw‰ď‘ć92t‹G”N‰ďA3A2-28AŒcœä‹`m‘ĺŠwA3ŒŽ (2012).

  51. ƒvƒ‰ƒYƒ‚ƒ“ƒiƒmŒőƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚鍂•Ş‰đ”\ƒtƒHƒgƒŒƒWƒXƒgƒpƒ^[ƒ“‚ĚŒ`Ź
    ă–ěvśAŽOŕVO–žA‘ć123‰ń”÷ŹŒőŠwŒ¤‹†‰ďu’´¸–§”÷ŹŒőŠwvA“ŒŠC‘ĺŠwA“Œ‹žA3ŒŽ (2012).

  52. ƒvƒ‰ƒYƒ‚ƒjƒNƒX‚̉ž—p“WŠJ
    ă–ěvśA•˝Ź23”N“xPWC‘ć3‰ńŒőƒeƒNƒmƒƒW[‰ž—p§’k‰ďAƒAƒ‹ƒJƒfƒBƒAçÎA–kŠC“šA2ŒŽ (2012).

  53. Localized Surface Plasmons for Nano-Fabrication
    K. Ueno, 2nd Japan-France Frontiers of Engineering (JFFoE), Nanoscience, Kyoto, Japan, February (2012).

  54. Surface plasmon-assisted nanolithography with nanometric accuracy
    K. Ueno, SPIE Photonic West 2012, 8243-15, The Moscone Center San Francisco, USA, January (2012).

  55. ƒvƒ‰ƒYƒ‚ƒjƒbƒN‰ťŠw”˝‰ž‚đ—p‚˘‚˝Ĺć’[ƒŠƒ\ƒOƒ‰ƒtƒB[
    ă–ěvśA‘ć2‰ńƒvƒ‰ƒYƒ‚ƒjƒbƒN‰ťŠwƒVƒ“ƒ|ƒWƒEƒ€, “Œ‹ž‘ĺŠwA11ŒŽ (2011).

  56. Plasmon-Enhanced Photocurrent Generation and Its Application to Artificial Photosynthesis system
    K. Ueno, 12th RIES-Hokudai International Symposium "ŠĎ", Chateraise Gateaux Kingdom Sapporo, Sapporo, Hokkaido, November (2011).

  57. Chemical applications of metallic nanostructures showing localized surface plasmon resonance
    K. Ueno, Extreme Photonics Seminar, RIKEN, Wako, Saitama, October (2011).

  58. Surface Plasmon-Assisted Nanolithography
    K. Ueno, BIT's 1st Annual World Congress of Nano-S&T, World EXPO Center, Dalian, China, October (2011).

  59. ŒőƒAƒ“ƒeƒi‚đ—p‚˘‚˝‚Œř—ŚŒő“d•ĎŠˇƒVƒXƒeƒ€‚ĚŠJ”­
    ă–ěvśAƒiƒmƒ}ƒNƒ•¨ŽżEƒfƒoƒCƒXEƒVƒXƒeƒ€‘nťƒAƒ‰ƒCƒAƒ“ƒX •˝Ź‚Q‚R”N“x VƒGƒlƒ‹ƒM[Ţ—żEƒfƒoƒCƒX ƒvƒƒWƒFƒNƒgƒOƒ‹[ƒvŒ¤‹†‰ďA–kŠC“š‘ĺŠwA10ŒŽ (2011).

  60. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚Ě‘nŹ‚ƉťŠw“I‰ž—p
    ă–ěvśA2011”N“x@“ú–{•ŞŒőŠw‰ď–kŠC“šŽx•”ƒVƒ“ƒ|ƒWƒEƒ€A–kŠC“š‘ĺŠwA10ŒŽ (2011).

  61. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚đ—p‚˘‚˝Œőƒiƒm‰ÁH‹Zp
    ă–ěvśA‘ć‚V‚T‰ńƒŒ[ƒU‰ÁHŠw‰ďu‰‰‰ďAŠÖź‘ĺŠwA5ŒŽ (2011).

  62. ƒvƒ‰ƒYƒ‚ƒjƒbƒNŒő‰ťŠw
    ă–ěvśAŠÖ“ŒŒő‰ČŠwŽáŽčŒ¤‹†‰ďA“Œ‹ž‘ĺŠwA4ŒŽ (2011).

  63. Fabrication of metallic nanostructures for the enhancement of optical near fields and its chemical applications
    K. Ueno, “ú–{‰ťŠw‰ď‘ć91t‹G”N‰ďƒAƒWƒA‘ŰƒVƒ“ƒ|ƒWƒEƒ€A3D5-39, _“ސě‘ĺŠwA3ŒŽ (2011).

  64. §Œä‚ł‚ę‚˝‹ŕ‘Žƒiƒm\‘˘‚É‚ć‚éŒő‘‹­ę‚Ě‘nť‚ƉťŠw”˝‰ž‚ւ̉ž—p
    ă–ě vśA“ú–{‰ťŠw‰ď‘ć91t‹G”N‰ďA1D1-34, _“ސě‘ĺŠwA3ŒŽ (2011).

  65. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚Ě‘nť‚ƉťŠw”˝‰ž‚Ö‚Ě“WŠJ
    ă–ě vśAŒő‰ČŠwŒ¤‹†Šé‰ćƒ[ƒLƒ“ƒOEŒő‰ČŠwˆŮ•Ş–쉥’f–G‰čŒ¤‹†‰ď`ˆŮ•Ş–ě—Z‡‚Ěƒc[ƒ‹‚Ć‚ľ‚ẮuŒőv`, ‘ĺă‘ĺŠw, 2ŒŽ (2011).

  66. Plasmon Enhanced Photocurrent Generation
    K. Ueno, US-Japan Nanotechnology Overview and Young Researchers Exchange Program on Nanomanufacuturing, Univrsity of Illinois Urbana-Champaign, October (2010).

  67. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚đ—p‚˘‚˝Œőƒiƒm‰ÁH‹Zp‚ĚŠJ”­
    ă–ě vś, •˝Ź22”N “d‹CŠw‰ď “dŽqEî•ńEƒVƒXƒeƒ€•”–ĺ‘ĺ‰ď, TC3-2, ŒF–{‘ĺŠw, 9ŒŽ (2010).

  68. Surface Plasmon-Assisted Non-linear Photochemical Reactions on Nano-Engineered Gold Particles
    K. Ueno, Joint Symposium of TOCAT6/APCAT5 and 25th CRC International Symposium, Toya Park Hotel Tensho, July (2010).

  69. ‹ŕ‘Žƒiƒm\‘˘‚É‚ć‚éŒő‰ťŠw”˝‰ž‘‹­ę‚Ě‘nŹ
    ă–ě vś, ‘ć32 ‰ńŒő‰ťŠwŽáŽč‚̉ď, ƒ‚ƒ“ƒ^ƒiƒŠƒ][ƒgŠâŔ, 7ŒŽ (2010).

  70. ‹ŕ‘Žƒiƒm\‘˘‚É‚ć‚éŒő‰ťŠw”˝‰žę‚Ě‘nŹ
    ă–ě vś, Šwpu‰‰‰ď, –źŒĂ‰Ž‘ĺŠw, 6ŒŽ (2010).

  71. ƒvƒ‰ƒYƒ‚ƒ“‘‹­‚đ—˜—p‚ľ‚˝Œő‰ťŠw”˝‰žę‚Ě‘nŹ
    ă–ě vś, •ŞŽqŒ¤Œ¤‹†‰ďuƒvƒ‰ƒYƒ‚ƒ“‘‹­Œő“dę‚Ě•ŞŽq‰ČŠwŒ¤‹†‚Ö‚Ě“WŠJv, ‰ŞčƒJƒ“ƒtƒ@ƒŒƒ“ƒXƒZƒ“ƒ^[, 6ŒŽ (2010).

  72. Gold nanoparticle enhanced non-linear photochemical reactions
    ă–ě vś, International Conference on Core Research and Engineering Science of Advanced Materials, ‘ĺă‘ĺŠw, 6ŒŽ (2010).

  73. Nanogap-assisted surface plasmon nanolithography
    K. Ueno, 3rd Taiwan-Japan Joint Symposium on Organized Nanomaterials and Nanostructure Related to Photoscience, S2-5, Silks Place Taroko Hotel, Taroko National Park, Hualien, Taiwan, 3ŒŽ (2010).

  74. ‹ŕ‘Ž”÷×\‘˘‚đ—p‚˘‚˝ƒiƒmŒő‰ÁHA‘ž—z“d’r‰ž—p
    ă–ě vśCŽOŕV O–ž, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 18p-N-6, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  75. ‹ŕ‘Žƒiƒm\‘˘‚đ—p‚˘‚˝Œő‹ÇÝę‚Ě‘nť‚ĆŒő‰ťŠw”˝‰ž‚ւ̉ž—p
    ă–ě vś, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 17p-ZL-6, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  76. ƒvƒ‰ƒYƒ‚ƒ“‘‹­“dę‚đŽg‚Á‚˝Œőƒiƒm‰ÁH‹Zp‚ĚŠJ”­
    ă–ě vś, ƒŒ[ƒU[Šw‰ďŠwpu‰‰‰ď‘ć30‰ń”NŽŸ‘ĺ‰ď, ç—˘ƒ‰ƒCƒtƒTƒCƒGƒ“ƒXƒZƒ“ƒ^[, 2ŒŽ (2010).

  77. ƒvƒ‰ƒYƒ‚ƒ“ƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚éƒiƒm‰ÁH
    ă–ě vś, ‘ć59‰ń’´¸–§‰ÁHę–ĺˆĎˆő‰ďŒ¤‹†‰ď, V‘ĺăƒRƒƒiƒzƒeƒ‹, 1ŒŽ (2010).

  78. Optoelectromechanic effects in nanocontacts: Electric-field enhancement and mechanically driven conductance changes
    K. Ueno, H. Misawa, E. Scheer, P. Leiderer, T. Geldhauser, R. Waitz, JST-DFG Workshop on Nanoelectronics, Bad Honnef, 1ŒŽ (2010).

  79. ƒiƒmƒeƒNƒmƒƒW[Œ¤‹†‚É•s‰ÂŒ‡‚Č–kŠC“š‘ĺŠw‚Ě‹@ŠBHě
    ă–ě vś, ‘ć2‰ńHě‹ZpƒtƒH[ƒ‰ƒ€, –kŠC“š‘ĺŠw, 12ŒŽ (2010).

  80. ƒvƒ‰ƒYƒ‚ƒjƒbƒNƒ}ƒeƒŠƒAƒ‹‚ĚŒťó‚Ć“W–]
    ă–ěvś, ‚f‚h‚bŢ—ż‹Zp•”‰ď, –kŠC“š‘ĺŠw, 9ŒŽ (2009).

  81. ƒiƒm‹óŠÔ‚É‚¨‚Ż‚éƒvƒ‰ƒYƒ‚ƒ“‘‹­Œř‰Ę
    ă–ěvś, ‘ć70‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 9p-ZG-8, •xŽR‘ĺŠw, 9ŒŽ (2009).

  82. Plasmonics in Nanostructures
    K. Ueno, International Workshop on Photons and Spins in Nanostructures, Sapporo, July (2009).

  83. ‹ŕ‘Žƒiƒm\‘˘‚Ş‘ń‚­Œő‰ČŠw‹Zp
    ă–ě vś, ƒiƒmƒeƒNƒmƒƒW[Œ¤‹†ƒZƒ“ƒ^[u‰‰‰ď, ŽD–y, 5ŒŽ (2009).

  84. ‹ŕ‘Žƒiƒm\‘˘‚ɋǍ݂ˇ‚éƒvƒ‰ƒYƒ‚ƒ“ƒ‚[ƒh‚̉Ž‹‰ť
    ă–ěvśAŽOŕVO–žAˆä‘şl•˝A‰Ş–{—T–¤, ’†•”’n‹ćƒiƒmƒeƒN‘‡Žx‰‡FƒiƒmŢ—ż‘nť‰ÁH‚Ɛć’[‹@Ší•ŞÍ •˝Ź20”N“xŹ‰Ę•ń‰ďA–źŒĂ‰Ž‘ĺŠw, 3ŒŽ (2009).

  85. ƒvƒ‰ƒYƒ‚ƒ“‘‹­‚đ—˜—p‚ľ‚˝”ńüŒ`Œő‰ťŠw”˝‰žę‚Ě‘nŹ
    ă–ě vś, •ŞŽqŒ¤Œ¤‹†‰ď (ƒvƒ‰ƒYƒ‚ƒjƒbƒN•¨Žż‚Ć•ŞŽq‰ČŠwŒ¤‹†), ŽŠ‘R‰ČŠw‹¤“ŻŒ¤‹†‹@\•ŞŽq‰ČŠwŒ¤‹†Š, 1ŒŽ (2009).

  86. –kŠC“šƒCƒmƒx[ƒVƒ‡ƒ“‘noƒiƒm‰ÁHĽŒv‘ŞŽx‰‡ƒlƒbƒgƒ[ƒNŽ–‹Ć‚̐„i
    ă–ě vśA•˝Ź20”N“x–kŠC“š’n‹ć‘—§‘ĺŠw–@l“™‹ZpEˆőŒ¤C, –kŠC“š‘ĺŠw, 10ŒŽ (2008).

  87. ‹ŕ‘Žƒiƒm\‘˘‚ĚƒtƒHƒgƒjƒNƒX
    ă–ě vś, “ŒH‘ĺu‰‰‰ď, “Œ‹žH‹Ć‘ĺŠw, 3ŒŽ (2008).

  88. ‹ŕ‘Žƒiƒm\‘˘‚ĚƒtƒHƒgƒjƒNƒX|ƒiƒmƒŠƒ\ƒOƒ‰ƒtƒB[‚ĚŽŔŒť‚ÉŒü‚Ż‚ā|
    ă–ě vś, ‰ťŠw‚đŠî”Ő‚Ć‚ˇ‚镨Žż‰ČŠwƒCƒmƒx[ƒVƒ‡ƒ“, –kŠC“š‘ĺŠw, 3ŒŽ3“ú, 2008.

  89. Plasmonics and its chemical applications; toward realization of nano-photolithography
    K. Ueno, The 9th RIES-Hokudai International Symposium "sou", Sapporo, January (2008).

  90. ƒ}ƒCƒNƒEƒiƒm\‘˘‚Ě‘nť‚ƍ\‘˘“ÁˆŮ“I•¨Ť‚đ—˜—p‚ľ‚˝•ŞÍƒVƒXƒeƒ€
    ă–ě vś, “ú–{•ŞÍ‰ťŠw‰ď‘ć56”N‰ď, F3017, “ż“‡‘ĺŠw, 9ŒŽ (2007).

  91. ‹ŕ‘Žƒiƒm\‘˘‚ŞŽŚ‚ˇŒő“dę‚Ě‹ÇÝ
    ă–ě vś, ŽOŕV O–ž, ƒAƒ‰ƒCƒAƒ“ƒX•Ş‰Č‰ďĺ‘äƒVƒ“ƒ|ƒWƒEƒ€ |V‹@”\ƒiƒmƒGƒŒƒNƒgƒƒjƒNƒX|, “Œ–k‘ĺŠw, 10ŒŽ, 2006.

  92. ‹ŕ‘Ž\‘˘‚ĚƒVƒ“ƒOƒ‹ƒiƒmƒ[ƒgƒ‹§Œä‚Ş‘ń‚­‰ž—p‹Zp
    ă–ě vś, ƒiƒmƒtƒHƒgƒjƒNƒX‘‡“I“WŠJ, “Œ‹ž‘ĺŠw, 10ŒŽ, 2006.

  93. ‹ŕ‘ŽƒiƒmŽüŠú\‘˘‚É‚ć‚鉝Šw”˝‰žę‚Ě‘nť‚ÉŒü‚Ż‚Ä
    ă–ě vś, ‘ć23‰ńƒ‰ƒCƒ‰ƒbƒNƒZƒ~ƒi[E‘ć12‰ńŽáŽčŒ¤‹†ŽŇŒđ—Ź‰ď, ‘ĺ‘ęƒZƒ~ƒi[ƒnƒEƒX, 6ŒŽ, 2006.

  94. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‚É‚ć‚é‹ŕ‘Žƒiƒm\‘˘‚ĚŒő“dę‘‹­ƒCƒ[ƒWƒ“ƒO
    ă–ě vś, ŽOŕV O–ž, “ú–{•ŞŒőŠw‰ď–kŠC“šŽx•”ƒVƒ“ƒ|ƒWƒEƒ€, –kŠC“š‘ĺŠw, 2ŒŽ, 2006.

  95. ”÷×‰ÁH‹Zp‚É‚ć‚é‹ŕ‘Žƒiƒm”÷—ąŽqŠÔ‚Ěƒiƒmƒ[ƒgƒ‹§Œä‚ĆŒő“dę‘‹­ę‚Ě‘nť
    ă–ě vś, ‘ć2‰ńŒő|•ŞŽq‹­Œ‹‡”˝‰žęŒ¤‹†‰ďu‰‰‰ď, –kŠC“š‘ĺŠw, 1ŒŽ, 2006.

  96. ‹ŕ‘Žƒiƒm\‘˘‘Ě‚Ş‘ń‚­•ŞÍ‰ťŠw
    ă–ě vśA‘ć21‰ń—ΉAƒZƒ~ƒi[, Ź’M‚¨‚ą‚΂żŽR‘‘, 6ŒŽ, 2005.

  97. ƒ|ƒŠƒ}[ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚Ě‘nť‚ƉťŠw“I‰ž—p
    ă–ě vśA–kŠC“š•ŞÍ‰ťŠw§—ăÜŽóÜu‰‰, –kŠC“š‘ĺŠw, 2ŒŽ, 2004

  98. ƒ|ƒŠƒ}[ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚Ě‘nť‚ƉťŠw“I‰ž—p
    ă–ě vś
    ‘ć17‰ń•ŞÍ‰ťŠw—ΉAƒZƒ~ƒi[, 4, ‘ĺ‘ęƒZƒ~ƒi[ƒnƒEƒXA9ŒŽ, 2001.

@˜_•ś@@‘ŕE‰đŕEProceedingE‘Đ‘ź@@ľ‘ҍu‰‰EŽóÜu‰‰@@Šw‰ďEu‰‰@@“Á‹–
@Šw‰ďEu‰‰

  1. Surface-plasmon enhanced terahertz spectroscopy using gold nanostructured terahertz antennae
    K. Ueno, S. Nozawa, H. Misawa, Pacifichem 2015 meeting, Hawaii Convention Center, Hawaii, USA, Dec. (2015).

  2. Ž_‰ťƒjƒbƒPƒ‹/‹ŕƒiƒm\‘˘/ƒ`ƒ^ƒ“Ž_ƒXƒgƒƒ“ƒ`ƒEƒ€‚đ—p‚˘‚˝‘SŒĹ‘Ěƒvƒ‰ƒYƒ‚ƒ“‘ž—z“d’r‚̍\’z
    ŕV–ö”Ž‹PA’†‘şŒ\—CA‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA2015”NŒő‰ťŠw“˘˜_‰ďA3P098A‘ĺăŽs—§‘ĺŠwA9ŒŽ (2015).

  3. ‹ŕƒiƒm\‘˘’SŽ’‚‰ťƒKƒŠƒEƒ€‚đ—p‚˘‚˝ƒvƒ‰ƒYƒ‚ƒ“—U‹NŒő“d•ĎŠˇƒVƒXƒeƒ€
    ‘‰i —œ‡‰ÔA‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA2015”NŒő‰ťŠw“˘˜_‰ďA3P074A‘ĺăŽs—§‘ĺŠwA9ŒŽ (2015).

  4. •\–Ę‘‹­ƒeƒ‰ƒwƒ‹ƒc•ŞŒő‚É‚ć‚鉝Šw”˝‰ž‚̒ǐŐ
    ă–ěvśA–ěŕV ăāAŽOŕVO–žA2015”NŒő‰ťŠw“˘˜_‰ďA3A04A‘ĺăŽs—§‘ĺŠwA9ŒŽ (2015).

  5. …‚đ“dŽqŒš‚Ć‚ľ‚˝’‚‘fŠŇŒł‚É‚ć‚éƒAƒ“ƒ‚ƒjƒAŒő‡Ź
    ‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA2015”NŒő‰ťŠw“˘˜_‰ďA3D01A‘ĺăŽs—§‘ĺŠwA9ŒŽ (2015).

  6. In-situ Measurement of Biotin-Streptavidin association using plasmon-induced photocurrent generation
    J. Guo, K. Ueno, T. Oshikiri, H. Misawa, 2015”NŒő‰ťŠw“˘˜_‰ďA2P010A‘ĺăŽs—§‘ĺŠwA9ŒŽ (2015).

  7. ƒiƒm\‘˘‚đ§Œä‚ľ‚˝”––Œƒvƒ‰ƒYƒ‚ƒ“‘ž—z“d’r‚̍쐻
    ’†‘şŒ\—CA•ĐŁ‹M‹`A‰ŸŘ—F–çAă–ěvśA‘ž“c—T“šAŽOŕVO–žA2015”NŒő‰ťŠw“˘˜_‰ďA1P038A‘ĺăŽs—§‘ĺŠwA9ŒŽ (2015).

  8. Near-field spectra of complementary metal nanostructures
    H. Mizobata, K. Ueno, H. Misawa, H. Okamoto, K. Imura, The 10th Memorial of Asia-Pacific Conference on Near-Field Optics (APNFO10), P2-24, Hakodate Research Center for Fisheries and Oceans, Hakodate, Japan, July (2015).

