| P1 | Mario Agio, University of Pavia, Pavia, Italy | Impurity modes in a photonic crystal: coupling efficiency and quality factor |
| P2 | Ivan Alvarado-Rodriguez, UCLA Optoelectronics, Los Angeles, CA | Photonic crystal defect cavities in InGaAs |
| P3 | Richard Amos, DERA, United Kingdom | Fabrication of large-are colloidal crystals using one- and two-dimensional shear |
| P4 | Dimitris Angelakis, Imperial College, London, United Kingdom | Coherent effects in two band photonic crystals |
| P5 | Vasily Astratov, University of Sheffield, United Kingdom |
Direct study of heavy photon dispersions in photonic crystal waveguides
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| P6 | Mark Auslender, Ben-Gurion University of the Negev, Israel | On the correct use of plane-wave discretization in photonic-structure simulation: Grating diffraction example |
| P7 | Mehmet Bayindir, Bilkent University, Ankara, Turkey | Propagation of photons through localized coupled-cavity modes in photonic band gap structures |
| P8 | Mona Berciu, University of Toronto, Canada | Theory of fluorescence in three-dimensional photonic crystals |
| P9 | Navin Bhat, University of Toronto, Canada | Optical pulse propagation in nonlinear photonic crystals |
| P10 | Alvaro Blanco, Instituto de Ciencia de Materiales de Madrid, Madrid, Spain; Marta Ibisate, Instituto de Ciencia de Materiales de Madrid (CSIC), Madrid, Spain | Photonic properties of CdS inverted opals |
| P11 | Muriel Botey Cumella, Universitat Politecnica de Catalunya, barcelona, Spain | Momentum nonconserving interactoin within a layer of nonlinear material localized in a subwavelength region of the space |
| P12 | Niclas Carlsson, FESTA, Ibaraki, Japan | Formation of 2D photonic crystal airbridge structures in AlGaAs based semiconductor heterostructures |
| P13 | Martin Charlton, University of Southampton, United Kingdom | Analysis of photonic crystal waveguide devices |
| P14 | Crina Maria Cojocaru, Universitat Politecnica de Catalunya, Barcelona, Spain | Dispersive properties of a truncated 1-dimensional photonic crystal |
| P15 | M. Cornelia Cuisin, Institut d'Electronique fondamentale, Orsay, France | PMMA resist templates for dielectric and metallic "Yablonovite" photonic crystals at submicrometer scales |
| P16 | Michiel de Dood,FOM, The Netherlands | Fabrication and optical doping of 1, 2, and 3-dimensional photonic materials using ion beams |
| P17 | George Deligeorgis, FORTH, Crete, Greece | Application of reactive ion etching for GaAs-based integrated optoelectronics |
| P18
P19 |
Ihab El-Kady, Iowa State University, United States | Waveguides in two-dimensional photonic band gap structures Metallic photonic crystals at optical wavelengths |
| P20 | Stefan Enoch, Faculté des Sciences et Techniques de St. Jérome, Marseille, France | Anomalous refractive properties of photonic crystals at the band edges |
| P21 | Nayer Eradat, University of Utah, United States | Optical studies of metal infiltrated opal photonic crystals |
| P22 | Alexei Erchak, Massachusetts Institute of Technology, Cambridge, MA, U.S.A. | Increased light extraction from a light-emitting diode using a two-dimensional photonic crystal |
| P23 | Jan Fagerstrom,FOA, Sweden | Characterization of a three-dimensional microwave photonic crystal |
| P24 | Lucia Florescu, University of Toronto, Canada | Time-dependent diffusion model of lasting in a random amplifying medium |
| P25 | Marian Florescu, University of Toronto, Canada | Non-Markovian atomic switching in photonic band gap materials |
| P26 | Eliane Flück, University of Twente, The Netherlands | Light interference in waveguides containing periodic one-dimensional air rod arrays |
| P27 | Stavroula Foteinopoulou, Iowa State University, United States | Tight Binding Parametrization of Photonic Crystals |
| P28 | Valentin Freilikher,Bar-Ilan University, Israel | Transport and localizations in quasi-one-dimensional systems |
| P29 | Antonio Garcia-Martin, Universidad Autonoma de Madrid, Spain | Conductance distributions and transport eigenchannels: From conductance quantization to Anderson localization |
| P30 | Florencio Garcia Santamaria, Universidad Autonoma de Madrid, Spain | Photonic properties of CdS inverted opals |
| P31 | Jacek Generowicz, University of Southampton, United Kingdom | Modelling photonic crystals using finite elements |
| P32 | Cécile Goffaux, Laboratoire de Physique du Solide, FUNDP, Namur, Belgium | Acoustic and elastic waves propagation in two and three dimensional periodic heterostructures |