  9. Time-resolved Photoemission Electron Microscopy: A Versatile Tool for Accessing the Near Field and Dynamics of Plasmonic Antennae
    Q. Sun, H. Yu, K. Ueno, A. Kubo, Y. Matsuo, H. Misawa, 27th International Conference on Photochemistry, PP-OR-39, ICC JEJU, Jeju Island, Korea, July (2015).

  10. Higher-order Localized Surface Plasmon Resonances on Gold Nanostructures Probed by Photoemission Electron Microscopy
    H. Yu, Q. Sun, K. Ueno, A. Kubo, Y. Matsuo, H. Misawa, 27th International Conference on Photochemistry, PP-SOP-THU-18, ICC JEJU, Jeju Island, Korea, July (2015).

  11. Surface-enhanced Terahertz Spectroscopy of Amino Acid Molecules on Gold Nanostructured Terahertz Antennae
    K. Ueno, S. Nozawa, H. Misawa, 27th International Conference on Photochemistry, PP-OR-24, ICC JEJU, Jeju Island, Korea, June (2015).

  12. Improvement of Plasmon-Enhanced Photocurrent Generation by Interference of Titanium Dioxide Thin-film
    X Shi, K. Ueno, T. Oshikiri, H. Misawa, 27th International Conference on Photochemistry, AP-OR-20, ICC JEJU, Jeju Island, Korea, July (2015).

  13. Nitrogen Conversion to Ammonia via Plasmon-induced Charge Separation
    T. Oshikiri, K. Ueno, H. Misawa, 27th International Conference on Photochemistry, AP-OR-01, ICC JEJU, Jeju Island, Korea, June (2015).

  14. Near-Field Plasmon Coupling in Gold Nanochains Revealed by Photoemission Electron Microscopy
    Q. Sun, H. Yu, K. Ueno, A. Kubo, Y. Matsuo, H. Misawa, The 7th International Conference on Surface Plasmon Photonics (SPP7), Ramada Jerusalem Hotel, Jerusalem, Israel, June (2015).

  15. Improvement of Plasmon-Induced Water splitting by a Co-Catalyst for Hydrogen Evolution
    H. Misawa, Y. Zhong, Y. Mori, K. Ueno, T. Oshikiri, The 7th International Conference on Surface Plasmon Photonics (SPP7), Ramada Jerusalem Hotel, Jerusalem, Israel, June (2015).

  16. ƒvƒ‰ƒYƒ‚ƒ“—U‹NƒAƒ“ƒ‚ƒjƒA‡Ź‚ɑ΂ˇ‚é‘JˆÚ‹ŕ‘Ž‚̏•G”}Œř‰Ę
    ‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA“ú–{‰ťŠw‰ď‘ć95t‹G‘ĺ‰ďA3F9-28A“ú–{‘ĺŠwA3ŒŽ (2015).

  17. X. Shi, T. Oshikiri, K. Ueno, H. Misawa, UV irradiation effects on the plasmon-induced charge separation at Au nanoparticles loaded TiO2 photoelectrode, “ú–{‰ťŠw‰ď‘ć95t‹G‘ĺ‰ďA3F9-10A“ú–{‘ĺŠwA3ŒŽ (2015).

  18. ’‚‰ťƒKƒŠƒEƒ€‚đ—p‚˘‚˝ƒvƒ‰ƒYƒ‚ƒ“—U‹NŒő“d•ĎŠˇƒVƒXƒeƒ€‚̍\’z
    ‘‰i —œ‡‰ÔA‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA“ú–{‰ťŠw‰ď‘ć95t‹G‘ĺ‰ďA2F9-51A“ú–{‘ĺŠwA3ŒŽ (2015).

  19. ƒpƒ‹ƒXƒŒ[ƒU[‘͐ϖ@‚É‚ć‚é”––Œƒvƒ‰ƒYƒ‚ƒ“‘ž—z“d’r‚ĚŒő“d•ĎŠˇ“ÁŤ
    ’†‘şŒ\—CA•ĐŁ ‹M‹`A‰ŸŘ —F–çAă–ěvśA‘ž“c —T“šAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć95t‹G‘ĺ‰ďA2F9-50A“ú–{‘ĺŠwA3ŒŽ (2015).

  20. ‹ŕ‘Žƒiƒm\‘˘-F‘fJ ‰ď‡‘ĚƒnƒCƒuƒŠƒbƒhƒVƒXƒeƒ€‚É‚¨‚Ż‚é—ă‹NŽqƒ|ƒ‰ƒŠƒgƒ“‚ĚŠÉ˜aƒ_ƒCƒiƒ~ƒNƒX
    ăŒ´“ú˜aA‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA“ú–{‰ťŠw‰ď‘ć95t‹G‘ĺ‰ďA2H2-10A“ú–{‘ĺŠwA3ŒŽ (2015). ă–ěvśA–ěŕV ăāAŽOŕVO–žAŒőƒAƒ“ƒeƒiŒř‰Ę‚É‚ć‚é•\–Ę‘‹­ƒeƒ‰ƒwƒ‹ƒc•ŞŒőŒv‘ŞŒn‚̍\’zA“ú–{‰ťŠw‰ď‘ć95t‹G‘ĺ‰ďA1A7- 14A“ú–{‘ĺŠwA3ŒŽ (2015).

  21. Exploring the Fano resonance of dolmen structures in near field by PEEM
    H. Yu, Q. Sun, K. Ueno, Y. Matsuo, A. Kubo, H. Misawa, ‘ć62‰ń‰ž—p•¨—Šw‰ďt‹GŠwpu‰‰‰ďA13a-A15-3A“ŒŠC‘ĺŠwA3ŒŽ (2015).

  22. ƒeƒ‰ƒwƒ‹ƒc‘Ńˆć‚É‹¤–‚đ—L‚ˇ‚éŒőƒAƒ“ƒeƒi\‘˘‚Ě•ŞŒő“ÁŤ‚Ć•ŞŽqŒv‘Ş‚Ö‚Ě‰ž—p
    ă–ěvśA–ěŕV ăāAŽOŕV O–žA‘ć62‰ń‰ž—p•¨—Šw‰ďt‹GŠwpu‰‰‰ďA11a-A12-10A“ŒŠC‘ĺŠwA3ŒŽ (2015).

  23. ƒvƒ‰ƒYƒ‚ƒ“—U‹NƒAƒ“ƒ‚ƒjƒAŒő‡ŹF‰ÂŽ‹Œő‚̐…‘fƒLƒƒƒŠƒA‚Ö‚Ě•ĎŠˇ
    ‰ŸŘ —F–çAă–ěvśAŽOŕV O–žA‘ć24‰ń“ú–{MRS”NŽŸ‘ĺ‰ďAB-O10-010A‰Ą•lŽsŠJ`‹L”O‰ďŠŮA12ŒŽ (2014).

  24. Plasmon-induced light energy conversion on gold nanoparticles/semiconductor system
    H. Misawa, X. Shi, Y. Zhong, T. Oshikiri, K. Ueno, 2014 International Conference on Artificial Photosynthesis (ICARP2014), Awaji Yumebutai International Conference Center, Awaji City, Hyogo, November (2014).

  25. Thin film plasmonic solar cell constituted by gold nanostructured titanium dioxide and nickel oxide as a hole transport layer
    K. Nakamura, T. Oshikiri, K. Ueno, H. Misawa, 8th Asian Photochemistry Conference 2014 - APC-2014, Thiruvananthapuram, India, November (2014).

  26. Far-infrared and THz sensor using the principle of plasmon-induced radiation force
    K. Ueno, S. Nozawa, H. Itoh, W. Nakano, H. Misawa, 8th Asian Photochemistry Conference 2014 - APC-2014, Thiruvananthapuram, India, November (2014).

  27. ƒŒ[ƒU[’źÚ•`‰ć‚ƉÁ”M‚É‚ć‚é‰ÂŽ‹”g’ˇˆć‚ɃXƒgƒbƒvƒoƒ“ƒh‚đŽ‚Â3ŽŸŒłƒtƒHƒgƒjƒbƒNŒ‹ť‚̍쐻
    í”Ő —Ű–çA‘ˇ ňAă–ěvśAŽOŕV O–žA2014”NŒő‰ťŠw“˘˜_‰ďA3P076, –kŠC“š‘ĺŠw, 10ŒŽ (2014).

  28. Plasmon-enhanced Photocurrent Generation on Nano-patterned TiO2 Single Crystal Electrode
    X. Shi, K. Ueno, T. Oshikiri, H. Misawa, 2014”NŒő‰ťŠw“˘˜_‰ďA3P059, –kŠC“š‘ĺŠw, 10ŒŽ (2014).

  29. ‹ŕƒiƒm\‘˘\J‰ď‡‘Ě•ŞŽqƒnƒCƒuƒŠƒbƒhƒVƒXƒeƒ€‚É‚¨‚Ż‚éƒvƒ‰ƒYƒ‚ƒ“\—ă‹NŽq‹­Œ‹‡ó‘Ô‚Ć‚ť‚ĚŒő“dę‘‹­Œř‰Ę
    ăŒ´“ú˜aA‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA2014”NŒő‰ťŠw“˘˜_‰ďA3P052, –kŠC“š‘ĺŠw, 10ŒŽ (2014).

  30. ‰ÂŽ‹Œő‚ɉž“š‚ˇ‚é‹ÇÝ•\–Ęƒvƒ‰ƒYƒ‚ƒ“—U‹NƒAƒ“ƒ‚ƒjƒA‡ŹƒfƒoƒCƒX‚̍쐻
    ‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA2014”NŒő‰ťŠw“˘˜_‰ďA3D03, –kŠC“š‘ĺŠw, 10ŒŽ (2014).

  31. Near Field and Dynamics of Surface Plasmon Dark States in Gold Nanoblocks Revealed by PEEM
    H. Yu, Q. Sun, A. Kubo, Y. Matsuo, K. Ueno, H. Misawa, 2014”NŒő‰ťŠw“˘˜_‰ďA2P096, –kŠC“š‘ĺŠw, 10ŒŽ (2014).

  32. •\–Ę‘‹­ƒeƒ‰ƒwƒ‹ƒc•ŞŒőŒv‘ŞŒn‚̍\’z
    –ěŕV ăāAă–ěvśAŽOŕV O–žA2014”NŒő‰ťŠw“˘˜_‰ďA2P095, –kŠC“š‘ĺŠw, 10ŒŽ (2014).

  33. Ž_‰ťƒjƒbƒPƒ‹”––Œ‚đƒz[ƒ‹ˆÚ“Ž‘w‚Ć‚ľ‚˝‘SŒĹ‘Ěƒvƒ‰ƒYƒ‚ƒ“‘ž—z“d’r‚̍쐻
    ’†‘şŒ\—CA‰ŸŘ—F–çAă–ěvśAŽOŕVO–žA2014”NŒő‰ťŠw“˘˜_‰ďA1P109, –kŠC“š‘ĺŠw, 10ŒŽ (2014).

  34. –Ԗڏó‹ŕƒiƒm\‘˘‘Ě‚É‚¨‚Ż‚éƒvƒ‰ƒYƒ‚ƒ““ÁŤ‚Ě‹†–ž
    Žsě —zˆęAă–ěvśAŽOŕV O–žA‰Ş–{ —T–¤Aˆä‘ş l•˝A‘ć8‰ń•ŞŽq‰ČŠw“˘˜_‰ďA4P022AL“‡‘ĺŠwA9ŒŽ (2014).

  35. ‘Š•â“I‹ŕ‘Žƒiƒm\‘˘‚É‚¨‚Ż‚é‹ßÚę•ŞŒő“ÁŤ‚Ě‹†–žF‰ÂŽ‹ˆć‚É‚¨‚Ż‚éƒoƒrƒl‚ĚŒ´—‚ĚŒŸŘ
    a’[G‘Aă–ěvśAŽOŕVO–žA‰Ş–{—T–¤Aˆä‘şl•˝A‘ć75‰ń‰ž—p•¨—Šw‰ďH‹GŠwpu‰‰‰ďA17a-C1-13A–kŠC“š‘ĺŠwA9ŒŽ (2015).

  36. THz sensor based on the principle of plasmon-indued radiation force
    K. Ueno, H. Itoh, W. Nakano, S. Nozawa, H. Misawa, PIERS 2014, Guangzhou, China, August (2014).

  37. Photoelectrochemical water splitting enhanced by plasmon resonance under visible light illumination
    Y. Zhong, Y. Mori, K. Ueno, T. Oshikiri, H. Misawa, , PIERS 2014, Guangzhou, China, August (2014).

  38. Near field and dynamics in gold nanoparticles probed by photoemission electron microscopy
    H. Yu, Q. Sun, A. Kubo, Y. Matsuo, K. Ueno, H. Misawa, The 1st Korea-Japan Bilateral Workshop on Functional Materials Science -Thermoelectrics, Spintronics, Low-dimensional Materials, and Soft Matter-, Hokkaido Univ., Sapporo, Hokkaido, August (2014).

  39. Plasmon-induced light energy conversion on gold nanoparticles/semiconductor system
    X. Shi, K. Ueno, Y. Zhong, T. Oshikiri, H. Misawa, The 1st Korea-Japan Bilateral Workshop on Functional Materials Science -Thermoelectrics, Spintronics, Low-dimensional Materials, and Soft Matter-, Hokkaido Univ., Sapporo, Hokkaido, August (2014).

  40. Plasmon-enhanced Terahertz sensor using gold nanostructured optical antenna
    K. Ueno, S. Nozawa, H. Misawa, XXVth IUPAC Symposium on Photochemistry, P229, The Congress Center of Bordeaux, Bordeaux, France, July (2014).

  41. Plasmon-induced ammonia synthesis with visible light irradiation
    T. Oshikiri, K. Ueno, H. Misawa, XXVth IUPAC Symposium on Photochemistry, P316, The Congress Center of Bordeaux, Bordeaux, France, July (2014).

  42. Plasmon-induced radiation force with far-infrared light and its application to imaging camera
    K. Ueno, H. Itoh, W. Nakano, S. Nozawa, H. Misawa, Optical Manipulation Conferencef14 (OMCf14), OMC4-7, Pacifico Yokohama, April (2014).

  43. Œ´Žq‘w‘͐ϖ@‚É‚ć‚éŽ_‰ťƒ`ƒ^ƒ“”––Œ‚đ—p‚˘‚˝ƒvƒ‰ƒYƒ‚ƒ“—U‹NŒő“d•ĎŠˇ
    ’†‘ş Œ\—SAŠ™“c ‹`bAÎ ˆŽA‰ŸŘ —F–çAă–ě vśAŽOŕV@O–žA“ú–{‰ťŠw‰ď‘ć94t‹G‘ĺ‰ďA2H2-15A–źŒĂ‰Ž‘ĺŠwA3ŒŽ (2014).

  44. Fabrication of gold nanostructured titanium dioxide photoelectrodes and its photocurrent generation properties
    K. Nakamura, Y. Kamata, T. Oshikiri, K. Ueno, H. Misawa, THE 14th RIES-HOKUDAI International Symposium –Ô [mou], P49, CHATERAISE Gateaux Kingdom SAPPORO, Dec (2013).

  45. Plasmonic properties of Al nanostructures from visible to near-IR for solar system applications, O. Lecarme, Q. Sun, K. Ueno, H. Misawa, THE 14th RIES-HOKUDAI International Symposium –Ô [mou], P37, CHATERAISE Gateaux Kingdom SAPPORO, Dec (2013).

  46. Plasmon assisted photoelectrochemical synthesis of ammonia using strontium titanate bearing gold-nanoislands and ruthenium, T. Oshikiri, K. Ueno, H. Misawa, THE 14th RIES-HOKUDAI International Symposium –Ô [mou], P57, CHATERAISE Gateaux Kingdom SAPPORO, Dec (2013).

  47. Revealing the plasmon coupling in gold nanostructures directly from near field by PEEM
    Q. Sun, H. Yu, K. Ueno, H. Misawa, THE 14th RIES-HOKUDAI International Symposium –Ô [mou], P70, CHATERAISE Gateaux Kingdom SAPPORO, Dec (2013).

  48. Dynamics of plasmon-molecule strong coupling in a hybrid system of silver nanostructures and cyanine dye
    H. Uehara, T. Oshikiri, K. Ueno, H. Misawa, THE 14th RIES-HOKUDAI International Symposium –Ô [mou], P78, CHATERAISE Gateaux Kingdom SAPPORO, Dec (2013).

  49. ‹ŕƒiƒm\‘˘^ƒ`ƒ^ƒ“Ž_ƒXƒgƒƒ“ƒ`ƒEƒ€Šî”‚ɂć‚éƒvƒ‰ƒYƒ‚ƒ“‹¤–Â‚đ—˜—p‚ľ‚˝…‚ĚŒő“d‹C•Ş‰đ
    ă–ě vśAY. ZhongAX —LŽqAŽOŕV O–žA‘ć23‰ń“ú–{MRS”NŽŸ‘ĺ‰ďAD-O10-012A‰Ą•lŽsŠJ`‹L”O‰ďŠŮA12ŒŽ (2013).

  50. ƒiƒmƒMƒƒƒbƒv‹ŕƒ`ƒFƒCƒ“\‘˘‚đ—p‚˘‚˝‰“ÔŠOŒőĆŽË‚É‚ć‚éƒvƒ‰ƒYƒ‚ƒ“•úŽËˆł‚Ě—U‹N
    ă–ě vśAˆÉ“Ą OŽqA’†–ě ˜a‰ŔŽqA–ěŕV ăāAŽOŕV O–žA2013”NŒő‰ťŠw“˘˜_‰ďA3B05Aˆ¤•Q‘ĺŠwA9ŒŽ (2013).

    Plasmon-assisted water splitting with visible light irradiation using gold nanoislands loaded strontium titanate
    Y. Zhong, Y. Mori, X. Shi, T. Oshikiri, K. Ueno, H. Misawa, 3B04, 2013”NŒő‰ťŠw“˘˜_‰ďAˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  51. Spectral properties of Al nanorods on SrTiO3 for photocurrent generation
    O. Lecarme, X. Shi, K. Ueno, H. Misawa, 2013”NŒő‰ťŠw“˘˜_‰ďAˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  52. ‹ŕƒiƒm\‘˘^ƒ`ƒ^ƒ“Ž_ƒXƒgƒƒ“ƒ`ƒEƒ€^ƒ‹ƒeƒjƒEƒ€G”}‚đ—p‚˘‚˝ƒAƒ“ƒ‚ƒjƒA‚ĚŒő“d‹C‰ťŠw“I‡Ź
    ‰ŸŘ —F–çAă–ě vśAŽOŕV@O–žA2013”NŒő‰ťŠw“˘˜_‰ďAˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  53. ‹âƒiƒm\‘˘^Ž_‰ťƒ`ƒ^ƒ““d‹É‚đ—p‚˘‚˝‘SŒĹ‘Ěƒvƒ‰ƒYƒ‚ƒ“‘ž—z“d’r‚ĚŒő“d•ĎŠˇ“ÁŤ
    Š™“c ‹`bA‰ŸŘ —F–çAă–ě vśAŽOŕV O–žA2013”NŒő‰ťŠw“˘˜_‰ďAˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  54. Œő“dŽqŒ°”÷‹ž‚đ—p‚˘‚˝Ď‘wŒ^ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚É‚¨‚Ż‚éŒő“dę‘‹­Œř‰Ę‚ĚŒŸ“˘
    ź’Ë —S‹MAO. LecarmeA‘ˇ ňA‰ŸŘ —F–çAă–ě vśAŽOŕV O–žA2013”NŒő‰ťŠw“˘˜_‰ďA2P097. ˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  55. ‹âƒiƒm\‘˘|ƒVƒAƒjƒ“F‘fƒnƒCƒuƒŠƒbƒhƒVƒXƒeƒ€‚É‚¨‚Ż‚éƒvƒ‰ƒYƒ‚ƒ“|—ă‹NŽq‹­Œ‹‡ó‘Ô‚Ěƒ_ƒCƒiƒ~ƒNƒX‚ĆŒő“dę‘‹­
    ăŒ´ “ú˜aA‰ŸŘ —F–çAă–ě vśAŽOŕV O–žA2013”NŒő‰ťŠw“˘˜_‰ďAˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  56. Dynamics of localized surface plasmon of gold nanostructures on titanium dioxide probed by time-resolved photoemission electron microscopy
    Q. Sun, Y. Han, K. Ueno, H. Misawa, 2013”NŒő‰ťŠw“˘˜_‰ďAˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  57. ƒ|ƒŠƒ}[‚đŠîŢ‚Ć‚ľ‚˝‹ŕƒiƒm\‘˘^Ž_‰ťƒ`ƒ^ƒ““d‹É‚̍쐻‚ĆŒő“d•ĎŠˇ“ÁŤ
    ’†‘ş Œ\—CAŠ™“c ‹`bA‰ŸŘ —F–çAă–ě vśAŽOŕV O–žA2013”NŒő‰ťŠw“˘˜_‰ďAˆ¤•Q‘ĺŠwA9ŒŽ (2013).

  58. Volume phase transition of polymer gel induced by plasmonic optical trapping with infrared radiation
    K. Ueno, S. Nozawa, H. Itoh, W. Nakano, H. Misawa, SPIE Optics + Photonics 2013, 8810-36, San Diego, United States of America, August (2013).