| P33 | Jaime Gomez Rivas, Van der Waals-Zeeman Instituut, Amsterdam, The Netherlands | Optical experiments on germanium powders close to the Anderson localization transition |
| P34 | Raquel Gomez-Medina, Universidad Autonoma de Madrid, Spain | Enhanced electromagnetic field-particle interactions in a waveguide |
| P35 | Serguei Grabtchak, University of Toronto, Canada | Self-assembly of 3-D PBG materials |
| P36 | Boris Gralak, Faculté des Sciences et Techniques Centre de Saint Jérome, France | Transmission by photonic crystals: unbounded transfer operators approach |
| P37 | Zhong-Ze Gu, Kanagawa Academy of Science and Technology, Japan | Control of photonic band structure by photo-irradiation |
| P38 | Christian Hermann, Institute of Technical Physics, Germany | Lightfield propagation in 2D photonic crystal slab waveguide structures |
| P39 | Reinald Hillebrand, Max Planck Institute of Microstructure Physics, Halle, Germany | Theoretical study of complete photonic band gaps for varying 2D filling patterns of oval-shaped type |
| P40 | Arnout Imhof, Van der Waals-Zeeman Instituut, University of Amsterdam, The Netherlands | Diffusive and coherent transport of light in strongly scattering porous GaP |
| P41 | Steven Johnson, Massachusetts Institute of Technology, United States | Photonic crystals in 3D planar structures and integrated optics |
| P42 | Maria Kafesaki, University of Crete, and FORTH, Crete, Greece | Band gaps phenomena in twinned periodic elastic composites |
| P43 | Robin Kaiser,INLN, France | Coherent backscattering of light by laser cooled atoms |
| P44 | Erik Knudsen, Technical University of Denmark, Kgs. Lyngby, Denmark | Waveguiding properties of photonic crystal fibres |
| P45 | Femius Koenderink, University of Amsterdam, The Netherlands | Enhanced backscattering from photonic crystals |
| P46 | Patrick Kramper, Universitaet Konstanz, Germany | Spectroscopy of defect modes in photonic crystals |
| P47 | Sissy Kyriazidou, University of California--Los Angeles, United States | Fundamental electromagnetic excitation of PBG materials: A formal analogy of PBG and natural crystals |
| P48 | Miguel Laso, Public University of Navarre, Spain; Txema Lopetegi, Public University of Navarre, Spain | Photonic crystals in microstrip technology |
| P49
P50 |
Ralk Lenke, University of Konstanz, Germany | Magnetic Field Effects on Coherent Backscattering in case of Mie Scattering Comparison between the `The Glory' and Coherent Backscattering of Light in turbid Media |
| P51 | Stephen Leonard, University of Toronto, Canada | Two-dimensional single-mode photonic crystal waveguides fabricated in silicon |
| P52 | Marine Levassor d'Yerville, Universite Montpellier, France | Influence of defect positions on the diffraction properties of photonic crystals |
| P53 | Christian Liguda, Technische Universität Hamburg-Harburg, Germany | Three-dimensional finite difference time domain simulation and fabrication of 2d photonic bandgap structures in waveguides from low loss dielectrics |
| P54 | Fernando López-Tejeira, Universidad Autonoma de Madrid, Spain | Diffraction effects in artificial opals |
| P55 | Virginie Lousse, Facultés Universitares Notre -Dame de la Paix, Namur, Belgium | Influence of illumination on the density of modes of photorefractive nonlinear photonic crystals |
| P56 | Torsten Maka, Institut für Materialwissenschaften, Wuppertal, Germany | Thin film photonic crystals |
| P57 | Vinothan Manoharan, University of California--Santa Barbara, United States | Ordered macroporous ritile titanium dioxide by emulsion templating |
| P58 | Jesus Manzanares Martinez, Université Montpellier II, France | Photonic defect states in imperfect coated opals |
| P59 | Luis Martin-Moreno, Universidad de Zaragoza, Spain | Self-Assembled triply periodic minimal surfaces as moulds for photonic band gap materials |
| P60 | Beatriz Martinez, Public University of Navarra, Spain | Patch antenna design with a photonic bandgap substrate |
| P61 | Hernan Miguez, la Universidad Politecnica de Valencia, Valencia, Spain; Marta Ibisate, Instituto de Ciencia de Materiales de Madrid (CSIC), Madrid, Spain | Fabrication of Ge Inverse Opals |
| P62 | Daniel Mittleman, Rice University, U.S.A. | Using colloidal crystals as templates for the formation of novel photonic materials |
| P63 | Jessica Mondia, University of Toronto, Canada | Tunable two-dimensional photonic crystals using liquid crystal infiltration |
| P64 | Maria Caterina Netti, University of Southampton, United Kingdom | 2D photonic crystal waveguides: Band gaps and light cones |
| P65 | Bianca Nelson, University of Stanford, CA, U.S.A. | A periodic dielectric stack as a one-dimensional photonic crystal for wavelength demultiplexing by beam shifting |