    Ag, Coƒiƒmƒƒbƒh\‘˘‚đ’SŽ‚ľ‚˝TiO2”––Œ‚ĚŒő“d•ĎŠˇ
    “n•” ˆ¤—AŹ’| —EŒČAŠ™“c ‹`bA‹ßź ˛AœAŁ –őAă–ě vśA’ˇ’Jě “N–çAŽOŕV O–žA‰t‘w‚–§“xƒGƒlƒ‹ƒM[ƒiƒm”˝‰žęƒVƒ“ƒ|ƒWƒEƒ€(‘ć5‰ń“ú–{‰ťŠw‰ďV—ĚˆćŒ¤‹†ƒOƒ‹[ƒvu‰t‘Š‚–§“xƒGƒlƒ‹ƒM[ƒiƒm”˝‰žęvŒ¤‹†‰ď)AŽY‹Ć‹Zp‘‡Œ¤‹†Š@—ŐŠC•›“sSƒZƒ“ƒ^[A8ŒŽ (2013).

  59. Plasmonic solar cell using silver nanoparticles loaded titanium dioxide photoelectrode
    Y. Kamata, K. Ueno, T. Oshikiri, H. Misawa, 26th International Conference on Photochemistry (ICP 2013), KU Leuven, Leuven, Belgium, July (2013).

  60. Plasmonic properties of thin aluminum nanostructures for application in NIR solar cells
    O. Lecarme, K. Ueno, H. Misawa, 26th International Conference on Photochemistry (ICP 2013), KU Leuven, Leuven, Belgium, July (2013).

  61. Spectral properties and visualization of dark plasmon mode induced by stacked nanogap gold structures
    Y. Matsuzuka, Q. Sun, O. Lecarme, K. Ueno, H. Misawa, 26th International Conference on Photochemistry (ICP 2013), P21, KU Leuven, Leuven, Belgium, July (2013).

  62. Fabrication and characterization of 3-D metallic photonic crystals by direct laser writing and atomic layer deposition T. Tokiwa, Q. Sun, T. Ohikiri, K. Ueno, H. Misawa, 26th International Conference on Photochemistry (ICP 2013), KU Leuven, Leuven, Belgium, July (2013).

  63. Plasmon-induced volume phase transition of polymer gel with infrared light radiation
    K. Ueno, S. Nozawa, H. Itoh, W. Nakano, H. Misawa, 26th International Conference on Photochemistry (ICP 2013), KU Leuven, Leuven, Belgium, July (2013).

  64. Local surface plasmon resonance and photoelectric conversion of TiO2 films with self-assembled Ag/Co nanostructures
    A. Watanabe, Y. Kotake, A. Chikamatsu, K. Ueno, H. Misawa, T. Hasegawa, 26th International Conference on Photochemistry (ICP 2013), KU Leuven, Leuven, Belgium, July (2013).

  65. Plasmon-induced radiation force with infrared light radiation
    S. Nozawa, K. Ueno, H. Itoh, W. Nakano, H. Misawa, Symposium on Plasmon-based Chemistry and Physics (ICP2013 preconference), KU Leuven, Leuven, Belgium, July (2013).

  66. Fabrication and spectral characterization of stacked nanogap gold structures
    Y. Matsuzuka, Q. Sun, O. Lecarme, K. Ueno, H. Misawa, Symposium on Plasmon-based Chemistry and Physics (ICP2013 preconference), P14, KU Leuven, Leuven, Belgium, July (2013).

  67. Plasmon-Assisted Water Splitting
    H. Misawa, Y. Zhong, X. SHi, K. Ueno, The 6th International Conference on Surface Plasmon Photonics, Th-30-D-4, Ottawa, Canada, May (2013).

  68. Nano-Engineered Plasmonic Metallic Nanostructures
    K. Ueno, S. Nozawa, H. Itoh, W. Nakano, H. Misawa, The 6th International Conference on Surface Plasmon Photonics, Mo-27-P-92, Ottawa, Canada, May (2013).

  69. ƒtƒFƒ€ƒg•bƒŒ[ƒU[’źÚ•`‰ć‹y‚ŃŒ´Žq‘w‘͐ϖ@‚É‚ć‚é3ŽŸŒł‹ŕ‘ŽƒtƒHƒgƒjƒbƒNŒ‹ť‚̍쐻
    í”Ő —Ű–çA‘ˇ ňAă–ě vśAŽOŕV O–žA‘ć60‰ń‰ž—p•¨—Šw‰ďt‹GŠwpu‰‰‰ďA28p-C1-7A_“ސěH‰Č‘ĺŠwA3ŒŽ (2013).

  70. Near-field properties of plasmonic nanostructures probed by nonlinear photoemission electron microscopy
    Q. SunCH. YuCK. UenoCA. KuboCY. MatsuoCH. Misawa, ‘ć60‰ń‰ž—p•¨—Šw‰ďt‹GŠwpu‰‰‰ďA27p-A1-3A_“ސěH‰Č‘ĺŠwA3ŒŽ (2013).

  71. ‘SŒĹ‘Ěƒvƒ‰ƒYƒ‚ƒ“‘ž—z“d’r‚Ě‘nť‚ĆŒő“d•ĎŠˇ“ÁŤ
    ă–ě vśAŹ’| —EŒČAÎ ˆŽAŽOŕV O–žA‘ć60‰ń‰ž—p•¨—Šw‰ďt‹GŠwpu‰‰‰ďA27p-A1-2A_“ސěH‰Č‘ĺŠwA3ŒŽ (2013).

  72. Ag, Coƒiƒm\‘˘‚đ—L‚ˇ‚éTiO2”––Œ‚ĚŒő“d•ĎŠˇ
    “n•” ˆ¤—AŹ’| —EŒČA‹ßź ˛AœAŁ –őAă–ě vśA’ˇ’Jě “N–çAŽOŕV O–žA‘ć60‰ń‰ž—p•¨—Šw‰ďt‹GŠwpu‰‰‰ďA27p-A1-1A_“ސěH‰Č‘ĺŠwA3ŒŽ (2013).

  73. ‹ŕƒiƒm—ąŽqł•ű”z—ń‚É‚¨‚Ż‚é‹ßÚę•ŞŒő“ÁŤ‚ĚŒ¤‹†
    Žsě —zˆęAĄŽ} ‰Ŕ—SAă–ě vśAŽOŕV O–žA‰Ş–{ —T–¤Aˆä‘ş l•˝A“ú–{‰ťŠw‰ď‘ć93t‹G”N‰ďA3G7-29A—§–˝ŠŮ‘ĺŠwA3ŒŽ (2013).

  74. ‹ŕƒiƒm—ąŽqŠÔ‚É—U‹N‚ł‚ę‚é‹ßÚę‘ŠŒÝě—p‚ĚŒő“dŽqŒ°”÷ƒCƒ[ƒWƒ“ƒO
    ˜° ŕjA‘ˇ ňAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć93t‹G”N‰ďA3C2-17A—§–˝ŠŮ‘ĺŠwA3ŒŽ (2013).

  75. ƒiƒmƒMƒƒƒbƒv‹ŕƒ`ƒFƒCƒ“\‘˘‚Ěƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ‚ƐԊOŒőĆŽË‚É‚ć‚é•úŽËˆł‚Ě—U‹N
    –ěŕV ăāAˆÉ“Ą OŽqA’†–ě ˜a‰ŔŽqAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć93t‹G”N‰ďA3C2-16A—§–˝ŠŮ‘ĺŠwA3ŒŽ (2013).

  76. Ď‘wŒ^ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚Ěƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ‚ĆŒő“dę‘‹­Œř‰Ę
    ź’Ë —S‹MAO. LecarmeAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć93t‹G”N‰ďA3C2-15A—§–˝ŠŮ‘ĺŠwA3ŒŽ (2013).

  77. ‹ŕƒiƒm\‘˘^Ž_‰ť•¨”ź“ą‘̊ւ̉Ž‹ŒőĆŽË‚ÉŠî‚Ă‚­…‚ĚŒő“d‹C•Ş‰đ
    ŕ ‹ĘáüAÎ ˆŽAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć93t‹G”N‰ďA3B2-06A—§–˝ŠŮ‘ĺŠwA3ŒŽ (2013).

  78. •ŞŒő“d‹C‰ťŠw‘Ş’č‚É‚ć‚éƒvƒ‰ƒYƒ‚ƒ“—U‹N“dŽqˆÚ“Ž”˝‰ž‚̒ǐŐ
    Î ˆŽAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć93t‹G”N‰ďA3B2-04A—§–˝ŠŮ‘ĺŠwA3ŒŽ (2013).

  79. ‹âƒiƒm\‘˘‚đ—p‚˘‚˝ƒvƒ‰ƒYƒ‚ƒ“Œő“d•ĎŠˇƒVƒXƒeƒ€‚̍\’z
    Š™“c ‹`bAŹ’| —EŒČAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć93t‹G”N‰ďA3B2-01A—§–˝ŠŮ‘ĺŠwA3ŒŽ (2013).

  80. Plasmon-enhanced photocurrent generation and water oxidation with gold nanoislands-loaded titanium dioxide electrode
    X. Shi, K. Ueno, H. Misawa, The 13th RIES-Hokudai International Symposium "—Ľ" Joined with the 1st International Symposium of Nano-Macro Materials, Devices, and System Research Alliance Project, P-50, Sapporo, December (2012).

  81. Plasmon-molecule strong coupling in a hybrid system of silver nanostructures and phthalocyanine molecules
    H. Uehara, K. Ueno, H. Misawa, The 13th RIES-Hokudai International Symposium "—Ľ" Joined with the 1st International Symposium of Nano-Macro Materials, Devices, and System Research Alliance Project, P-49, Sapporo, December (2012).

  82. Plasmon-molecule strong coupling in silver-phthalocyanine nanostructures
    H. Uehara, K. Ueno, H. Misawa, 7th Asian Photochemistry Conference 2012 (APC 2012), PII-33, Osaka, November (2012).

  83. Infrared Sensors with Plasmonic Nanoantenna
    K. Ueno, H. Itoh, W. Nakano, H. Yaza, H. Misawa, 7th Asian Photochemistry Conference 2012 (APC 2012), PII-32, Osaka, November (2012).

  84. Plasmon resonant enhanced photocurrent conversion and water oxidation with gold nanoisland loaded titanium dioxide photoelectrode
    X. Shi, K. Ueno, H. Misawa, 7th Asian Photochemistry Conference 2012 (APC 2012), PII-31, Osaka, November (2012).

  85. Nonlinear mapping of surface plasmon resonance field by multi-photon photoemission electron microscopy
    H. Yu, Q. Sun, K. Ueno, A. Kubo, Y. Matsuo, H. Misawa, 7th Asian Photochemistry Conference 2012 (APC 2012), PII-30, Osaka, November (2012).

  86. Microfluidic devices for fractionation of DNA fragments
    K. Sun, Z. Li, K. Ueno, N. Ren, H. Misawa, 16th International Conference on Miniaturized Systems for Chemistry and Life Sciences, Okinawa, Japan, October (2012).

  87. ƒvƒ‰ƒYƒ‚ƒjƒbƒN•¨Žż‚É‚¨‚Ż‚éŒő“dę‚̉Ž‹‰ť‚Ɛ§Œä
    ˆä‘şl•˝AĄŽ}‰Ŕ—SAă–ěvśAŽOŕVO–žA‰Ş–{—T–¤A‘ć6‰ń•ŞŽq‰ťŠw“˘˜_‰ďA4D17A“Œ‹ž‘ĺŠwA9ŒŽ (2012).

  88. ‹ŕƒiƒmƒAƒCƒ‰ƒ“ƒh^Ž_‰ťƒ`ƒ^ƒ““d‹É‚đ—p‚˘‚˝‘SŒĹ‘Ě‘ž—z“d’r‚ĚŒő“d•ĎŠˇ“ÁŤ
    Ź’|—EŒČAÎ ˆŽAă–ěvśAŽOŕVO–žA2012”NŒő‰ťŠw“˘˜_‰ďA3P094A9ŒŽ (2012).

  89. ‘˝ŒőŽqŒő“dŽqŒ°”÷‹ž‚É‚ć‚é‹ÇÝ•\–Ęƒvƒ‰ƒYƒ‚ƒ“‚̉Ž‹‰ť‚Ć‚ť‚Ěƒ_ƒCƒiƒ~ƒNƒX
    ˜° ŕjE‘ˇ ňAă–ěvśA‹v•Ű “ցAź”ö•ŰFAŽOŕVO–žA2012”NŒő‰ťŠw“˘˜_‰ďA3P093A9ŒŽ (2012).

  90. ƒeƒ‰ƒwƒ‹ƒc‘Ńˆć‚É‚¨‚Ż‚éƒiƒmƒMƒƒƒbƒv‹ŕƒ`ƒFƒCƒ“\‘˘‚Ě•ŞŒő“ÁŤ
    –ěŕV ăāAˆÉ“ĄOŽqA’†–ě ˜a‰ŔŽqAă–ěvśAŽOŕVO–žA2012”NŒő‰ťŠw“˘˜_‰ďA3P092A9ŒŽ (2012).

  91. ƒVƒŠƒRƒ“”––Œă‚ÉŒ`Ź‚ľ‚˝ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚Ě‹@ŠB“I‚ČƒMƒƒƒbƒv•§Œä‚ĆŽU—•ŞŒő“ÁŤ
    –îŔŠ°lAˆÉ“ĄOŽqA’†–ě ˜a‰ŔŽqAă–ěvśAŽOŕVO–žA2012”NŒő‰ťŠw“˘˜_‰ďA3P091A9ŒŽ (2012).

  92. 3ŽŸŒł‹ŕ‘ŽƒtƒHƒgƒjƒbƒNŒ‹ť‚Ě•ŞŒő“ÁŤ
    í”Ő—Ű–çA‘ˇ ňAă–ěvśAŽOŕVO–žA2012”NŒő‰ťŠw“˘˜_‰ďA3P090A9ŒŽ (2012).

  93. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‚É‚ć‚éŒő“d•ĎŠˇ
    ŽOŕVO–žAÎ ˆŽA‘ˇ ňAŹ’|—EŒČAă–ěvśA2012”NŒő‰ťŠw“˘˜_‰ďA3C11A9ŒŽ (2012).

  94. ƒvƒ‰ƒYƒ‚ƒjƒbƒNƒAƒ“ƒeƒi‚đ—p‚˘‚˝ÔŠOŒőƒZƒ“ƒT[‚̍\’z
    ă–ěvśAˆÉ“ĄOŽqA’†–ě ˜a‰ŔŽqA–îŔŠ°lA–ěŕV ăāA‘ˇ ňAŽOŕVO–žA2012”NŒő‰ťŠw“˘˜_‰ďA3C09A9ŒŽ (2012).

  95. ‹ŕ‚ĚŒ‹ť\‘˘‚Ş—^‚Ś‚é‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‹¤–ƒXƒyƒNƒgƒ‹‚ւ̉e‹ż
    ź’Ë—S‹MAă–ěvśA‘ˇ ňAŽOŕVO–žA2012”NŒő‰ťŠw“˘˜_‰ďA2P106A9ŒŽ (2012).

  96. Au”÷×\‘˘‚đ•Ą‡‚ł‚š‚˝‚–§“xSiƒiƒmƒfƒBƒXƒN‚É‚¨‚Ż‚é”­Œő“ÁŤ
    —› ÝC’†ŽĄŒő“śC–Řę—˛”VCŒÜ\—’ ˝CŠŚě˝“ńC˛‹vŠÔ ŽŔCă–ěvśCŽOŕVO–žC‘şŽR–žG, ‘ć73‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 11a-F1-5, ˆ¤•Q‘ĺŠw, 9ŒŽ (2012).

  97. ƒvƒ‰ƒYƒ‚ƒjƒbƒNƒPƒ~ƒXƒgƒŠ[
    K. Ueno, ƒiƒmť‘˘‹ZpŒ¤‹†‰ď@‘ć1‰ńƒ[ƒNƒVƒ‡ƒbƒv u‹@”\Ťƒiƒmƒ}ƒeƒŠƒAƒ‹V‹K‘nŹ‚̉”\Ťv, –kŠC“š‘ĺŠw, 8ŒŽ (2012).

  98. ƒvƒ‰ƒYƒ‚ƒ“‘‹­‰ťŠw”˝‰žę‚Ě‘nŹ
    ă–ě vśA‘ć2‰ńŒő‰ČŠwˆŮ•Ş–쉥’f–G‰čŒ¤‹†‰ď, •ŞŽq‰ČŠwŒ¤‹†Š, 8ŒŽ (2012).

  99. Nanolithography using plasmon-enhanced two-photon-induced photochemical reactions
    K. Ueno, H. Itoh, W. Nakano, H. Misawa, XXIV IUPAC symposium on photochemistry, PO304, Coimbra, Portugal, July (2012).

  100. Plasmon-enhanced photocurrent generation using gold nanoparticles loaded TiO2 Photoelectrode
    K. Ueno, H. Misawa, X. Shi, Q. Sun, XXIV IUPAC symposium on photochemistry, OC36, Coimbra, Portugal, July (2012).

  101. Probing femtosecond plasmon dynamics in gold nanostructures by time-resolved multi-photon photoemission microscopy
    Q. Sun, K. Ueno, A. Kubo, Y. Matsuo, H. Misawa, Yamada Conference LXVI International Conference on the Nanostructure-Enhanced Photo-Energy Conversion, P051, The National Museum of Emerging Science and Innovation (Miraikan), Japan, June (2012).

  102. Enhancement of luminescence intensity of dye molecules using nano-engineered gold structures
    Y. Teng, X. Shi, D. Aoyo, Y. Zhang, K. Ueno, H. Misawa, J. Qiu, Yamada Conference LXVI International Conference on the Nanostructure-Enhanced Photo-Energy Conversion, P041, The National Museum of Emerging Science and Innovation (Miraikan), Japan, June (2012).

  103. Plasmon-enhanced photcurrent generation using gold nanoisland loaded titanium dioxide
    X. Shi, K. Ueno, H. Misawa, Yamada Conference LXVI International Conference on the Nanostructure-Enhanced Photo-Energy Conversion, P040, The National Museum of Emerging Science and Innovation (Miraikan), Japan, June (2012).

  104. Plasmon-assisted nanolithography using gold nanostructured photomasks
    K. Ueno, K. Onishi, H. Itoh, H. Misawa, Yamada Conference LXVI International Conference on the Nanostructure-Enhanced Photo-Energy Conversion, P039, The National Museum of Emerging Science and Innovation (Miraikan), Japan, June (2012).

  105. Transient absorption spectroscopy and coherent acoustic phonon dynamics of gold nanorods
    S. Takeda, L. Wang, Y. Nishijima, K. Ueno, H. Misawa, N. Tamai, Yamada Conference LXVI International Conference on the Nanostructure-Enhanced Photo-Energy Conversion, P028, The National Museum of Emerging Science and Innovation (Miraikan), Japan, June (2012).

  106. Plasmon coupling and coherent acoustic phonon dynamics of periodic gold pair nanocuboids by near-IR transient absorption spectroscopy
    L. Wang, Y. Nishijima, K. Ueno, H. Misawa, N. Tamai, Yamada Conference LXVI International Conference on the Nanostructure-Enhanced Photo-Energy Conversion, P022, The National Museum of Emerging Science and Innovation (Miraikan), Japan, June (2012).

  107. Direct Imaging of Surface Plasmon Resonant Fields of Gold Nanostructures by Multi-Photon Photoemission Microscopy
    Q. Sun, K. Ueno, A. Kubo, Y. Zhang, X. Shi, Y. Matuso, H. Misawa, The Sixth International Conference on Nanophotonics, Peking University, Beijin, China, May (2012).

  108. Plasmon-enhanced photocurrent generation using gold nanoparticles loaded titanium dioxide
    X. Shi, K. Ueno, H. Misawa, The Sixth International Conference on Nanophotonics, Peking University, Beijin, China, May (2012).

  109. Œő|•ŞŽq‹­Œ‹‡”˝‰žę‚đ—p‚˘‚˝‰ÂŽ‹E‹ßÔŠOŒő“d•ĎŠˇƒVƒXƒeƒ€
    ă–ěvśAŽOŕVO–žAH23ƒAƒ‰ƒCƒAƒ“ƒXŹ‰Ę•ń‰ďA“Œ‹žH‹Ć‘ĺŠwA4ŒŽ (2012).

  110. ‹ŕƒiƒm\‘˘‘̂̒ቡ‚É‚¨‚Ż‚é‰ß“n‹zŽű•ŞŒő‚ĆƒRƒq[ƒŒƒ“ƒg‰š‹żƒtƒHƒmƒ“ƒ_ƒCƒiƒ~ƒNƒX
    ’|“cË•˝A‰¤ 䝁Aź“‡Šě–žAă–ěvśAŽOŕVO–žA‹ĘˆäŽ“oA“ú–{‰ťŠw‰ď‘ć92t‹G”N‰ďA1A5-26AŒcœä‹`m‘ĺŠwA3ŒŽ (2012).

  111. •\–Ęƒvƒ‰ƒYƒ‚ƒ“‘‹­çtŽËˆł‚đ—p‚˘‚˝ƒiƒm—ąŽq‚ĚŒő•ß‘¨F•ß‘¨Œř—Ś‚Ě‹ŕƒiƒmƒMƒƒƒbƒv\‘˘‚¨‚ć‚Ń—ă‹NŒőŒšˆË‘śŤ
    “ŒŠC—Ń —ł–çAŽÄ“c˜HŽqAŠě‘˝‘ş úfA‚Ł •‘A‘ş‰z ŒhAź“‡Šě–žAă–ěvśAŽOŕVO–žA…Œł‹`•FAÎŒ´ ˆęA’Řˆä‘×”VA“ú–{‰ťŠw‰ď‘ć92t‹G”N‰ďA3A3-46AŒcœä‹`m‘ĺŠwA3ŒŽ (2012).

  112. ‹ŕƒiƒm—ąŽq/Ž_‰ťƒ`ƒ^ƒ“’PŒ‹ť“d‹É‚ĚŒő“d•ĎŠˇ“ÁŤ
    Î ˆŽAă–ěvśAŽOŕVO–žAu“ú–{‰ťŠw‰ď‘ć92t‹G”N‰ďA2C4-09AŒcœä‹`m‘ĺŠwA3ŒŽ (2012).

  113. §Œä‚ł‚ę‚˝‹ŕ‘Žƒiƒm\‘˘‚đ—p‚˘‚˝”­ŒőŤ•¨Žż‚Ě”­Œő‘‹­
    Ÿě ‰FAÎ ˆŽAÂ—z‘ĺ•ăA’Ł —CęA•“ĄŤ[Aă–ěvśAŽOŕVO–žAçˇ Œš‰hA“ú–{‰ťŠw‰ď‘ć92t‹G”N‰ďA1A3-50AŒcœä‹`m‘ĺŠwA3ŒŽ (2012).

  114. Plasmon-assisted Water Oxidation on Gold Nanostructured TiO2 Single Crystal Substrates
    H. Misawa, Y. Nishijima, K. Ueno, K. Murakoshi, H. Inoue, .3rd International Forum on Photoevergy Future (IFPF), Ramada Plaza Jeju, Jeju Island, Korea, December (2011).

  115. Positive aspects of shrinkage in fabrication of micro/nanostructures in resists by direct laser writing
    Q. Sun, K. Ueno, H. Misawa, 12th RIES-Hokudai International Symposium "ŠĎ", Chateraise Gateaux Kingdom Sapporo, Sapporo, Hokkaido, November (2011).

  116. Plasmon resonant enhancement of photocurrent conversion at gold nanoparticles loaded TiO2
    X. Shi, K. Ueno, H. Misawa, 12th RIES-Hokudai International Symposium "ŠĎ", Chateraise Gateaux Kingdom Sapporo, Sapporo, Hokkaido, November (2011).

  117. ƒvƒ‰ƒYƒ‚ƒ“ƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚éƒiƒmƒpƒ^[ƒ“‚ĚŒ`Ź
    ă–ěvśAƒiƒmƒeƒNƒmƒƒW[Eƒlƒbƒgƒ[ƒN•˝Ź‚Q‚R”N“xŹ‰Ę•ń‰ďA“Œ‹žH‹Ć‘ĺŠwA“Œ‹žA11ŒŽ (2011).

  118. Near-Infrared Plasmon-assisted Water Oxidation on Gold Nanostructured TiO2 Photoelectrodes
    H. Misawa, Y. Nishijima, K. Ueno, K. Murakoshi, H. Inoue, 2011 RCAS-ANNA‘ŰŒŸ“˘‰ď, Studies of Nano and Bio-Materials using Laser, X-ray and Single-Molecule Techniques, Academia Sinica, Taipei, Taiwan, November (2011).

  119. Engineering stop gaps of polymeric 3D spiral photonic crystals into visible region by direct laser writing and post-thermal treatment
    Q. Sun, K. Ueno, H. Misawa, ‘ć2‰ń ć’[ƒtƒHƒgƒjƒNƒXƒVƒ“ƒ|ƒWƒEƒ€, “Œ‹ž, 10ŒŽ (2011).

  120. Plasmon-assisted Water Oxidation on Gold Nanostructured TiO2 Photoelectrodes
    H. Misawa, Y. Nishijima, Y. Zhang, K. Ueno, K. Murakoshi, H. Inoue, CeNS Workshop 2011 "Nanosciences: From molecular systems to functional materials", the Venice International University, Venice, Italy, September (2011).

  121. ƒvƒ‰ƒYƒ‚ƒ“‚É‚ć‚é”÷ŹŠJŒű‚Š‚ç‚Ě“§‰ßŒő‘‹­
    ˆä‘şl•˝Aă–ěvśAŽOŕVO–žA‰Ş–{—T–¤A‘ć5‰ń•ŞŽq‰ČŠw“˘˜_‰ď2011A4B12AŽD–yƒRƒ“ƒxƒ“ƒVƒ‡ƒ“ƒZƒ“ƒ^[A9ŒŽ (2011).

  122. ‹ŕ”––Œă‚Ěƒiƒmƒ”ƒHƒCƒh‚É‚¨‚Ż‚éŒő“dę‚̉Ž‹‰ť
    ˆä‘şl•˝Aă–ěvśAŽOŕVO–žA‰Ş–{—T–¤A‘ć5‰ń•ŞŽq‰ČŠw“˘˜_‰ď2011A4B13AŽD–yƒRƒ“ƒxƒ“ƒVƒ‡ƒ“ƒZƒ“ƒ^[A9ŒŽ (2011).

  123. Plasmon Coupling and Coherent Acoustic Phonon Dynamics of Periodic Gold Pair Nanocuboids by Near-IR Laser Spectroscopy
    ‰¤ 䝁Aź“‡Šě–žAă–ěvśAŽOŕVO–žA‹ĘˆäŽ“oA‘ć5‰ń•ŞŽq‰ČŠw“˘˜_‰ď2011A4B14AŽD–yƒRƒ“ƒxƒ“ƒVƒ‡ƒ“ƒZƒ“ƒ^[A9ŒŽ (2011).

  124. ƒvƒ‰ƒYƒ‚ƒ“‹ÇÝŒő“dę‚đ—p‚˘‚˝‹ÇŠ2 ŒőŽqŒő‰ťŠw”˝‰ž
    ă–ěvśA‘吟LAˆÉ“ĄOŽqAŽOŕVO–žA2011”NŒő‰ťŠw“˘˜_‰ďA2C07A‹{čŠĎŒőƒzƒeƒ‹A9ŒŽ (2011).

  125. ‹ŕƒiƒmƒtƒŒ[ƒ€WĎ‘Ě‚Ě“d‹C‰ťŠw“Iěť‚Ć‚ť‚ĚŒő‰ťŠw“ÁŤ
    ‰ŞčŒ’ˆęAˆŔˆä~ˆęA‘ĺ–ؐMA‘şŕVŽŽ÷Aă–ěvśAŽOŕVO–žA’š–{ŽiA2011”NŒő‰ťŠw“˘˜_‰ďA2C08A‹{čŠĎŒőƒzƒeƒ‹A9ŒŽ (2011).

  126. ‹ŕƒiƒm\‘˘^Ž_‰ťƒ`ƒ^ƒ““d‹É‚đ—p‚˘‚˝ƒvƒ‰ƒYƒ‚ƒ““d‰×•Ş—Ł‚ÉŠî‚Ă‚­…‚ĚŽ_‰ť”˝‰ž
    ź“‡Šě–žAă–ěvśAŹ’|—EŒČA‘ş‰zŒhAˆäă°•vAŽOŕVO–žA2011”NŒő‰ťŠw“˘˜_‰ďA1C13A‹{čŠĎŒőƒzƒeƒ‹A9ŒŽ (2011).

  127. F‘f•ŞŽq‘śÝ‰ş‚É‚¨‚Ż‚é‹ŕƒiƒm\‘˘‘Ě‚Ě2 ŒőŽq”­ŒőƒXƒyƒNƒgƒ‹“ÁŤ
    ’†’JŒő”ŽAŹ’|—EŒČAÂ—z‘ĺ•ăAă–ěvśAŽOŕVO–žA2011”NŒő‰ťŠw“˘˜_‰ďA3P093A‹{čŽs–Żƒvƒ‰ƒUA9ŒŽ (2011).

  128. J ‰ď‡‘Ě-‹ŕƒiƒm\‘˘ƒnƒCƒuƒŠƒbƒhƒVƒXƒeƒ€‚É‚¨‚Ż‚éƒvƒ‰ƒYƒ‚ƒ“‹­Œ‹‡ó‘Ô‚Ě•ŞŒő“ÁŤ
    •“ĄŤ[Aă–ěvśAŽOŕVO–žA2011”NŒő‰ťŠw“˘˜_‰ďA3P092A‹{čŽs–Żƒvƒ‰ƒUA9ŒŽ (2011).

  129. ‹ŕƒiƒm\‘˘^Ž_‰ťƒ`ƒ^ƒ““d‹É‚đ—p‚˘‚˝2 ‹ÉŽŽŒő“d•ĎŠˇŒn‚ĚŒő“d•ĎŠˇ“ÁŤ
    Ź’|—EŒČAź“‡Šě–žAă–ěvśAŽOŕVO–žA2011”NŒő‰ťŠw“˘˜_‰ďA2P097A‹{čŽs–Żƒvƒ‰ƒUA9ŒŽ (2011).

  130. Ď‘wŒ^‹ŕƒiƒm\‘˘‘Ě‚ŞŽŚ‚ˇŒőƒAƒ“ƒeƒiŒř‰Ę‚ĚŒŸ“˘‚ĆŒő“d•ĎŠˇŒn‚ւ̉ž—p
    Â—z‘ĺ•ăAă–ěvśAŹ’|—EŒČAŽOŕVO–žA2011”NŒő‰ťŠw“˘˜_‰ďA2P095A‹{čŽs–Żƒvƒ‰ƒUA9ŒŽ (2011).

  131. ƒtƒFƒ€ƒg•bƒŒ[ƒU[ƒr[ƒ€ĆŽË‚É‚ć‚Á‚ăVƒŠƒJ•\–Ę‚ÉŒ`Ź‚ł‚ę‚éƒiƒmƒOƒŒ[ƒeƒBƒ“ƒO\‘˘Œ`ŹƒƒJƒjƒYƒ€‚ĚŒŸ“˘
    ˆŽG“TA‘ˇ ňAă–ěvśAŽOŕVO–žA2011”NŒő‰ťŠw“˘˜_‰ďA1P084A‹{čŽs–Żƒvƒ‰ƒUA9ŒŽ (2011).

  132. Plasmon-assisted Water Oxidation on Gold Nanostructured TiO2 Photoelectrodes
    H. Misawa, Y. Nishijima, Y. Zhang, K. Ueno, K. Murakoshi, H. Inoue, XXV International conference on photochemistry (ICP 2011), Beijing, China, August (2011).

  133. Plasmon-Assisted Photocurrent Generation
    H. Misawa, K. Ueno, Y. Nishijima, Y. Yokota, K. Murakoshi, International Conference on Materials for Advanced Technology 2011 (ICMAT 2011), Suntec, Singapore, June (2011).

  134. Plasmon-Assisted Photocurrent Generation
    H. Misawa, K. Ueno, Y. Nishijima, Y. Yokota, K. Murakoshi, International Workshop on Nanoplasmonics for Energy and the Environment, Hotel Carlos I, Sanxenxo, Spain, June (2011).

  135. Electromagnetic Field Enhancement Effects on Surface-enhanced Raman Scattering Using Nano-engineered Gold Particles
    H. Misawa, Y. Yokota, K. Ueno, IUPAC International Congress on Analytical Sciences 2011, Kyoto International Conference Center, Kyoto, May (2011).

  136. Plasmon-Assisted Photocurrent Generation
    H. Misawa, K. Ueno, Y. Nishijima, Y. Yokota, K. Murakoshi, The Fifth International Conference on Surface Plasmon Photonics (SPP5), Busan, Korea, May (2011).

  137. Feature-size reduction of photopolymerizaed three dimensional mcro/nanostructures taking use of shrinkage
    Q. Sun, N. Murazawa, K. Ueno, H. Misawa, The Fifth International Conference on Nanophotonics, Shanghai, China, May (2011).

  138. Femtosecond laser direct writing 3D polymeric square spiral photonic crystals with stop gaps below 1 ƒĘm making use of shrinkage
    Q. Sun, N. Murazawa, K. Ueno, H. Misawa, E-MRS 2011 SPRING MEETING, Nice, France, May (2011).

  139. Ď‘wŒ^‹ŕƒiƒm\‘˘‚ŞŽŚ‚ˇŒő•ßWŒř‰Ę‚ĚŒŸ“˘
    Â—z ‘ĺ•ăA‘şŕV ŽŽ÷Aź“‡ Šě–žAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć91t‹G”N‰ďA1D6-12, _“ސě‘ĺŠwA3ŒŽ (2011).

  140. ƒ`ƒ^ƒ“/‹âƒRƒAƒVƒFƒ‹Œ^ƒiƒm\‘˘‚Ěƒvƒ‰ƒYƒ‚ƒ“‘‹­Œř‰Ę
    ‰Ą“c KŒbA‰¤ —íAă–ě vśAçˇ Œš‰hAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć91t‹G”N‰ďA1D6-14, _“ސě‘ĺŠwA3ŒŽ (2011).

  141. ‹ŕƒiƒm\‘˘/nŒ^”ź“ą‘Ě“dŽqˆÚ“ŽŒn‚đ—p‚˘‚˝Œő“d•ĎŠˇ“ÁŤ‚Ěƒvƒ‰ƒYƒ‚ƒ“‘‹­Œř‰Ę
    ź“‡ Šě–žAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć91t‹G”N‰ďA4D1-35, _“ސě‘ĺŠwA3ŒŽ (2011).

  142. ‹ŕƒiƒm\‘˘/Ž_‰ťƒ`ƒ^ƒ““d‹É‚đ—p‚˘‚˝‘ž—z“d’r‚ĚŒő“d•ĎŠˇ“ÁŤ
    Ź’| —EŒČAź“‡ Šě–žAă–ě vśAŽOŕV O–žA“ú–{‰ťŠw‰ď‘ć91t‹G”N‰ďA4D6-35, _“ސě‘ĺŠwA3ŒŽ (2011).

  143. Œ°”÷‹óŠÔ•Ş‰đŒv‘Ş‚đ—p‚˘‚˝—L‹@LEDƒfƒoƒCƒX‚ĚŒőŽć‚čo‚ľŒř—Ś‰đÍ
    ź“‡ Šě–žC‘şŕV ŽŽ÷Că–ě vśC’ʼnŽ —R‹IŽqC•ÄŕV FŽ}C–x“c —SŽiCŽOŕV O–ž, ‘ć58‰ń ‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 26p-KT-2, _“ސěH‰Č‘ĺŠw, 3ŒŽ (2011).

  144. ‹ŕƒiƒmƒvƒŒ[ƒg‘Î‚Ěƒvƒ‰ƒYƒ‚ƒ“ƒJƒbƒvƒŠƒ“ƒO‚ĆƒRƒq[ƒŒƒ“ƒg‰š‹żƒtƒHƒmƒ“ƒ_ƒCƒiƒ~ƒNƒX‚̋ߐԊO‰ß“n‹zŽű•ŞŒő
    ‹Ęˆä Ž“oC‰¤ 䝁Cź“‡ Šě–žCă–ě vśCŽOŕV O–ž, ‘ć58‰ń ‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 25a-BH-9, _“ސěH‰Č‘ĺŠw, 3ŒŽ (2011).

  145. InGaN”––Œ•\–Ę‚É‚¨‚Ż‚éAuƒiƒm\‘˘‚̍쐻‚ĆŒőŠw“ÁŤ
    ’†ŽĄ Œő“śC–Řę —˛”VC‘şŽR –žGC˛‹vŠÔ ”üC‰Ą“c KŒbCă–ě vśCŽOŕV O–ž, ‘ć58‰ń ‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 24a-BW-6, _“ސěH‰Č‘ĺŠw, 3ŒŽ (2011).

  146. ƒiƒmŒőƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚é‹ŕ‘Žƒiƒmƒpƒ^[ƒ“ěť‹Zp‚ĚŠJ”­
    ă–ě vś, JST‚ł‚Ť‚Ş‚Ż3Œ¤‹†—Ěˆć‡“ŻŒ¤‹†•ń‰ď, “Œ‹ž‘ĺŠw, 1ŒŽ (2011).

  147. Photochemical reactions on nano-engineered gold particles
    H. Misawa, K. Ueno, N. Murazawa, Y. Nishijima, Y. Yokota, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  148. Nanogap-assisted surface plasmon nanolithography
    K. Ueno, S. Takabatake, Y. Nishijima, Y. Yokota, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  149. Manipulation of microspheres using localized surface plasmon on gold nanostructures
    N. Murazawa, K. Ueno, H. Kato, M. Muto, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  150. Construction of plasmonic solar cell working from ultraviolet to near infrared wavelength
    Y. Nishijima, K. Ueno, Y. Yokota, K. Murakoshi, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  151. Plasmonics on nanotriangles generated by nanosphere lithography
    T. Geldhauser, S. Ikegaya, A. Kolloch, N. Murazawa, K. Ueno, P. Leiderer, E. Scheer, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  152. Surface-Enhanced Raman Scattering signals from closely-spaced gold nanoblocks
    Y. Yokota, K. Ueno, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  153. Mechanistic analysis of electromagnetic field enhancement effects on surface-enhanced Raman scattering using nano-engineered gold particles
    Y. Yokota, K. Ueno, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  154. Spectral properties of closely-spaced gold nanoblock pairs
    S. Ikegaya, K. Ueno, N. Murazawa, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  155. Reversible phase transition control of polymer gels with gold nano structures
    M. Muto, N. Murazawa, K. Ueno, H. Misawa, 2010 International Chemical Congress of Pacific Basin Societies (Honolulu, United States of America, December (2010).

  156. On-chip DNA fraction collection using isolated extraction channels
    Z. Li, K. Sun, M. Sunayama, K. Ueno, R. Araki, M. Abe, H. Misawa, The Tenth Asia-Pacific International Symposium on Microscale Separations and Analysis, Hong Kong, China, December (2010).

  157. Effect of drying process on photopolymerized microstructures in resists
    Q. Sun, H. Asahi, N. Murazawa, K. Ueno, H. Misawa, Advances in Opto-electronics and Micro/nano-optics 2010, Guangzhou, China, December (2010).

  158. Quantitative Analysis of Plasmon-Assisted Two-Photon Photochromic Reactions on Gold Nanoparticles
    K. Ueno, B. Wu, Y. Yokota, H. Misawa, 6th Asian Photochemistry Conference 2010, Wellington, New Zealand, November (2010).

  159. ‚•Ş‰đ”\Œ´ŽqŠjŠŁ”‚ɂć‚éˆĂ••¨Žż‚Ě•űŒüŤŒŸoŽŔŒą|’´”÷—ąŽq“űÜť‘˘ó‹ľ‚¨‚ć‚Ń”˝’ľŒ´ŽqŠj“ǂݏo‚ľŠJ”­ó‹ľ
    ’† —ł‘ĺC’†‘ş ŒőœAC’†–ě •qsC˛“Ą CC–Ř‘ş [GC“cŒ´ ÷C‹v‰ş ŒŞˆęC—é–Ř –FśCŽOŕV O–žCă–ě vś, “ú–{•¨—Šw‰ď2010H‹G‘ĺ‰ď, 14pSB-6, ‹ăBH‹Ć‘ĺŠw, 9ŒŽ(2010).

  160. ŽU—Œ^‹ßÚęŒ°”÷‹ž‚É‚ć‚é‹ŕ‘Žƒiƒm\‘˘‚ĚŒő‹ÇÝę‰đÍ(3)
    Î• —TNC“c’† ‰ĂlC“ĄŒ´ ‰pŽ÷C‰Ą“c KŒbCă–ě vśCŽOŕV O–žCů–ŘŒhŽi, ‘ć71‰ń ‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 17a-NJ-8, ’ˇč‘ĺŠw, 9ŒŽ (2010).

  161. ƒŒ[ƒU[ĆŽË‚É‚ć‚éƒVƒŠƒRƒ“•\–Ęƒiƒm•Ą‡\‘˘‚Ć•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—
    ‹g“c —TC’J’Ă –Î’jC“n•Ó ¸ˆęCź“‡ Šě–žCă–ě vśCŽOŕV O–žC‰Á“Ą —˛•F, ‘ć71‰ń ‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 14a-E-7, ’ˇč‘ĺŠw, 9ŒŽ (2010).

  162. ‹ŕƒiƒm—ąŽqCü”ź“ą‘ĚŒő“d•ĎŠˇ‘fŽq‚É‚¨‚Ż‚é‹ÇŠ“I‘ŠŒÝě—p‚Ě‹ßÚęŒőŠwƒCƒ[ƒWƒ“ƒO‚É‚ć‚錤‹†
    Œ´“c —m‰îCˆä‘ş l•˝C‰Ş–{ —T–¤Cź“‡ Šě–žCă–ě vśCŽOŕV O–ž, ’ˇŁ ˜a–ç, ‘吟 ‘ĺ, ‘ć4‰ń•ŞŽq‰ČŠw“˘˜_‰ď, 4P061, ‘ĺă‘ĺŠw, 9ŒŽ (2010).

  163. ‹ŕƒiƒm\‘˘‘Ě‚ĚƒRƒq[ƒŒƒ“ƒg‰š‹żƒtƒHƒmƒ“‚Ćƒvƒ‰ƒYƒ‚ƒ“ƒJƒbƒvƒŠƒ“ƒO
    ‹Ęˆä Ž“o, ‰¤ äť, ź“‡ Šě–ž, ă–ě vś, ŽOŕV O–ž, V—Ż N˜N, ‘ć‚S‰ń•ŞŽq‰ČŠw“˘˜_‰ď, 3D13, ‘ĺă‘ĺŠw, 9ŒŽ (2010).

  164. §Œä‚ł‚ę‚˝‹âƒiƒmƒuƒƒbƒN\‘˘‚Ěƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ
    ‰Ą“c KŒbC‰¤ —íCă–ě vśCçˇ Œš‰hCŽOŕV O–ž, 3P014, ç—t‘ĺŠw, 9ŒŽ (2010).