| P66 | Georgios Nikolopoulos, University of Crete, Greece | Beyond single-photon localization at the edge of a photonic band gap |
| P67 | Ségolène Olivier, Ecole Polytechnique, Palaiseau Cedex, France | Optical properties of photonic crystal straight waveguides |
| P68 | Raluca Penciu, University of Crete, Greece | Vibrational modes in solution of copolymers |
| P69 | Suresh Pereira, University of Toronto, Canada | Canonical quantization of envelope function equations in a PBG material |
| P70 | Alexandros Pertsinidis, Brown University, Providence, RI, U.S.A. | Pinned colloidal crystals: Controlling the self-assembly of thin colloidal crystals with lithographically patterned substrates |
| P71 | David Peyrade, Université Montpellier, France | GaN 2D photonic crystals |
| P72 | Felipe Pinheiro, Centro Brasileiro de Pequisas Fisicas, Brasil | Multiple scattering of light in disordered magnetic media: Localization parameter, transport velocity and diffusion constant |
| P73 | Luca Plattner, University of Southampton, United Kingdom | Advances in modelling of Morpho-type diffracive structures |
| P74 | Vladimir Poborchii, National Institute for Advanced Interdisciplinary Research, Japan | Photonic-band-gap properties of 2-dimensional lattices of Si nanopillars |
| P75 | Iounnis Psarobas, University of Athens, Greece | A layer Korringa-Kohn-Rostoker method for phononic crystals |
| P76 | Min Qiu, Royal Institute of Technology, Sweden | Studying photonic band-gap structures by finite-difference time-domain method |
| P77 | Rajesh Rengarajan, Rice University, United States | Controlling the optical band gap properties of macroporous polymers by the application of mechanical compression |
| P78 | Andrew Reynolds, Glasgow, Scotland, United Kingdom | Analysis of membrane support structures for integrated antenna usage on 2-dimensional photonic band gap structures |
| P79 | Jorge Ripoll, ICMM, Spain | Multiple layered diffusive media: Theory and experiments |
| P80 | Andrey Rogach, University of Hamburg, Germany | Chemical route to three-dimensional colloidal photonic crystals doped with semiconductor nanoparticles |
| P81 | José Sanchez-Dehesa, Universidad Autonoma de Madrid, Spain | Vacancy lattices in two dimensional acoustic crystals |
| P82 | Juan Vicente Sanchez-Perez, Universidad Politecnica de Valencia, Spain | Bandgap enhancement in two dimensional sonic crystals |
| P83 | Jorg Schilling, Max-Planck-Institut for Microstructure Physics, Halle, Germany | Photonic crystals made of macroporous silicon: Down to near IR, up to 3 dimensions |
| P84 | Serguei Skipetrov, CNRS, France | Temporal fluctuations and instabilities of waves in nonlinear disordered media |
| P85 | David Taylor, DERA, United Kingdom | Colloidal crystals in a liquid crystal host |
| P86 | Burak Temelkuran, Bilkent University, Turkey | Silicon micromachined quasi-metallic photonic crystals |
| P87 | Victor Tikhomirov, University of Leeds, United Kingdom | High refractive index chalcogenide glasses for photonic band-gap devices |
| P88 | Adriaan TIp, FOM, The Netherlands | Band structure for absorptive photonic crystals |
| P89 | Ovidiu Toader, University of Toronto, Canada | Photonic crystals exhibiting full photonic band gaps |
| P90 | Han van der Lem, FOM, AMOLF, The Netherlands | Two-dimensional Complete Photonic-Bandgap Structures in the Visible |
| P91 | Jerome Vasseur, Universite de Lille, France | Defect mode in one-dimensoinal combined photonic waveguides--application to the resonant tunneling between two continua |
| P92 | Krassimir Velikov, Utrechyt University, The Netherlands | Photonic crystals from core-shell colloidal particles |
| P93 | Jean-Pol Vigneron, Facultes Universitaires Notre Dame De La Paix, Belgium | Tight-binding description of polarization waves in periodic arrays of metal dots |
| P94 | Joachim Wagner, Universität des Saarlandes, Germany | Preparation of Mesoscale Ordered Structures by Means of Immobilized Colloidal Crystals |
| P95 | Vassilos Yannopapas, NTVA, Greece | Effect of moderate disorder on the absorbance of plasma spheres distributed in a host dielectric medium |
| P96 | Marcel Doosje, University of Groningen, The Netherlands | Scattering of light on the surface of a photonic crystal |
| P97 | P. Halevi, INAOE, Mexico | Tunable photonic crystals with semiconducting constituents |
| P98 | E. Chatziheodoridis, Institut fuer Feinwerktechnik | Metallo-dielectirc photonic band-gap structures in the millimeter-wave region |
| P100 | R. Miller, Optical Switch Corp. U.S.A. | NA |