  165. ƒiƒmƒuƒƒbƒN‚đ—p‚˘‚˝‹ŕ‘Žƒiƒm—ąŽq‚ĚŒő—U‹NŒ`ó•Ď‰ť‚̉đÍ
    ’Ň „Žu, ă–ě vś, ‰Ą“c KŒb, ’Ň łŽĄ, ŽOŕV O–ž, 2010”NŒő‰ťŠw“˘˜_‰ď, 2C07, ç—t‘ĺŠw, 9ŒŽ (2010).

  166. ƒvƒ‰ƒYƒ‚ƒ“‘‹­ę‚É‚¨‚Ż‚é2ŒőŽqƒtƒHƒgƒNƒƒ~ƒbƒN”˝‰ž‚Ě’č—Ę‘Ş’č
    ă–ě vśCŒŕ ”Œ““C‰Ą“c KŒbCŽOŕV O–ž, 2010”NŒő‰ťŠw“˘˜_‰ď, 1C18, ç—t‘ĺŠw, 9ŒŽ (2010).

  167. ‹ŕƒiƒm\‘˘‚đ—˜—p‚ľ‚˝ƒ^ƒ“ƒpƒNŽż‚ĚŒő—U‹NŒ‹ť‰ť
    ŽĄ“c Ť, ŽOŕV O–ž, ă–ě vś, ‰Ą“c KŒb, źˆä €ŽĄ, “c˜a Œ\Žq, ‰œ’Ă “N•v, 2P106, ç—t‘ĺŠw, 9ŒŽ (2010).

  168. Visualization and measurement of the near field enhancement of gold nanotriangles by two-photon polymerization
    T. Geldhauser, S. Ikegaya, A. Kolloch, N. Murazawa, K. Ueno, J. Boneberg, P. Leiderer, E. Scheer, H. Misawa, 7th International Conference on Photo-Excited Processes and Applications, Copenhagen, Denmark, August (2010).

  169. Coherent Phonon Vibration of Gold Nanostractures and Its Control by Two Excitation Pulses
    N. Tamai, L. Wang, Y. Nishijima, K. Ueno, H. Misawa, A. Kiya, Y. Okuno, Y. Niidome, XXIIIth IUPAC Symposium on Photochemistry, SO34, Ferrara, Italy, July (2010).

  170. ‹ŕƒiƒm—ąŽq‚Ş‘ŠŒÝě—p‚ľ‚˝”ź“ą‘ĚŒő“d•ĎŠˇ‘fŽq‚Ě‹ßÚęŒő“d—ŹƒCƒ[ƒWƒ“ƒO
    Œ´“c —m‰î, ˆä‘ş l•˝, ‰Ş–{ —T–¤, ź“‡ Šě–ž, ă–ě vś, ŽOŕV O–ž, ’ˇŁ ˜a–ç, ‘吟 ‘ĺ, ƒiƒmƒIƒvƒeƒBƒNƒXŒ¤‹†ƒOƒ‹[ƒv ‘ć19‰ńŒ¤‹†“˘˜_‰ď, ‘ˆî“c‘ĺŠw, 7ŒŽ (2010).

  171. ‹ŕƒiƒm\‘˘‘Ě‚đ—p‚˘‚˝‰ÂŽ‹EÔŠOŒő“d•ĎŠˇƒVƒXƒeƒ€‚̍\’z
    ź“‡ Šě–ž, ă–ě vś, ‘ş‰z Œh, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 4G6-08, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  172. ‹ŕƒiƒm\‘˘‚đ—p‚˘‚˝ƒ^ƒ“ƒpƒNŽż‚ĚŒő—U‹NŒ‹ť‰ť
    ŽĄ“c Ť, ŽOŕV O–ž, ă–ě vś, źˆä €ŽĄ, ‰Ą“c KŒb, ‰œ’Ă “N•v, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 2E2-43, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  173. ˆĘ‘Šƒ}ƒXƒN‚đ—p‚˘‚˝‘˝ŒőŽq‘˝Œő‘ŠŠąÂ‚É‚ć‚é3ŽŸŒłŽüŠú\‘˘‘Ě‚ĚŒ`Ź
    ‰Ú–ź Â, ź“‡ Šě–ž, V. Mizeikis, ă–ě vś, źˆä €ŽĄ, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 2G6-33, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  174. ƒŒ[ƒU[ŠąÂ˜IŒő–@‚đ—p‚˘‚˝ƒiƒmƒpƒ^[ƒjƒ“ƒO‹Zp‚É‚ć‚é‹ŕƒiƒm\‘˘‚̍쐻‚ĆŒőŠw•]‰ż
    r–Ř „, ‘şŕV ŽŽ÷, ă–ě vś, ‰Ą“c KŒb, ź“‡ Šě–ž, źˆä €ŽĄ, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 2G6-32, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  175. §Œä‚ł‚ę‚˝ƒiƒmƒMƒƒƒbƒv‹ŕ‘Ž\‘˘‚đ—p‚˘‚˝•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—Œv‘Ş
    ‰Ą“c KŒb, ă–ě vś, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 2G6-31, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  176. Ď‘wŒ^ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚̍쐻‚Ćƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ
    Â—z ‘ĺ•ă, ‘şŕV ŽŽ÷, ă–ě vś, ‰Ą“c KŒb, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 2G6-30, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  177. §Œä‚ł‚ę‚˝ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚Ěƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ
    ’r’J L‘ž˜Y, ă–ě vś, ‘şŕV ŽŽ÷, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 2G6-29, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  178. ‹ŕƒiƒm\‘˘‘Ě‚É‚ć‚Á‚Ä‘Łi‚ł‚ę‚é2ŒőŽqƒtƒHƒgƒNƒƒ~ƒbƒN”˝‰ž‚Ě’č—ʉđÍ
    Œŕ ”Œ““, ă–ě vś, ‘şŕV ŽŽ÷, ‘ˇ ŠM, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć90t‹G”N‰ď, 1H6-06, ‹ß‹E‘ĺŠw, 3ŒŽ (2010).

  179. Fabrication of metallic nanostructures for the enhancement of optical near fields and their applications for the control of photochemical reactions
    N. Murazawa, K. Ueno, D. Aoyo, S. Ikegaya, H. Misawa, International symposium of joint research network on advanced materials and devices "chou", P-2, Hokkaido university, 3ŒŽ (2010).

  180. Gold nanorod assisted photocurrent generation system from ultraviolet to near-infrared wavelength
    Y. Nishijima, K. Ueno, Y. Yokota, K. Murakoshi, H. Misawa, International symposium of joint research network on advanced materials and devices "chou", P-1, Hokkaido university, 3ŒŽ (2010).

  181. Œ´ŽqŠjŠŁ”‚ɂć‚éˆĂ••¨Žż‚Ě•űŒüŤŒŸo|”˝’ľ”ňŐ“ǂݏo‚ľŽč–@‚¨‚ć‚Ń“űÜť‘˘ƒVƒXƒeƒ€‚ĚŠJ”­|
    ’† —ł‘ĺC’†‘ş ŒőœAC’†–ě •qsC˛“Ą CC’O‰H Œö—YC‘ĺ‘ş ‘ń–çCŹ–Ř‘] NOC“cŒ´ ÷C‹v‰ş ŒŞˆęCŽOŕV O–žCă–ě vś, “ú–{•¨—Šw‰ď‘ć65‰ń”NŽŸ‘ĺ‰ď, 21aBQ-10, ‰ŞŽR‘ĺŠw, 3ŒŽ (2010).

  182. ˆę‰–ŠîƒŒƒxƒ‹‚̍‚•Ş‰đ”\‚Ĺˆę–{˝DNA’f•Đ‚ĚƒIƒ“ƒ`ƒbƒv•ŞŽć
    ‘ˇ ŠMCZheyu LiCťŽR ”ü—˘Că–ě vśCr–Ř —ÇŽqCˆŔ”{ ^ŸCŽOŕV O–ž, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 19p-ZD-7, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  183. Acoustic diagnose of femtosecond laser filamentation in optical mediums
    ‘ˇ ňCƒrƒKƒ“ƒ^ƒX ƒ~ƒ[ƒCƒLƒXC‘şŕV ŽŽ÷Că–ě vśCŽOŕV O–ž, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 17a-E-6, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  184. Ž_‰ťƒ`ƒ^ƒ“^‹ŕƒiƒm\‘˘‘Ě‚đ—p‚˘‚˝Œő“d•ĎŠˇ
    ź“‡ Šě–žCă–ě vśC‰Ą“c KŒbC‘ş‰z ŒhCŽOŕV O–ž, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 18a-P4-10, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  185. ŠąÂ˜IŒő–@‚đ—p‚˘‚˝‹ŕƒiƒm\‘˘‘Ě‚ĚŽ_‰ťƒ`ƒ^ƒ“Šî”ă‚Ö‚Ě‘ĺ–ʐωÁH‚ĆŒő“d•ĎŠˇ“ÁŤ
    r–Ř „Cź“‡ Šě–žC‘şŕV ŽŽ÷Că–ě vśCźˆä €ŽĄCŽOŕV O–ž, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 18a-P4-9, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  186. ŽU—Œ^‹ßÚęŒ°”÷‹ž‚É‚ć‚é‹ŕ‘Žƒiƒm\‘˘‚ĚŒő‹ÇÝ‰đÍ
    “c’† ‰ĂlCÎ• —TNC“ĄŒ´ ‰pŽ÷C‰Ą“c KŒbCă–ě vśCŽOŕV O–žCů–Ř ŒhŽi, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 18a-P4-8, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  187. ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚Ě•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—“ÁŤ
    ‰Ą“c KŒbCă–ě vśCŽOŕV O–ž, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 17a-P1-34, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  188. Stability of plasmonic spectral properties with and without titanium coated on the top of engineered silver nanorods
    ‰¤ —íCź“‡ Šě–žC‰Ą“c KŒbCă–ě vśCŽOŕV O–žCçˇ Œš‰h, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 17a-P1-30, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  189. ‚RŽŸŒł“I‚É”z—ń§Œä‚ł‚ę‚˝ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚̍쐻‚ĆŒőŠw“ÁŤ
    ‘şŕV ŽŽ÷CÂ—z ‘ĺ•ăCă–ě vśCŽOŕV O–ž, ‘ć57‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 17a-P1-29, “ŒŠC‘ĺŠw, 3ŒŽ (2010).

  190. Coherent phonon vibration of periodical gold nanostractures by near-IR femtosecond transient absorption spectroscopy
    L. Wang, Y. Nishijima, K. Ueno, H. Misawa, N. Tamai, The 6th Korea-Japan Symposium on Photoscience (KJFP2009), Seoul, Korea, October (2009).

  191. Coherent phonon vibration of periodical gold nanocuboids by IR transient absorption spectroscopy
    ‰¤ 䝁Aź“‡Šě˜NAă–ěvśAŽOŕVO–žA‹ĘˆäŽ“o, ‘ć3‰ń•ŞŽq‰ČŠw“˘˜_‰ď, 4D04, –źŒĂ‰Ž‘ĺŠw, 9ŒŽ (2009).

  192. ‹ŕƒiƒm\‘˘‚đ—p‚˘‚˝ƒ^ƒ“ƒpƒNŽż‚ĚŒő—U‹NŒ‹ť‰ť
    ŽĄ“c ŤEă–ěvś, ‰Ą“cKŒbEŽOŕVO–žE‰œ’Ă“N•v, 2009”NŒő‰ťŠw“˘˜_‰ď, 3A11, ‹ËśŽsŽs–Ż•ś‰ť‰ďŠŮ, 9ŒŽ (2009).

  193. ƒvƒ‰ƒYƒ‚ƒ“ƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚čěť‚ľ‚˝‹ŕ‘Žƒiƒm\‘˘‚Ě•ŞŒő“ÁŤ
    ‚”Š‘Í, ă–ěvś, ź“‡Šě–ž, ‘ˇŠM, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕVO–ž, 2009”NŒő‰ťŠw“˘˜_‰ď, 3P090, ‹ËśŽsŽs–Ż•ś‰ť‰ďŠŮ, 9ŒŽ (2009).

  194. Œ°”÷ƒŒƒCƒŠ[ŽU—•ŞŒő–@‚É‚ć‚éƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚ĚƒXƒyƒNƒgƒ‹“ÁŤ
    ’r’J L‘ž˜Y, ă–ěvś, ‘şŕVŽŽ÷, ź“‡Šě–ž, ‰Ą“cKŒb, ƒ~ƒ[ƒCƒLƒX ƒrƒKƒ“ƒ^ƒX, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕVO–ž, 2009”NŒő‰ťŠw“˘˜_‰ď, 2P092, ‹ËśŽsŽs–Ż•ś‰ť‰ďŠŮ, 9ŒŽ (2009).

  195. Amplification of surface-enhanced Raman scattering signals using electrochemical redox cycling
    Md. M. Islam, ă–ěvś, ‰Ą“cKŒb, V. Mizeikis, S. Juodkazis, ŽOŕVO–ž, 2009”NŒő‰ťŠw“˘˜_‰ď, 2P089, ‹ËśŽsŽs–Ż•ś‰ť‰ďŠŮ, 9ŒŽ (2009).

  196. Ď‘wŒ^‹ŕƒiƒm\‘˘‚Ěƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ
    ‘şŕVŽŽ÷, Â—z‘ĺ•ă, ă–ěvś, ƒ~ƒ[ƒCƒLƒX ƒrƒKƒ“ƒ^ƒX, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕVO–ž, 2009”NŒő‰ťŠw“˘˜_‰ď, 1A17, ‹ËśŽsŽs–Ż•ś‰ť‰ďŠŮ, 9ŒŽ (2009).

  197. •\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—‹@\‚Ě“dŽĽ˜_“I‰đÍ
    ‰Ą“cKŒb, ă–ěvś, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕVO–ž, 2009”NŒő‰ťŠw“˘˜_‰ď, 1P092, ‹ËśŽsŽs–Ż•ś‰ť‰ďŠŮ, 9ŒŽ (2009).

  198. TiO2’PŒ‹ť/Auƒiƒm\‘˘“d‹É‚É‚ć‚éŒő“d•ĎŠˇ
    ź“‡Šě–ž, ă–ěvś, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ‘ş‰z Œh, ŽOŕVO–ž, 2009”NŒő‰ťŠw“˘˜_‰ď, 1C08, ‹ËśŽsŽs–Ż•ś‰ť‰ďŠŮ, 9ŒŽ (2009).

  199. Electrochemical Microchips for Amplification of Surface-Enhanced Raman Scattering Signals
    Md. M. IslamCK. UenoCY. YokotaCS. JuodkazisCH. Misawa, ‘ć70‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 10p-ZL-16, •xŽR‘ĺŠw, 9ŒŽ (2009).

  200. ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚ĚŽU—•ŞŒő“ÁŤ
    ’r’J L‘ž˜YCă–ěvśC‘şŕVŽŽ÷Cź“‡Šě–žC‰Ą“cKŒbCƒrƒKƒ“ƒ^ƒX ƒ~ƒ[ƒCƒLƒXCƒTƒEƒŠƒEƒX ƒˆ[ƒhƒJƒWƒXCŽOŕVO–ž, ‘ć70‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 9p-ZM-8, •xŽR‘ĺŠw, 9ŒŽ (2009).

  201. ƒvƒ‰ƒYƒ‚ƒ“ƒAƒ“ƒeƒi‚đ—˜—p‚ľ‚˝ŒőƒGƒlƒ‹ƒM[•ĎŠˇƒVƒXƒeƒ€
    ‰¤ —í1Cź“‡Šě–žC‰Ą“cKŒbCă–ěvśCSaulius JuodkazisCŽOŕVO–žC”ž–ě—yˆęC‘吟 ‘ĺCçˇ Œš‰h, ‘ć70‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 9a-ZM-1, •xŽR‘ĺŠw, 9ŒŽ (2009).

  202. ˆĘ‘Šƒ}ƒXƒN‚đ—p‚˘‚˝‘˝Œő‘ŠŠąÂ‚É‚ć‚é3ŽŸŒłŽüŠú\‘˘‚̍쐻‚Ć•]‰ż
    ‰Ú–ź ÂCź“‡Šě–žCƒrƒKƒ“ƒ^ƒX ƒ~ƒ[ƒCƒLƒXCă–ěvśCƒTƒEƒŠƒEƒX ƒˆ[ƒhƒJƒWƒXCŽOŕVO–ž, ‘ć70‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 8p-B-5, •xŽR‘ĺŠw, 9ŒŽ (2009).

  203. •\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—‚É‚¨‚Ż‚é“dŽĽŒř‰Ę‚Ě’č—ʉđÍ
    ‰Ą“cKŒbCă–ěvśCSaulius JuodkazisCŽOŕVO–ž, ‘ć70‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 8a-C-8, •xŽR‘ĺŠw, 9ŒŽ (2009).

  204. Redox Cycling Effect on Surface-Enhanced Raman Scattering (SERS) -Electrochemical SERS Chips
    Md. M. Islam, K. Ueno, S. Juodkazis, H. Misawa, Lab-on-a-Chip World Congress 2009, 1002, South San Francisco (USA), August (2009).

  205. On-chip Fraction Collection of Single-strand DNA Fragments Differing in Size by Only One Base with Electrophoretic Separation
    K. Sun, Z. Li, R. Araki, K. Ueno, M. Abe, S. Noji, H. Misawa, Lab-on-a-Chip World Congress 2009, 1002, South San Francisco (USA), August (2009).

  206. Amplification of surface-enhanced Raman scattering signals employing electrochemical redox cycling
    Md. M. Islam, K. Ueno, S. Joudkazis, H. Misawa, International Workshop on Photons and Spins in Nanostructures, Sapporo, July (2009).

  207. Study of surface-enhanced Raman scattering assisted by plasmonic enhancement effects
    Y. Yokota, K. Ueno, S. Juodkazis, H. Misawa, International Workshop on Photons and Spins in Nanostructures, Sapporo, July (2009).

  208. Electromagnetic field enhancement effects on nano-engineered gold particles
    K. Ueno, S. Juodkazis, V. Mizeikis, Y. Yokota, S. Takabatake, S. Ikegaya, H. Misawa, XXIV International Conference on Photochemistry ICP2009, OC38, Toledo, July (2009).

  209. SCATTERING SPECTROSCOPY OF NANO ENGINEERED GOLD NANOBLOCK PAIRS
    S. Ikegaya, K. Ueno, S. Juodkazis, V. Mizeikis, N. Murazawa, H. Misawa, XXIV International Conference on Photochemistry ICP2009, PSII-P84, Toledo, July (2009).

  210. INFLUENCE OF PLASMONIC ENHANCEMENT ON SURFACE-ENHANCED RAMAN SCATTERING
    Y. Yokota, K. Ueno, S. Juodkazis, V. Mizeikis, H. Misawa, XXIV International Conference on Photochemistry ICP2009, PSII-P82, Toledo, July (2009).

  211. NANOGAP LITHOGRAPHY USING LOCAL PHOTOCHEMICAL REACTIONS
    S. Takabatake, K. Ueno, Y. Nishijima, V. Mizeikis, S. Juodkazis, H. Misawa, XXIV International Conference on Photochemistry ICP2009, PSII-P91, Toledo, July (2009).

  212. Photochemical Reactions on Gold Nanoparticles
    H. Misawa, K. Ueno, S. Takabatake, V. Mizeikis, S. Juodkazis, 215th ECS Meeting, 1277, San Francisco (2009).

  213. ƒiƒmŒőƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚é‹ŕ‘Žƒiƒm\‘˘‚̍쐻‚Ć•]‰ż
    ă–ě vś, ‚”Š ‘Í, ź“‡ Šě–ž, ‘ˇ ŠM, ƒ~ƒ[ƒCƒLƒX ƒrƒKƒ“ƒ^ƒX, ƒˆ[ƒhƒJƒWƒY ƒTƒEƒŠƒEƒX, ŽOŕV O–ž, 2009”Nt‹G ‘ć56‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 1p-H-15, ’}”g‘ĺŠw, 4ŒŽ (2009).

  214. ƒvƒ‰ƒYƒ‚ƒ“‘‹­Œř‰Ę‚đ—˜—p‚ľ‚˝ƒiƒm‹óŠÔ‚É‚¨‚Ż‚éŒő‰ťŠw”˝‰ž
    ‚”Š ‘Í, ă–ě vś, ź“‡ Šě–ž, MIZEIKIS Vygantas, JUODKAZIS Saulius, ŽOŕVO–ž, “ú–{‰ťŠw‰ď‘ć89t‹G”N‰ď, ‘D‹´, 3ŒŽ (2009).

  215. ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚É‚ć‚鑝‹­ƒ‰ƒ}ƒ“Œř‰Ę
    ‰Ą“c KŒb, ă–ě vś, MIZEIKIS Vygantas, JUODKAZIS Saulius, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć89t‹G”N‰ď, ‘D‹´, 3ŒŽ (2009).

  216. ŒőƒAƒ“ƒeƒi‚đ—˜—p‚ľ‚˝ƒŒƒWƒXƒgŢ—ż‚Ěƒiƒm‰ÁH
    ŽOŕV O–ž, ă–ě vś, ‚”Š ‘Í, ‘ć27‰ń ŒĹ‘́E•\–ĘŒő‰ťŠw“˘˜_‰ď, 206, “ż“‡‘ĺŠw, 11ŒŽ (2008).

  217. ‹ŕƒiƒmƒfƒBƒXƒN‚Ě‹ßÚęŒ°”÷•ŞŒő
    ˆä‘ş l•˝, ‰Ş–{ —T–¤, ă–ě vś, ŽOŕV O–ž, •ŞŽq‰ČŠw“˘˜_‰ď2008, 1B18, ‹ăB‘ĺŠw, 9ŒŽ (2008).

  218. ‹ŕƒiƒmƒ”ƒHƒCƒh\‘˘‚Ě‹ßÚęŒ°”÷•ŞŒő
    ‰Ş–{ —T–¤, ˆä‘ş l•˝, ƒLƒ€ ƒXƒCƒ‹, ă–ě vś, ŽOŕV O–ž

  219. ƒvƒ‰ƒYƒ‚ƒ“‘‹­‚đ—˜—p‚ľ‚˝”ńüŒ`Œő‰ťŠw”˝‰ž‚É‚ć‚éƒtƒHƒgƒŒƒWƒXƒg‚Ěƒiƒmƒpƒ^[ƒjƒ“ƒO
    ‚”Š ‘Í, ă–ě vś, ź“‡ Šě–ž, V. Mizeikis, S. Juodkazis, ŽOŕV O–ž, 2008”NŒő‰ťŠw“˘˜_‰ď, 1P67, ‘ĺă•{—§‘ĺŠw, 9ŒŽ (2008).

  220. ‹ŕƒiƒm‰~Žü\‘˘‚ĚŒőŠw“ÁŤ‚ĆŒő‘‹­Œř‰Ę
    ‹{–{ ”Ž“O, ă–ě vś, ‘吟 ‘ĺ, âŒű ‘ńś, ”ž–ě —yˆę, V. Mizeikis, S. Juodkazis, ŽOŕV O–ž, 2008”NŒő‰ťŠw“˘˜_‰ď, 2P93, ‘ĺă•{—§‘ĺŠw, 9ŒŽ (2008).

  221. ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚ĚŒőŠw“ÁŤ |ƒAƒbƒvƒRƒ“ƒo[ƒWƒ‡ƒ“ƒVƒXƒeƒ€‚̍\’z‚ÉŒü‚Ż‚ā|
    ’r’J L‘ž˜Y, ă–ě vś, ‰Ą“c KŒb, ź“‡ Šě–ž, V. Mizeikis, S. Juodkazis, ŽOŕV O–ž, 2008”NŒő‰ťŠw“˘˜_‰ď, 2P94, ‘ĺă•{—§‘ĺŠw, 9ŒŽ (2008).

  222. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‚̍‚ŽŸƒ‚[ƒh‚đ—p‚˘‚˝‹óŠÔ‘I‘đ“I‘˝ŒőŽqŒőd‡”˝‰ž
    ‘şŕV ŽŽ÷, ă–ě vś, V. Mizeikis, S. Juodkazis, ŽOŕV O–ž, 2008”NŒő‰ťŠw“˘˜_‰ď, 2P122, ‘ĺă•{—§‘ĺŠw, 9ŒŽ (2008).

  223. ‰~Œ`‹ŕƒiƒmƒvƒŒ[ƒg‚Ě‹ßÚę•ŞŒő“ÁŤ
    ˆä‘ş l•˝C‰Ş–{ —T–¤Că–ě vśCŽOŕV O–ž, ‘ć69‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 4p-ZH-7, ’†•”‘ĺŠw, 9ŒŽ (2008).

  224. ƒiƒmŒőƒŠƒ\ƒOƒ‰ƒtƒB[‚É‚ć‚郌ƒWƒXƒgƒiƒmƒpƒ^[ƒ“‚ĚŒ`Ź
    ‚”Š ‘ÍCă–ě vśCź“‡ Šě–žCƒrƒKƒ“ƒ^ƒX ƒ~ƒ[ƒCƒLƒXCƒTƒEƒŠƒEƒX ƒˆ[ƒhƒJƒWƒXCŽOŕV O–ž, ‘ć69‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 5a-V-6, ’†•”‘ĺŠw, 9ŒŽ (2008).

  225. Non-linear photopolymerization induced by localized near-field on gold nanoblocks
    N. Murazawa, K. Ueno, V. Mizeikis, S. Juodkazis, H. Misawa, XXIInd IUPAC Symposium on Photochemistry, Goteborg (Sweden), 7ŒŽ (2008).

  226. Development of nanolithography techniques utilized non-linear excitation process enhanced on gold nano gap structure
    S. Takabatake, K. Ueno, Y. Nishijima, V. Mizeikis, S. Juodkazis, H. Misawa, XXIInd IUPAC Symposium on Photochemistry, Goteborg (Sweden), 7ŒŽ (2008).

  227. Study of surface-enhanced Raman scattering assisted by collective plasmonic modes of closely-spaced gold nanoblocks
    Y. Yokota, K. Ueno, V. Mizeikis, S. Juodkazis, H. Misawa, XXIInd IUPAC Symposium on Photochemistry, Goteborg (Sweden), 7ŒŽ (2008).

  228. Studies of lasing from zirconia inverse opal photonic crystals doped by Rhodamine dyes
    Y. Nishijima, K. Ueno, S. Juodkazis, V. Mizeikis, H. Misawa, M. Maeda, M. Minaki, XXIInd IUPAC Symposium on Photochemistry, Goteborg (Sweden), 7ŒŽ (2008).

  229. ƒWƒ‹ƒRƒjƒA‚đŢŽż‚Ć‚ľ‚˝‹tƒIƒp[ƒ‹ƒtƒHƒgƒjƒbƒNŒ‹ť’†‚É‚¨‚Ż‚éF‘f•ŞŽq‚ĚƒŒ[ƒU[”­U
    ź“‡ Šě–ž, ă–ě vś, Saulius Juodkazis, Vygantas Mizeikis, ŽOŕV O–ž, ‘O“c ’¨, ŠF–Ř łŽi, “ú–{‰ťŠw‰ď, 4L7-53, —§‹ł‘ĺŠw, 3ŒŽ (2008).

  230. ‹ŕƒiƒm\‘˘‘Ě‚Ě‹ßÚę’Pˆę—ąŽq•ŞŒőEƒCƒ[ƒWƒ“ƒO
    ˆä‘ş l•˝C‰Ş–{ —T–¤Că–ě vśCŽOŕV O–ž, ‘ć55‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 29p-zw-8, “ú–{‘ĺŠw, 3ŒŽ (2008).

  231. ”ź“ą‘Ě”÷×‰ÁH‹Zp‚É‚ć‚čěť‚ľ‚˝‹ŕƒiƒm\‘˘Šî”‚̕\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—•ŞŒő“ÁŤ
    ‰Ą“c KŒb, ă–ě vś, ƒ~ƒ[ƒCƒLƒX ƒrƒKƒ“ƒ^ƒX, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕV O–ž, “ú–{‰ťŠw‰ď, 3L7-43, —§‹ł‘ĺŠw, 3ŒŽ (2008).

  232. ”ńüŒ`Œőd‡”˝‰ž‚đ—p‚˘‚˝‹ŕƒiƒmƒƒbƒh\‘˘‘Ě‚É‹ÇÝ‚ˇ‚éŒő“dę‹­“x‹óŠÔƒvƒƒtƒ@ƒCƒ‹‚̉Ž‹‰ť
    ‘şŕV ŽŽ÷, ă–ě vś, ƒ~ƒ[ƒCƒLƒX ƒrƒKƒ“ƒ^ƒX, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕV O–ž, “ú–{‰ťŠw‰ď, 3L7-41, —§‹ł‘ĺŠw, 3ŒŽ (2008).

  233. ƒiƒmƒMƒƒƒbƒv‹ŕ\‘˘‚ɋǍ݂ˇ‚鑝‹­Œő“dę‚đ—˜—p‚ľ‚˝ƒtƒHƒgƒŒƒWƒXƒg‚Ěƒiƒmƒpƒ^[ƒ“Œ`Ź
    ă–ě vś, ‚”Š ‘Í, ƒ~ƒ[ƒCƒLƒX ƒrƒKƒ“ƒ^ƒX, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕV O–ž, “ú–{‰ťŠw‰ď, 2C2-34, —§‹ł‘ĺŠw, 3ŒŽ (2008).

  234. ‹ŕƒiƒm\‘˘‘Ě‚Ě‹ßÚę’Pˆę—ąŽq•ŞŒőEƒCƒ[ƒWƒ“ƒO
    ˆä‘ş l•˝C‰Ş–{ —T–¤Că–ě vśCŽOŕV O–ž, ‘ć55‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 29p-ZW-8, “ú–{‘ĺŠw, 3ŒŽ (2008).

  235. ‚‰đ‘œ“xˆâ“`Žq”­Œť‰đÍ–@‚Ě‚˝‚ß‚Ě“d‹C‰j“Žƒ`ƒbƒv‚đ—p‚˘‚˝DNA’f•Đ•ŞŽć
    ‘ˇ ŠMC—é–Ř “WŽqCă–ě vśCˆŔ”{ ^ŸC–ě’n Ÿ°CŽOŕV O–ž, ‘ć55‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 27a-R-7, “ú–{‘ĺŠw, 3ŒŽ (2008).

  236. Near-Field Imaging on Gold Nanoblocks by Non-Linear Photopolymerization
    N. Murazawa, K. Ueno, V. Mizeikis, S. Juodkazis, H. Misawa, The 9th RIES-Hokudai International Symposium "sou", Sapporo, January (2008).

  237. ‘˝Œő‘ŠƒŒ[ƒU[ŠąÂ˜IŒő–@‚É‚ć‚é3ŽŸŒłƒtƒHƒgƒjƒbƒNŒ‹ť‚̍쐻‚Ć•]‰ż
    _Ź ŒŞ‘ž, Saulius Juodkazis, Vygantas Mizeikis, ă–ě vś, ŽOŕV O–ž, ‘ć42‰ń‚•ŞŽqŠw‰ď–kŠC“šŽx•”Œ¤‹†”­•\‰ď, O10, –kŠC“š‘ĺŠw, 1ŒŽ (2008).

  238. ”÷×‰ÁH‹Zp‚É‚ć‚é•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—•ŞŒőŒv‘Ş—p•ŞÍƒ`ƒbƒv‚̍쐻‚Ć•]‰ż
    ‰Ą“c KŒb, ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ŽOŕV O–ž, –kŠC“šŽx•”2008”N“~‹GŒ¤‹†”­•\‰ď, 1B03, –kŠC“š‘ĺŠw, 1ŒŽ (2008).

  239. ”÷—ąŽqWĎŒ^3ŽŸŒłŽüŠú\‘˘‘Ě’†‚É‚¨‚Ż‚éF‘f—n‰t‚ĚƒŒ[ƒU[”­U‹““Ž
    ź“‡ Šě–ž, ă–ě vś, Saulius Juodkazis, Vygantas Mizeikis, ŽOŕV O–ž, ‘O“c ’¨, ŠF–Ř łŽi, –kŠC“šŽx•”2008”N“~‹GŒ¤‹†”­•\‰ď, 1B10, –kŠC“š‘ĺŠw, 1ŒŽ (2008).

  240. ƒeƒ‰ƒwƒ‹ƒc‘Ńˆć‚ɋǍݕ\–Ęƒvƒ‰ƒYƒ‚ƒ“‹¤–‚đ—L‚ˇ‚é‹ŕƒiƒmƒ`ƒFƒCƒ“\‘˘‚Ě•ŞŒő“ÁŤ
    ŽO–ě ‰ëO, ă–ě vś, ‘吟 ‘ĺ, âŒű ‘ńś, ”ž–ě —yˆę, Vygantas Mizeikis, Saulius Juodkazis, ŽOŕVO–ž, –kŠC“šŽx•”2008”N“~‹GŒ¤‹†”­•\‰ď, 1B12, –kŠC“š‘ĺŠw, 1ŒŽ (2008).

  241. ƒ_ƒCƒiƒ~ƒbƒNƒ}ƒXƒNƒŒƒXƒŠƒ\ƒOƒ‰ƒtƒB[‹Zp‚É‚ć‚éƒtƒHƒgƒŒƒWƒXƒg‚Ě3ŽŸŒłŒőd‡”˝‰ž
    ‚”Š ‘Í, ă–ě vś, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒX, ŽOŕV O–ž, “ú–ě “ÖŽi, –kŠC“šŽx•”2008”N“~‹GŒ¤‹†”­•\‰ď, 2P12, –kŠC“š‘ĺŠw, 1ŒŽ (2008).

  242. Lasing emission from dye-doped single crystal opal and inverse opal structures
    Y. Nishijima, K. Ueno, S. Juodkazis, V. Mizeikis, H. Misawa, T. Tanimura, K. Maeda, ‘ć18‰ń“ú–{MRSŠwpƒVƒ“ƒ|ƒWƒEƒ€, F-P27-D, “ú–{‘ĺŠw, 12ŒŽ (2007).

  243. A spectroscopic study on the origin of surface enhanced Raman scattering based on structural ddesign of closely-spaced gold nanoparticles
    Y. Yokota, K. Ueno, V. Mizeikis, S. Juodkazis, H. Misawa, ‘ć18‰ń“ú–{MRSŠwpƒVƒ“ƒ|ƒWƒEƒ€, F-P28-D, “ú–{‘ĺŠw, 12ŒŽ (2007).

  244. Plasmonic Optical Properties of Gold Nanoparticles Defined with Sub-Nanometer Precision
    K. Ueno, S. Juodkazis, V. Mizeikis, K. Sasaki and H. Misawa, 2007 KOREA-JAPAN Symposium on Frontier Photoscience, PO11, Gyeongju, Korea , November (2007).

  245. Spectroscopic Studies of Laser Emission from Dye Solution in Pyramidal Opal Structures
    Y. Nishijima, K. Ueno, S. Juodkazis, V. Mizeikis, H. Misawa, T. Tanimura, and K. Maeda, 2007 KOREA-JAPAN Symposium on Frontier Photoscience, PO51, Gyeongju, Korea , November (2007).

  246. Clusters of closely-spaced gold nanoparticles showing strong surface-enhanced Raman scattering
    Y. Yokota, K. Ueno, V. Mizeikis, S. Juodkazis, H. Misawa, 2007 KOREA-JAPAN Symposium on Frontier Photoscience, PO12, Gyeongju, Korea, November (2007).

  247. ‹ŕƒiƒmƒ`ƒFƒCƒ“\‘˘‚ŞŽŚ‚ˇ“ÁˆŮ“I‚Čƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ
    ŽO–ě ‰ëO, ă–ě vś, ‘吟 ‘ĺ, âŒű ‘ńś, V. Mizeikis, S. Juodkazis, ŽOŕV O–ž, 2007”NŒő‰ťŠw“˘˜_‰ď, 3P91, MB‘ĺŠw, 9ŒŽ (2007).

  248. ƒfƒWƒ^ƒ‹ƒ~ƒ‰[ƒfƒoƒCƒX‚đ—p‚˘‚˝ƒ}ƒXƒNƒŒƒXƒŠƒ\ƒOƒ‰ƒtƒB‹Zp‚É‚ć‚é3ŽŸŒłŒőd‡”˝‰ž
    ‚”Š ‘Í, ă–ě vś, S. Juodkazis, ŽOŕV O–ž, “ú–ě “ÖŽi, 2007”NŒő‰ťŠw“˘˜_‰ď, 3P89, MB‘ĺŠw, 9ŒŽ (2007).

  249. ƒsƒ‰ƒ~ƒbƒhŒ^’PŒ‹ťƒIƒp[ƒ‹\‘˘‘Ě‚đ—p‚˘‚˝F‘f—n‰t‚ĚƒŒ[ƒU[”­U‹““Ž‚ĚŒŸ“˘
    ź“‡ Šě–ž, ă–ě vś, S. Juodkazis, V. Mizeikis, ŽOŕV O–ž, ’J‘ş •q”Ž, ‘O“c _•˝, 2007”NŒő‰ťŠw“˘˜_‰ď, 1P58, MB‘ĺŠw, 9ŒŽ (2007).

  250. ‹ŕ‘Žƒiƒm\‘˘ÝŒv‚ÉŠî‚Ă‚˘‚˝•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—‘‹­ˆöŽq‚ĚŒŸ“˘
    i2007”NŒő‰ťŠw“˘˜_‰ďĹ—DGŠwś”­•\Üj
    ‰Ą“c KŒb, ă–ě vś, V. Mizeikis, S. Juodkazis, ŽOŕV O–ž, 2007”NŒő‰ťŠw“˘˜_‰ď, 1P57, MB‘ĺŠw, 9ŒŽ@(2007).

  251. ‘˝ŒőŽqd‡”˝‰ž‚É‚ć‚éƒ}ƒCƒNƒEƒiƒm\‘˘‚̍쐻
    ŽOŕV O–ž, ă–ě vś, ƒˆ[ƒhƒJƒWƒX ƒTƒEƒŠƒEƒXĽƒ~ƒ[ƒCƒLƒX ƒrƒKƒ“ƒ^ƒX, ‘ć56‰ń‚•ŞŽq“˘˜_‰ď, 1R18, –źŒĂ‰ŽH‹Ć‘ĺŠw, 9ŒŽ (2007).

  252. ‹ŕƒiƒm\‘˘‘Ě‚Ě‹ßÚę•ŞŒő
    ˆä‘ş l•˝C‰Ş–{ —T–¤Că–ě vśCŽOŕV O–ž, ‘ć‚P‰ń•ŞŽq‰ČŠw“˘˜_‰ď, “Œ–k‘ĺŠw, 2P106, 9ŒŽ (2007).

  253. ”ńüŒ`Œőd‡”˝‰ž‚É‚ć‚é‹ŕƒiƒmƒuƒƒbƒN\‘˘‚Ě“dę‹­“x‹óŠÔ•Ş•z‚̉Ž‹‰ť
    ‘şŕV ŽŽ÷Că–ě vśCa’J rŽuC‰Ą“c KŒbCV. MizeikisCS. JuodkazisCů–Ř ŒhŽiCŽOŕV O–ž, 2007”NH‹G ‘ć68‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 8a-Q-6, –kŠC“šH‹Ć‘ĺŠw, 9ŒŽ (2007).

  254. ‹ŕƒiƒmƒ`ƒFƒCƒ“\‘˘‚É‚ć‚éƒeƒ‰ƒwƒ‹ƒc‘ŃˆćŒőƒAƒ“ƒeƒi‚̍\’z
    ă–ě vśC‘吟 ‘ĺCŽO–ě ‰ëOCâŒű ‘ńśCV. MizeikisCS. JuodkazisCŽOŕV O–ž, 2007”NH‹G ‘ć68‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 8a-Q-7, –kŠC“šH‹Ć‘ĺŠw, 9ŒŽ (2007).

  255. ’PŒ‹ťƒtƒHƒgƒjƒbƒNŒ‹ť‚đ—˜—p‚ľ‚˝—L‹@F‘f‚ĚƒŒ[ƒU[”­U
    ź“‡ Šě–ž, ă–ě vś, “ĄŒ´ ‰pŽ÷, Vygantas Mizeikis, Saulius Juodkazis, ŽOŕV O–ž, ů–Ř ŒhŽi, •˛‘̍HŠw‰ď‘ć40‰ń‰Ä‹GƒVƒ“ƒ|ƒWƒEƒ€, ŠÖźƒZƒ~ƒi[ƒnƒEƒX, 22, 8ŒŽ (2007).

  256. Nano-Structured Materials in Plasmonics and Photonics
    Hiroaki Misawa, Saulius Juodkazis, Kosei Ueno, Vygantas Mizeikis, The Fifteenth International Conference on Composites/Nano Engineering (ICCE-15), Keynote, 7ŒŽ (2007).

  257. ”ńüŒ`Œőd‡”˝‰ž‚É‚ć‚é‹ŕ‘Žƒiƒm\‘˘‚ɋǍ݂ľ‚˝Œő“dę‹­“x•Ş•z‚ĚƒiƒmƒCƒ[ƒWƒ“ƒO
    ă–ě vś, ŕF’J rŽu, ‰Ą“c KŒb, V. Mizeikis, S. Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž, ‘ć56‰ń•ŞÍ‰ťŠw“˘˜_‰ď, ‰F“s‹{‘ĺŠw, C2001, 5ŒŽ, 2007.

  258. “ń–{˝DNA‘˝’f•Đ•ŞŽć—p“d‹C‰j“Žƒ`ƒbƒv
    ‘ˇ ŠMAă–ě vśA–ě’n Ÿ°AŽOŕV O–ž, ‘ć54‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, ÂŽRŠw‰@‘ĺŠw, 27p-SA-14, 3ŒŽ, 2007.

  259. ‹ŕ‘ŽƒiƒmƒMƒƒƒbƒv\‘˘’†‚É”z’u‚ľ‚˝•ŞŽq‚Ě•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—
    ‰Ą“c KŒbAă–ě vśAV. Mizeikis, S. Juodkazis, ů–Ř ŒhŽiAŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć87t‹G”N‰ď, ŠÖź‘ĺŠw, 3G5-45, 3ŒŽ, 2007.

  260. ƒiƒmƒ`ƒFƒCƒ“\‘˘‚É‚ć‚é“ÁˆŮ“I‚Č‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‹¤–ƒoƒ“ƒh
    ă–ě vśAŽO–ě ‰ëOA‘吟 ‘ĺAâŒű ‘ńśAV. Mizeikis, S. Juodkazis, ŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć87t‹G”N‰ď, ŠÖź‘ĺŠw, 3G5-44, 3ŒŽ, 2007.

  261. ‹tƒIƒp[ƒ‹ƒtƒHƒgƒjƒbƒNŒ‹ť’†‚É‚¨‚Ż‚é—L‹@F‘f•ŞŽq‚Ě”­Œő“ÁŤ
    ź“‡ Šě–žAă–ě vśAVygantas Mizeikis, ŽOŕV O–žA’J‘ş •q”ŽA‘O“c _•˝, “ú–{‰ťŠw‰ď‘ć87t‹G”N‰ď, ŠÖź‘ĺŠw, 3G5-41, 3ŒŽ, 2007.

  262. ƒiƒmƒMƒƒƒbƒv‚đ—L‚ˇ‚é‹ŕ‘Ž\‘˘‘Ě‚É‚ć‚é”ńüŒ`Œőd‡”˝‰ž
    a’J rŽu, ă–ě vś, ‰Ą“c KŒb, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž, 2006”N“ú–{‰ťŠw‰ď–kŠC“šŽx•”“~‹GŒ¤‹†”­•\‰ď, 2B19, ŽD–y, 2ŒŽ, 2007.

  263. ‹ŕƒiƒm\‘˘‚É‚ć‚é•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—‚Ěƒiƒmƒ|ƒPƒbƒgƒTƒCƒYŒř‰Ę
    ‰Ą“c KŒb, ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž, 2006”N“ú–{‰ťŠw‰ď–kŠC“šŽx•”“~‹GŒ¤‹†”­•\‰ď, 2B11, ŽD–y, 2ŒŽ, 2007.

  264. ‚•ŞŽqƒRƒƒCƒh—n‰t‚đ—p‚˘‚˝ƒtƒHƒgƒjƒbƒNŒ‹ť‚̍쐻
    ‚‹´ —F”ü, ă–ě vś, ź“‡ Šě–ž, ŽOŕV O–ž, ’J‘ş •q”ŽE‘O“c _•˝, 2006”N“ú–{‰ťŠw‰ď–kŠC“šŽx•”“~‹GŒ¤‹†”­•\‰ď, 1A14, ŽD–y, 2ŒŽ, 2007.

  265. Plasmonic optical characterization of gold nanostructures defined with sub-nanometer precision
    K. Ueno, S. Juodkazis, V. Mizeikis, K. Sasaki, H. Misawa, Plasmonics and Applications in Nanotechnologies 2006, Singapore, December, 2006.
    (Best Poster Awards in the Workshop)

  266. Two-Photon Absorption Enhancement of a Linear Shape chromophore intercalated into Nano-Layered Silicate Clay
    K. Kamada, Y. Tanamura, K. Ueno, K. Ohta, H. Misawa, 9th International Conference on Organic Nonlinear Optics/International Conference on Organic Photonics and Electronics 2006 (ICONO9/ICOPE2006), Brugge, Belgium, September, 2006.

  267. ŽŠŒČ‘gD‰ť’P•ŞŽq‘w‚đ—p‚˘‚˝‹ŕ“d‹ÉŠî”ă‚ł̐ڐGŠp§Œä
    ‰Fě LŒP, ă–ě vś, ŽOŕV O–ž, Šě‘˝‘ş úf, “ú–{•ŞÍ‰ťŠw‰ď‘ć55”N‰ď, D1019, ‘ĺă‘ĺŠw, 9ŒŽ, 2006.

  268. ƒtƒFƒ€ƒg•bƒŒ[ƒU[‚đ—˜—p‚ľ‚˝’PˆęÚ’…×–E‚Ěˆâ“`Žq”­Œť‰đÍ
    –k—Ń F”V, ă–ě vś, ŽOŕV O–ž, ×ě —zˆę˜Y, ‘Œ´ G, ˜e’J Ž ”V, “ĄŒ´ ­Ži, ‚–Ř –r, “ú–{ś•¨HŠw‰ď•˝Ź18”N“x‘ĺ‰ď, 1K09-4, ‘ĺă‘ĺŠw, 9ŒŽ, 2006.

  269. ƒVƒŠƒRƒ“Šî”ă‚ɍ쐻‚ľ‚˝‹ŕƒiƒm\‘˘‘Ě‚Ě•ŞŒő“ÁŤ
    ŽO–ě ‰ëO, ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž, 2006”NŒő‰ťŠw“˘˜_‰ď, 3P106, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  270. Œ°”÷•ŞŒőŒv‘Ş‚É‚ć‚é‹ÇÝ•\–Ęƒvƒ‰ƒYƒ‚ƒ“•ŞŒő“ÁŤ‚Ě•]‰ż
    ‰Ş“c —z•˝, ă–ě vś, ‰Ą“c KŒb, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž, 2006”NŒő‰ťŠw“˘˜_‰ď, 2P020, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  271. ƒtƒFƒ€ƒg•bƒŒ[ƒU[ĆŽË‚É‚ć‚éƒ|ƒŠƒ}[ƒ}ƒgƒŠƒNƒX’†‚É‚¨‚Ż‚é‹ŕ‘Žƒiƒm”÷—ąŽq‚ĚŒ`Ź
    Wang Huaishan, ă–ě vś, Saulius Juodkazis, ŽOŕV O–ž, 2006”NŒő‰ťŠw“˘˜_‰ď, 1P045, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  272. ƒiƒmƒMƒƒƒbƒv‹ŕ‘Ž\‘˘‘Ě‚đ—p‚˘‚˝”ńüŒ`Œőd‡”˝‰ž
    a’J rŽu, ‰Ą“c KŒb, ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž, 2006”NŒő‰ťŠw“˘˜_‰ď, 1P041, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  273. ƒiƒmƒMƒƒƒbƒv‹ŕ‘Ž\‘˘‘Ě‚É‚ć‚é•\–Ę‘‹­ƒ‰ƒ}ƒ“ŽU—Œv‘Ş
    ‰Ą“c KŒb, ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ŽOŕV O–ž, 2006”NŒő‰ťŠw“˘˜_‰ď, 1P040, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  274. ƒIƒp[ƒ‹‚¨‚ć‚Ń‹tƒIƒp[ƒ‹\‘˘‚đ—L‚ˇ‚éƒtƒHƒgƒjƒbƒNŒ‹ť‚đ—˜—p‚ľ‚˝ƒoƒCƒIƒZƒ“ƒT[‚̍\’z
    ź“‡ Šě–žCă–ě vśCŽOŕV O–žC’J‘ş •q”ŽC‘O“c _•˝, 2006”NŒő‰ťŠw“˘˜_‰ď, 1P023, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  275. ƒ_ƒCƒiƒ~ƒbƒNƒ}ƒXƒNƒŒƒXƒŠƒ\ƒOƒ‰ƒtƒB
    “ŠŽR –žŽj, —Ń“c ‰ës, Š ‰Ŕ‹Ę, Vanagas Edigius, ă–ě vś, Saulius Juodkazis, ŽOŕV O–ž, “ú–ě “ÖŽi, 2006”NŒő‰ťŠw“˘˜_‰ď, 1P035, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  276. ƒeƒ“ƒvƒŒ[ƒg‚đ—˜—p‚ľ‚˝”÷—ąŽqWĎƒtƒHƒgƒjƒbƒNŒ‹ť‚̍쐻‚ĆŒőŠw•]‰ż
    ‚‹´ —F”ü, ă–ě vś, ŽOŕV O–ž, ’J‘ş •q”Ž, ‘O“c _•˝, 2006”NŒő‰ťŠw“˘˜_‰ď, 1P038, “Œ–k‘ĺŠw, 8ŒŽ, 2006.

  277. ‹ŕ‘Žƒiƒm\‘˘‘Ě‚É‚ć‚éŒő‰ťŠw”˝‰žę‚Ě‘nť
    ‰Ą“c KŒbCa’J rŽu, ă–ě vśCVygantas MizeikisCSaulius JuodkazisCů–Ř ŒhŽiCŽOŕV O–ž, ‘ć67‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 31a-P-18, —§–˝ŠŮ‘ĺŠw, 8ŒŽ, 2006.

  278. ‹ŕ‘ŽƒiƒmƒuƒƒbƒN\‘˘‚ĚƒVƒ“ƒOƒ‹ƒiƒmƒ[ƒgƒ‹§Œä‚Ć‹ĎˆęŤ‚Ě•]‰ż
    ă–ě vśC‰Ş“c —z•˝CŽO–ě ‰ëOCVygantas MizeikisCSaulius Juodkazis2Ců–Ř ŒhŽiCŽOŕV O–ž, ‘ć67‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 31a-P-20, —§–˝ŠŮ‘ĺŠw, 8ŒŽ, 2006.

  279. ˆĘ‘Š§Œä‚ľ‚˝‘˝Œő‘ŠƒŒ[ƒU[ŠąÂƒr[ƒ€‚É‚ć‚éŽüŠú\‘˘‚̍쐻
    _Ź ŒŞ‘žC‹ß“Ą •q–žCKock Khuen SeetCź”ö ”ÉŽ÷Că–ě vśCSaulius JuodkazisCŽOŕV O–ž, ‘ć67‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 29a-ZD-1, —§–˝ŠŮ‘ĺŠw, 8ŒŽ, 2006.

  280. ”÷—ąŽqWĎŒ^ƒtƒHƒgƒjƒbƒNŒ‹ť‚¨‚ć‚Ń‚ť‚Ě”˝“]\‘˘’†‚É‚¨‚Ż‚éF‘f•ŞŽq‚Ě”­Œő“ÁŤ‚ĚŒŸ“˘
    ź“‡ Šě–žCă–ě vśC“ĄŒ´ ‰pŽ÷Ců–Ř ŒhŽiCŽOŕV O–žC’J‘ş •q”ŽC‘O“c _•˝, ‘ć67‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 29a-ZD-7, —§–˝ŠŮ‘ĺŠw, 8ŒŽ, 2006.

  281. ‹ŕă‚Ö‚ĚŒő‰ž“šŤƒ`ƒI[ƒ‹‚¨‚ć‚ŃƒWƒXƒ‹ƒtƒBƒh‚ĚŽŠŒČW‡
    Ô‰H —Lję, ‘•ű —ş‘ž, —Ń Š°”V, ”Ń–ě ˝”V, ”~“c €, Š™“c łŠě, —Ń“c ‰ës, ă–ě vś, ŽOŕV O–ž, ‘ć‚P‰ńƒzƒXƒgEƒQƒXƒg‰ťŠwƒVƒ“ƒ|ƒWƒEƒ€, B2-02, ƒGƒ|ƒJƒ‹‚‚­‚Î, 5ŒŽ, 2006.

  282. ‹ŕ“ńŒőŽq—ă‹N”­Œő‚Ě•ŞŒő“ÁŤ |‹ßÚę‚É‚ć‚鑝‹­Œř‰Ę‚ĚŒŸ“˘|
    ă–ě vś, Vygantas Mizeikis, Saulius Juokazis, ů–Ř ŒhŽi, ŽOŕV O–ž, ‘ć67‰ń•ŞÍ‰ťŠw“˘˜_‰ď, H2005, H“c‘ĺŠw, 5ŒŽ, 2006.

  283. ”÷—ąŽqWĎŒ^ƒtƒHƒgƒjƒbƒNŒ‹ť‚̍쐻‚Ć•ŞŒő“ÁŤ‚ĚŒŸ“˘|•ŞÍƒ`ƒbƒv‚̍\’z‚ÉŒü‚Ż‚ā|
    ź“‡@Šě–ž, ă–ě@vś, ‚‹´@—F”ü, Mizeikis Vygantas, ŽOŕV@O–ž, ’J‘ş@•q”Ž, ‘O“c@_•˝, ‘ć67‰ń•ŞÍ‰ťŠw“˘˜_‰ď, F1016, H“c‘ĺŠw, 5ŒŽ, 2006.

  284. Control of Localized Surface Plasmon Extinction by Surrounding Medium: Toward Sensor Applications
    Masahiro Mino, Kosei Ueno, Yukie Yokota, Vygantas Mizeikis, Saulius Juodkazis, Keiji Sasaki, Hiroaki
    XXIst IUPAC Symposium on Photochemistry, P335, Kyoto, April, 2006.

  285. Fabrication of Electromagenetic Enhance Fields by Localized Surface Plasmon
    Yukie Yokota, Kosei Ueno, Vygantas Mizeikis, Saulius Juodkazis, Keiji Sasaki, Hiroaki Misawa
    XXIst IUPAC Symposium on Photochemistry, P334, Kyoto, April, 2006.

  286. Spectral Properties of Plasmonic Molecular Devices
    Kosei Ueno, Vygantas Mizeikis, Saulius Juodkazis, Keiji Sasaki, Hiroaki Misawa
    XXIst IUPAC Symposium on Photochemistry, P333, Kyoto, April, 2006.

  287. Fabrication and Chemical Applications of Large Area Colloidal Photonic Crystals
    Yoshiaki Nishijima, Kosei Ueno, Tomomi Takahashi, Vygantas Mizeikis, Hiroaki Misawa
    XXIst IUPAC Symposium on Photochemistry, P261, Kyoto, April, 2006.

  288. ‹ŕƒiƒmƒ`ƒFƒCƒ“\‘˘‚É‚ć‚éƒvƒ‰ƒYƒ‚ƒ“ŒőŠw“ÁŤ‚ĚŒŸ“˘
    ă–ě vś, Vygantas Mizeikis, Saulius Juokazis, ů–Ř ŒhŽi, ŽOŕV O–ž
    ‘ć53‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 23a-D-11, •‘ H‹Ć‘ĺŠw, 3ŒŽ, 2006.

  289. ‹ŕ‘Žƒiƒm\‘˘‘Ě‚É‚ć‚éŒő“dę‘‹­ę‚Ě‘nť -ƒoƒCƒI[ƒZƒ“ƒT[‚̍\’z‚ÉŒü‚Ż‚ā|
    ‰Ą“c KŒb, ă–ě vś, Vygantas Mizeikis, Saulius Juokazis, ů–Ř ŒhŽi, ŽOŕV O–ž
    ‘ć53‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 22a-C-9, •‘ H‹Ć‘ĺŠw, 3ŒŽ, 2006.

  290. ‰“S•Ş—Ł‚đ—˜—p‚ľ‚˝”÷—ąŽqWĎƒtƒHƒgƒjƒbƒNŒ‹ť‚̍\‘˘§Œä
    ‚‹´ —F”ü, ă–ě vśCVygantas Mizeikis, Saulius Juodkazis, ŽOŕV O–ž, ’J‘ş •q”Ž, ‘O“c _•˝
    ‘ć53‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 22a-L-2, •‘ H‹Ć‘ĺŠw, 3ŒŽ, 2006.

  291. Plasmonics: Control of Optical Properties and Field Enhancement
    Kosei Ueno, Vygantas Mizeikis, Saulius Juodkazis, Keiji Sasaki, Hiroaki Misawa
    Multi-Institutional International Symposium on g–˝hkmeil, –kŠC“š‘ĺŠw, 12ŒŽ, 2005.

  292. SAM‚đ—p‚˘‚˝ƒ}ƒCƒNƒƒ`ƒbƒv’†‚Ĺ‚Ě“d‹C‰ťŠw“I—Ź‘̐§Œä
    ‰Fě LŒPCă–ě vśCŽOŕV O–žCŠě‘˝‘ş úf, ‘ć12‰ń‰ťŠw‚Ćƒ}ƒCƒNƒEƒiƒmƒVƒXƒeƒ€Œ¤‹†‰ď, PC-01, ‹ž“sƒeƒ‹ƒT, 12ŒŽ, 2005.

  293. A Study on Electromagnetic Field Enhancement of Nano-Engineered Structures Estimated by Two-Photon Excited Photoluminescence
    Kosei Ueno, Vygantas Mizeikis, Saulius Juodkazis, Keiji Sasaki, Hiroaki Misawa
    The 12th International Conference on Unconventional Photoactive Systems, ĺ‘ä, 10ŒŽ, 2005.

  294. ‹ŕ‘ŽƒiƒmŽüŠú\‘˘‚É‚ć‚éDNAƒnƒCƒuƒŠƒ_ƒCƒ[[ƒVƒ‡ƒ“‚ĚŒőƒZƒ“ƒVƒ“ƒO
    ă–ě vś, ŽO–ě ‰ëO, —Ń“c ‰ës, ‰Ą“c KŒb, Vygantas Mizeikis, Saulius Juodkazis, ŽOŕV O–ž
    “ú–{•ŞÍ‰ťŠw‰ď‘ć54”N‰ď, ‚`1002, –źŒĂ‰Ž‘ĺŠw, 9ŒŽ, 2005.

  295. 2ŒőŽq—ă‹N”­Œő‚É‚ć‚é‹ŕ‘ŽƒiƒmŽüŠú\‘˘‚Ě“dę‘‹­Œř‰Ę‚ĚŒŸ“˘
    ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž
    2005”N Œő‰ťŠw“˘˜_‰ď, ƒAƒNƒƒX•Ÿ‰Ş, 1A13, 9ŒŽ, 2005.

  296. ƒiƒmƒMƒƒƒbƒv‹ŕ‘Žƒiƒm\‘˘‘Ě‚ŞŽŚ‚ˇƒXƒyƒNƒgƒ‹“ÁŤ‚̐§Œä
    ‰Ą“c KŒb, ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž
    2005”N Œő‰ťŠw“˘˜_‰ď, 2P067, ƒAƒNƒƒX•Ÿ‰Ş, 9ŒŽ, 2005.

  297. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‚É‚ć‚éDNAƒnƒCƒuƒŠƒ_ƒCƒ[[ƒVƒ‡ƒ“‚ĚŒőŒŸo
    ŽO–ě ‰ëO, ă–ě vś, —Ń“c ‰ës, ‰Ą“c KŒb, Vygantas Mizeikis, Saulius Juodkazis,@ŽOŕV O–ž
    2005”N Œő‰ťŠw“˘˜_‰ď, 2P135, ƒAƒNƒƒX•Ÿ‰Ş, 9ŒŽ, 2005.

  298. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‹¤–‚ɂć‚éDNAƒ`ƒbƒv‚ĚŠJ”­
    ă–ě vś, ŽO–ě ‰ëO, —Ń“c ‰ës, ‰Ą“c KŒb, Vygantas Mizeikis, Saulius Juodkazis, ŽOŕV O–ž
    H‹G ‘ć66‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 8p-ZF-4, “ż“‡‘ĺŠw, 9ŒŽ, 2005.

  299. ƒiƒmƒMƒƒƒbƒv‹ŕ‘ŽƒiƒmŽüŠú\‘˘‘Ě‚ŞŽŚ‚ˇŒőŠw“ÁŤ‚̐§Œä
    ‰Ą“c KŒb, ă–ě vś, Vygantas Mizeikis, Saulius Juodkazis, ů–Ř ŒhŽi, ŽOŕV O–ž
    H‹G ‘ć66‰ń‰ž—p•¨—Šw‰ďŠwpu‰‰‰ď, 8p-ZF-5, “ż“‡‘ĺŠw, 9ŒŽ, 2005.

  300. Two-photon excited fluorescence enhancement using gold nanogap structures
    Kosei Ueno, Vygantas Mizeikis, Saulius Juodkazis, Keiji Sasaki, Hiroaki Misawa
    XXII International Conference on Photochemistry (ICP2005), Cairns Convention Center Queensland, 17-421, July, 2005.

  301. Two-photon excited fluorescence enhancement using nano-engineered gold particles
    Kosei Ueno, Vygantas Mizeikis, Saulius Juodkazis, Keiji Sasaki, Hiroaki Misawa
    International Conference on Quantum Electronics 2005 and the Pacific Rim Conference on Lasers and Electro-Optics 2005 (IQEC/CLEO-PR 2005), CTuC3-P48, July, 2005.

  302. ŽŠŒČ‘gD‰ť’P•ŞŽq‘w‚đ—p‚˘‚˝‹ŕŠî”Â/…ÚGŠp‚Ě“d‹C‰ťŠw§Œä
    ‰Fě LŒPAŠâ“c ŒPŽuAă–ě vśAŽOŕV O–žAŠě‘˝‘ş úf
    ‘ć66‰ń•ŞÍ‰ťŠw“˘˜_‰ď, B2018, –kŒŠH‹Ć‘ĺŠw, 5ŒŽ, 2005.

  303. ƒiƒmƒMƒƒƒbƒv\‘˘‚É‚ć‚é2ŒőŽqŒuŒő‘‹­ę‚̍\’z
    ă–ě vśAVygantas MizeikisAů–Ř ŒhŽiAŽOŕV O–ž
    ‘ć66‰ń•ŞÍ‰ťŠw“˘˜_‰ď, D1008, –kŒŠH‹Ć‘ĺŠw, 5ŒŽ, 2005.

  304. ‹ÇÝƒvƒ‰ƒYƒ‚ƒ“‹¤–‚ɂć‚é“dę‘‹­ę‚̍\’z
    ă–ě vśAVygantas MizeikisASaulius JuodkazisAů–Ř ŒhŽiAŽOŕV O–ž
    2005”Nt‹G ‘ć52‰ń‰ž—p•¨—ŠwŠÖŒW˜A‡u‰‰‰ď, 29a-YZ-3, é‹Ę‘ĺŠw, 3ŒŽ, 2005.

  305. ŽŠŒČ‘gD‰ť’P•ŞŽq‘w‚đ—p‚˘‚˝ÚGŠp‚Ě“d‹C‰ťŠw§Œä
    ‰Fě LŒPEŠâ“c ŒPŽuEă–ě vśEŽOŕV O–žEŠě‘˝‘ş úf
    –kŠC“šŽx•”2005”N“~‹GŒ¤‹†”­•\‰ď, 2B24, –kŠC“š‘ĺŠw, 2ŒŽ, 2005.

    @
  306. ƒiƒmƒ`ƒƒƒ“ƒlƒ‹ƒZƒ“ƒT[“ą“üŒ^ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚̍쐻‚Ć‹ŕ‘ŽƒCƒIƒ“‚Ě“d‹C‰ťŠwŒŸo ‚ւ̉ž—p (2)
    Šâ“c ŒPŽuAă–ě vśA’r“c ”ü˜aŽqA{“Ą N•vA“ŕ“c ’B–çA“ĄŒ´ âQ‘˝•vAŽOŕV O–žAŠě‘˝‘ş úf
    ‘ć10‰ń‰ťŠw‚Ćƒ}ƒCƒNƒEƒiƒmƒVƒXƒeƒ€Œ¤‹†‰ď, PB22, ‚źƒVƒ“ƒ{ƒ‹ƒ^ƒ[, 11ŒŽ, 2004.

  307. ’PˆęƒÉ phage DNA‚ĚƒŒ[ƒU[•ß‘¨EŒuŒőƒCƒ[ƒWƒ“ƒO
    ÎěŒĺŽmE•Ÿ“‡“֍؁Eă–ěvśEÎâšŽiEŠě‘˝‘ş úf
    2004”NŒő‰ťŠw“˘˜_‰ď, 2P100, ‚‚­‚΍‘Ű‰ď‹cę, 11ŒŽ, 2004.

    @@
  308. ƒtƒ‹ƒIƒ‰ƒX“ń‘Š‰ťŠw‚Ěƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ւ̉ž—pi‚Qj
    r–؁@•ŽuEă–ě@vśEŽOŕV@O–žEŠě‘˝‘ş@úf
    “ú–{•ŞÍ‰ťŠw‰ď‘ć53”N‰ď, H1022, ç—tH‰Č‘ĺŠw, 9ŒŽ, 2004.

  309. Fabrication of Microchannel Chips Integrated with a Nanochannel Sensor: Application to Electrochemical Detection of Metal Ions
    Satoshi Iwata, Kosei Ueno, Miwako Ikeda, Yasuo Suto, Tatsuya Uchida, Kitao Fujiwara, Noboru Kitamura
    Tokyo Conference 2004, P37, Makuhari Messe & Chiba Institute of Technology, September, 2004.

  310. ƒiƒmƒ`ƒƒƒ“ƒlƒ‹ƒZƒ“ƒT[“ą“üŒ^ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚̍쐻‚Ć‹ŕ‘ŽƒCƒIƒ“‚Ě“d‹C‰ťŠwŒŸo‚ւ̉ž—p
    Šâ“c ŒPŽuEă–ě vśE’r“c ”ü˜aŽqE{“Ą N•vE“ŕ“c ’B–çE“ĄŒ´ âQ‘˝•vEŠě‘˝‘ş úf
    ‘ć9‰ń‰ťŠw‚Ćƒ}ƒCƒNƒEƒiƒmƒVƒXƒeƒ€Œ¤‹†‰ď, P112, ‹ž“s‘ĺŠw, 5ŒŽ, 2004.

  311. ƒtƒ‹ƒIƒ‰ƒX“ń‘Š‰ťŠw‚Ěƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ւ̉ž—p
    r–Ř •ŽuEă–ě vśEŠě‘˝‘ş úf
    ‘ć9‰ń‰ťŠw‚Ćƒ}ƒCƒNƒEƒiƒmƒVƒXƒeƒ€Œ¤‹†‰ď, P201, ‹ž“s‘ĺŠw, 5ŒŽ, 2004.

  312. ŒőG”}“ą“üŒ^ƒ}ƒCƒNƒƒ`ƒbƒv‚É‚ć‚éƒtƒFƒm[ƒ‹‚Ě•Ş‰đ”˝‰ž
    ŽR“c Ź‰ÄEă–ě vśEŠě‘˝‘ş úf
    ‘ć9‰ń‰ťŠw‚Ćƒ}ƒCƒNƒEƒiƒmƒVƒXƒeƒ€Œ¤‹†‰ď, P214, ‹ž“s‘ĺŠw, 5ŒŽ, 2004.

  313. ƒiƒmƒ`ƒƒƒ“ƒlƒ‹”––Œ“ą“üŒ^ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝‹ŕ‘ŽƒCƒIƒ“‚Ě“d‹C‰ťŠwƒZƒ“ƒVƒ“ƒO@
    Šâ“c ŒPŽuEă–ě vśE’r“c ”ü˜aŽqE{“Ą N•vE“ŕ“c ’B–çE“ĄŒ´ âQ‘˝•vEŠě‘˝‘ş úf
    ‘ć65‰ń•ŞÍ‰ťŠw“˘˜_‰ď, F2012, —Ž‹…‘ĺŠw, 5ŒŽ, 2004.

  314. ƒtƒ‹ƒIƒ‰ƒX“ń‘Š‰ťŠw‚Ěƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ւ̉ž—p
    r–Ř •ŽuEă–ě vśEŠě‘˝‘ş úf
    ‘ć65‰ń•ŞÍ‰ťŠw“˘˜_‰ď, F2007, —Ž‹…‘ĺŠw, 5ŒŽ, 2004.

  315. ŒőG”}Œ^ƒ}ƒCƒNƒƒ`ƒbƒv‚É‚ć‚éƒtƒFƒm[ƒ‹‚Ě•Ş‰đ”˝‰ž
    ŽR“c Ź‰ÄEă–ě vśEŠě‘˝‘ş úf
    2004”N–kŠC“šŽx•”“~‹GŒ¤‹†”­•\‰ď, 2A12, –kŠC“š‘ĺŠw, 2ŒŽ, 2004

  316. ŒőG”}‚đ“ą“ü‚ľ‚˝ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚̍쐻‚Ɖž—p
    ŽR“c Ź‰ÄEă–ě vśEÎâ šŽiE’Řˆä ‘×”VEŠě‘˝‘ş úf,
    “ú–{•ŞÍ‰ťŠw‰ď‘ć52”N‰ď, 1F24, ‹{é‹łˆç‘ĺŠw, 9ŒŽ, 2003

  317. ƒtƒBƒgƒ“ƒ`ƒbƒg—Ţ‚đ—p‚˘‚˝ƒ}ƒCƒNƒ‰ťŠw•ŞÍ
    ”ŠŽR ”ü“ŢŽqAă–ě vśAŠě‘˝‘ş úf,
    “ú–{•ŞÍ‰ťŠw‰ď‘ć52”N‰ď, 1F23, ‹{é‹łˆç‘ĺŠw, 9ŒŽ, 2003

  318. ƒ}ƒCƒNƒ—Ź˜H’†‚É‚¨‚Ż‚é’Pˆęlƒtƒ@[ƒW DNA ‚̉Ž‹‰ť
    Îě ŒĺŽmA•Ÿ“‡ “֍؁Aă–ě vśAÎâ šŽiAŠě‘˝‘ş úf,
    “ú–{•ŞÍ‰ťŠw‰ď‘ć52”N‰ď, 1F19, ‹{é‹łˆç‘ĺŠw, 9ŒŽ, 2003

  319. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰žE•ŞÍƒVƒXƒeƒ€i 13 jG“d‰đ”˝‰ž‚ւ̉ž—p
    ă–ě vśAŠě‘˝‘ş úf
    ‘ć64‰ń•ŞÍ‰ťŠw“˘˜_‰ď, 2G08, ‚’m‘ĺŠw, 5ŒŽ, 2003.

  320. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰žE•ŞÍƒVƒXƒeƒ€i 12 jGƒƒ\ƒ|[ƒ‰ƒXƒVƒŠƒJ‚đ—p‚˘‚˝‰ťŠwƒZƒ“ƒVƒ“ƒO
    Šâ“c ŒPŽuAă–ě vśAŠě‘˝‘ş úf
    ‘ć64‰ń•ŞÍ‰ťŠw“˘˜_‰ď, 2G07, ‚’m‘ĺŠw, 5ŒŽ, 2003.

  321. ƒƒ\ƒ|[ƒ‰ƒX\‘˘‘Ě‚đ“ą“ü‚ľ‚˝ƒ}ƒCƒNƒƒ`ƒbƒv‚É‚¨‚Ż‚é‹ŕ‘ŽƒCƒIƒ“‚Ěin-situŒuŒőƒZƒ“ƒVƒ“ƒO
    Šâ“c ŒPŽuAă–ě vśAŠě‘˝‘ş úf
    ‘ć7‰ń‰ťŠw‚Ćƒ}ƒCƒNƒEƒiƒmƒVƒXƒeƒ€Œ¤‹†‰ď, 2P23, –kŠC“š‘ĺŠw, 4ŒŽ, 2003.

  322. ƒ}ƒCƒNƒ“d‹C‰ťŠwƒ`ƒbƒv‚đ—p‚˘‚˝—L‹@“d‰đ‡Ź”˝‰ž‚Ö‚Ě“WŠJ
    ă–ě@vśAŠě‘˝‘ş@úf
    ‘ć7‰ń‰ťŠw‚Ćƒ}ƒCƒNƒEƒiƒmƒVƒXƒeƒ€Œ¤‹†‰ď, 2P06, –kŠC“š‘ĺŠw, 4ŒŽ, 2003.

  323. ƒiƒmƒ`ƒƒƒ“ƒlƒ‹ƒZƒ“ƒT[“ą“üŒ^PDMSŠî”ƒ}ƒCƒNƒƒ`ƒbƒv‚̍쐻‚Ć•]‰ż
    Šâ“c@ŒPŽuAă–ě@vśA×“c@KŽqAŠě‘˝‘ş@úf
    –kŠC“šŽx•”2003”N“~‹GŒ¤‹†”­•\‰ď, 2A05, –kŠC“š‘ĺŠw, 2ŒŽ, 2003.

  324. Photocyanation of Aromatic Hydrocarbons across Oil/Water interface in Polymer Microfluidic Chips
    F. Kitagawa, K. Ueno, and N. Kitamura, Sixth International Conference on Minuaturized Chemical and Biochemical Analysis Systems,
    B-W-26, Nara New Public Hall, November, 2002.

  325. Fabrication and Applications of Polymer-Based Microchannel-Heater Chip as Microreactor
    Y. Hosoda, K. Ueno, S. Ishizaka, and N. Kitamura, Sixth International Conference on Minuaturized Chemical and Biochemical Analysis Systems,
    B-W-28, Nara New Public Hall, November, 2002.

  326. ƒvƒ‰ƒXƒ`ƒbƒNƒ}ƒCƒNƒƒZƒ‹‚Ě“d‹C‰ťŠw‰ž“š‚É‚¨‚Ż‚鐥–@Œř‰Ę
    •ž•”@•A‰Hę@•ű‹IA@“Ąˆä@—˜éA‘“c@—˛•vAŽOŕV@O–žA×“c@KŽqAă–ě@vśAŠě‘˝‘ş@úf
    “ú–{•ŞÍ‰ťŠw‰ď‘ć51”N‰ď, 1J05, –kŠC“š‘ĺŠw, 9ŒŽ, 2002.

  327. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚đ—p‚˘‚˝–F‘°’Y‰ť…‘f‰ť‡•¨‚Ě–ű^…ŠE–Ę”˝‰ž
    ă–ě@vśA–kě@•ś•FAŠě‘˝‘ş@úf, u‰t‰tŠE–Ęƒiƒm—Ěˆć‚̉ťŠwv‘ć‚Q‰ńŒöŠJƒVƒ“ƒ|ƒWƒEƒ€, P21, “Œ–k‘ĺŠw, 8ŒŽ, 2002.

  328. PHOTOCYANATION OF PYRENE ACROSS WATER/OIL INTERFACE IN POLYMER MICROFLUIDIC CHIPS: TOWARD PHOTOCHEMICAL MICROREACTOR
    K. Ueno, F. Kitagawa and N. Kitamura, XIXth IUPAC Symposium on Photochemistry, P239, Hungarian Academy of Sciences, july, 2002.

  329. FABRICATION AND APPLICATIONS OF POLYMER-BASED MICROCHANNEL-HEATER CHIP AS MICROREACTOR
    Y. Hosoda, K. Ueno, S. Ishizaka and N. Kitamura, XIXth IUPAC Symposium on Photochemistry, P96, Hungarian Academy of Sciences, july, 2002.

  330. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰žE•ŞÍƒVƒXƒeƒ€i‚P‚Pj|“d‹C‰ťŠw’†ŠÔ‘Ě‚Ě•ŞŒő•ß‘¨|
    ă–ě vśAŠě‘˝‘ş úf, ‘ć63‰ń•ŞÍ‰ťŠw“˘˜_‰ď, 1B12, •P˜HH‹Ć‘ĺŠw, 5ŒŽ, 2002.

  331. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰žE•ŞÍƒVƒXƒeƒ€i‚P‚Oj|ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹-ƒq[ƒ^[ƒ`ƒbƒv‚Ě”M”˝‰ž‚ւ̉ž—p|
    ×“c KŽqAă–ě vśAŠě‘˝‘ş úf, ‘ć63‰ń•ŞÍ‰ťŠw“˘˜_‰ď, 1B11,•P˜HH‹Ć‘ĺŠw, 5ŒŽ, 2002.

  332. Interfacial Mass Transfer and Photochemical Reaction in Polystyrene Microchannel Chips
    Kosei Ueno and Noboru Kitamura, International Symposium on Microchemistry and Microsystems, P56, KSP (Kawasaki), September, 2001.

  333. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚đ—p‚˘‚˝Œő”˝‰žƒVƒXƒeƒ€ i‚Pj |–F‘°’Y‰ť…‘f‚ĚŒőƒVƒAƒm‰ť”˝‰ž|
    ă–ě vśA–kě •ś•FAŠě‘˝‘ş úf, •˝Ź13”NŒő‰ťŠw“˘˜_‰ď, 1C03, ‹ŕ‘ňŽs•ś‰ťƒz[ƒ‹, 9ŒŽ, 2001.

  334. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒq[ƒ^[ƒ`ƒbƒv‚ĚŒő‰ťŠw“I‹@”\•]‰ż
    ×“c KŽqAă–ě vśAÎâ šŽiAŠě‘˝‘ş úf, •˝Ź13”NŒő‰ťŠw“˘˜_‰ď, 3P03, ‹ŕ‘ňŽs•ś‰ťƒz[ƒ‹, 9ŒŽ, 2001.

  335. Photochemical and Electrochemical Reactions in Polymer Microchannel Chips
    K. Ueno, F. Kitagawa, A. Yamaguchi, S. Matsuo, H. Misawa, and N. Kitamura
    International Congress on Analytical Science 2001, Waseda University, August, 2001.

  336. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰žE•ŞÍƒVƒXƒeƒ€ i 9 ) |‰ťŠw”˝‰ž‚ւ̉ž—p|
    ă–ě vśA–kě •ś•FAŠě‘˝‘ş úf, ‘ć62‰ď•ŞÍ‰ťŠw“˘˜_‰ď, 1E17, MB‘ĺŠw, 6ŒŽ, 2001.

  337. Fabrication of Polymeric Microfluidic Systems with Integrated Electrochemical Devices
    K. Ueno, H. -B. Kim and N. Kitamura
    International Chemical Congress of Pacific Basin Societies PACIFICHEM 2000, 697, Honolulu, USA, December, 2000.

  338. Polymeric Microchannel Chips as Disposable Devices
    N. Kitamura, K. Ueno, H. -B. Kim, F. Kitagawa, C. Iwasaki and Y. Hosoda
    Symposium on Urtrasensitive Chemical Measurement and Characterization,
    International Chemical Congress of Pacific Basin Societies PACIFICHEM 2000, 103,Honolulu, USA, December, 2000.

  339. Integration of microband electrodes with polymeric microchannel chips: Characteristics of electrochemical response.
    H. -B. Kim, K. Ueno, N. Kitamura
    International Chemical Congress of Pacific Basin Societies PACIFICHEM 2000, 716, Honolulu, USA, December, 2000.

  340. Electrochemical response of optically trapped single giant vesicles
    R. Asaumi, F. Kitagawa, K. Ueno, H. -B.Kim, N. Kitamura
    International Chemical Congress of Pacific Basin Societies PACIFICHEM 2000, 698, Honolulu, USA, December, 2000.

  341. ƒ|ƒŠƒ}[Šî”ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹|“d‹Éƒ`ƒbƒv‚Ě“d‹C‰ťŠw‰ž“š“ÁŤ
    ă–ě vś, ‹ŕ K•v, Šě‘˝‘ş úf, ŽOŕV O–ž, ‘ć2‰ń‰ťŠw‚Ćƒ}ƒCƒNƒƒVƒXƒeƒ€, P12, •şŒÉŒ§—§ć’[‰ČŠw‹ZpŽx‰‡ƒZƒ“ƒ^[, 9ŒŽ, 2000.

  342. “d‹É“ŕ‘ Œ^ƒ|ƒŠƒ}[ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚Ě‘nť‚Ɖž—p
    Šě‘˝‘ş úf, ‹ŕ K•v, ă–ě vś, “ú–{•ŞÍ‰ťŠw‰ď‘ć49”N‰ď, ‰ťŠwƒZƒ“ƒT[§’k‰ď, 1B29, ‰ŞŽR‘ĺŠw, 9ŒŽ, 2000.

  343. ƒtƒFƒƒZƒjƒ‹Šî‚đ“ą“ü‚ľ‚˝’PˆęƒWƒƒƒCƒAƒ“ƒgƒxƒVƒNƒ‹‚Ě“d‹C‰ťŠw‰ž“š i‚Rj
    óŠC ‚é‚čŽq, –kě •ś•F, ă–ě vś, ‹ŕ K•v, Šě‘˝‘ş úf, “ú–{•ŞÍ‰ťŠw‰ď‘ć49”N‰ď, 1G31, ‰ŞŽR‘ĺŠw, 9ŒŽ, 2000.

  344. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰ž•ŞÍƒVƒXƒeƒ€ i‚Wj|‚•ŞŽq…—n‰t‚Ě”M‘Š“]ˆÚ|
    Šâč@çHA×“c@KŽqAă–ě@vśA‹ŕ@K•vAŠě‘˝‘ş@úf, “ú–{•ŞÍ‰ťŠw‰ď‘ć49”N‰ď, 2H09, ‰ŞŽR‘ĺŠw, 9ŒŽ, 2000.

  345. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰ž•ŞÍƒVƒXƒeƒ€ i‚Vj |ƒ}ƒCƒNƒƒq[ƒ^[‚̍쐻‚Ć•]‰ż|
    ×“c KŽq, ă–ě vś, ‹ŕ K•v, Šě‘˝‘ş úf, “ú–{•ŞÍ‰ťŠw‰ď‘ć49”N‰ď, 2H08, ‰ŞŽR‘ĺŠw, 9ŒŽ, 2000.

  346. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰ž•ŞÍƒVƒXƒeƒ€ i‚Uj|“d‹É‚̍쐻‚Ć•]‰ż|
    ă–ě vśC–kě •ś•FC‹ŕ K•vCŠě‘˝‘ş úfCŽOŕV O–ž, ‘ć61‰ń•ŞÍ‰ťŠw“˘˜_‰ďC2A03, ƒnƒCƒu’ˇ‰Ş, 5ŒŽ, 2000.

  347. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰ž•ŞÍƒVƒXƒeƒ€ i‚Tj
    ă–ě vśC•“ŕ L‘ăC‹ŕ K•vCŠě‘˝‘ş úf, ŽOŕV O–ž, “ú–{•ŞÍ‰ťŠw‰ď‘ć48”N‰ďC1F19, b“ě‘ĺŠw, 9ŒŽ, 1999.

  348. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰ž•ŞÍƒVƒXƒeƒ€ i‚Sj
    ă–ě vśC‹ŕ K•vCŠě‘˝‘ş úfCŽOŕV O–ž, ‘ć60‰ń•ŞÍ‰ťŠw“˘˜_‰ďC 1F04, O‘O‘ĺŠw, 5ŒŽ, 1999.

  349. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰žE•ŞÍƒVƒXƒeƒ€i3j‰t^‰t’Šo‚ւ̉ž—p
    ‹ŕ K•vAŠě‘˝‘ş ¸Aă–ě vśAŽOŕV O–ž, “ú–{‰ťŠw‰ď‘ć76t‹G”N‰ď, 2E230, _“ސě‘ĺŠw, 3ŒŽ, 1999.

  350. ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹ƒ`ƒbƒv‚ÉŠî‚Ă‚˘‚˝”˝‰žE•ŞÍƒVƒXƒeƒ€i2jƒVƒXƒeƒ€‚̍쐻
    Šě‘˝‘ş¸A‹ŕ@K•vAç—t^OAă–ěvśAŽOŕVO–ž, “ú–{‰ťŠw‰ď‘ć76t‹G”N‰ď, 2E229, _“ސě‘ĺŠw, 3ŒŽ, 1999.

  351. ƒ|ƒŠƒ}[Šî”ƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹‚É‚¨‚Ż‚é‰t‰t’Šo‰ß’ö‚ĚŒŸ“˘
    ă–ě vśAç—t ^OA‹ŕ K•vAŠě‘˝‘ş úfA–kŠC“šŽx•”1999”N“~‹GŒ¤‹†”­•\‰ďC2P15, –kŠC“š‘ĺŠwC2ŒŽ, 1999.

  352. ƒCƒ“ƒvƒŠƒ“ƒeƒBƒ“ƒO–@‚É‚ć‚éƒ}ƒCƒNƒƒ`ƒƒƒ“ƒlƒ‹‚̍쐻‚Ć•]‰ż
    ă–ě vśAç—t ^OA‹ŕ K•vAŠě‘˝‘ş úf, “ú–{•ŞÍ‰ťŠw‰ď‘ć47”N‰ďC1A11, Šň•Œ‘ĺŠw, 10ŒŽ, 1998.
@˜_•ś@@‘ŕE‰đŕEProceedingE‘Đ‘ź@@ľ‘ҍu‰‰EŽóÜu‰‰@@Šw‰ďEu‰‰@@“Á‹–
@“Á‹–oŠč

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