Nanolight
2012, Mar 11 -- Mar 17
Organizers:
L. Martín Moreno (ICMA, CSIC - U. Zaragoza)
N. Van Hulst (ICFO, Barcelona)
Welcome | |
Light - Matter Strong Interactions | |
T. W. Ebbesen | |
On single molecules and single photons | |
V. Sandoghdar | |
Plasmonics for enhanced light-matter interaction at the nanoscale | |
R. Quidant | |
Strong coupling studies with surface plasmon polaritons and quantum dots | |
P. Torma | |
From near-field optics to optical antennas | |
L. Novotny | |
Nano-FTIR: spectroscopic infrared nanoscopy | |
F. Keilman | |
Coupling quantum emitters into new electro-magnetic modes | |
N. Van Hulst | |
Close encounters between Optical Nanoantennas | |
J. Aizpurua | |
λ3/1000 Plasmonic Nanocavities for Biosensing Fabricated by Soft UV. | |
Nanoimprint Lithography S. Collin |
Taming Flow of Photons and Electrons with Metamaterials | |
N. Engheta | |
Spoof, chiral and graphene plasmons | |
F. J. Garcia-Vidal | |
Graphene: a novel platform for capturing and manipulating light at the nanoscale | |
F. Koppens | |
Near- and far-fields in graphene structures | |
A. Nikitin | |
Trapping the light fantastic | |
D. Wiersma | |
Electrically generated surface plasmons and sub-wavelength focusing | |
A. Bouseksou | |
Plasmons, photons, electrons, and graphene: A perfect match | |
F. J. Garcia de Abajo | |
Spatio-temporal observation of surface plasmon polariton modes using normal-incidence photoemission electron microscopy | |
C. Schneider | |
Nanoplasmonics: Approaching the quantum regime and applications in solar light harvesting and light emission control | |
S. Maier |
Active surface plasmon photonics | |
P. Berini | |
Nanoscale magnetic field mapping with a single spin scanning probe magnetometer | |
L. Rondin | |
Nanoparticle dynamics in non-conservative light force fields | |
J. J. Saenz | |
Merging plasmonic components on Si motherboard for optical interconnects | |
A. Dereux | |
Enhanced and directional fluorescence from molecules in a corrugated aperture antenna | |
J. Wenger | |
Measuring the transmission matrix of a complex medium in optics | |
S. Gigan | |
Plasmonics and the problem of gain | |
W. Barnes | |
Various approaches to loss mitigation in Nanoplasmonics and their limitations | |
J. Khurgin | |
Poster session | |
All-Solid-State Quantum Optics with Quantum Dots embedded in Photonic Crystals and Plasmonic Nanostructures | |
P. Lodahl | |
Cavity optomechanics: Coherent coupling of light and a micro-mechanical oscillator | |
T. Kippenberg | |
Spatial coherence induced by plasmon/exciton strong coupling | |
S. Aberra Guebrou | |
An array of single photon registers on a dielectric nano-waveguide | |
J. Hwang | |
Gold nanoparticles and assemblies with extraordinary optical activity | |
L. Liz | |
Metallic and semiconducting nanoantennas | |
J. Gomez-Rivas | |
Infrared nanophotonics based on antennas and transmission lines | |
R. Hillenbrand | |
Correlation Effects in Surface Polariton Excitation of Statistically Homogeneous Sources: Consequences for Near Field Spatial Coherence | |
M. Nieto-Vesperinas | |
Putting Plasmonic Near-field Probes in Perspective: the Case for the Campanile Geometry | |
W. Bao |
Molding light propagation with phase discontinuities | |
Z. Gaburro | |
Random lasers. Under control? | |
C. Lopez | |
Large shift of nonlinear molecular radiation via coherent coupling to an off-resonance plasmon | |
M. Mariano | |
Gradient index plasmonic | |
T. Zentgraf | |
Silicon colloids based nanomaterials | |
F. Messeguer | |
Long-range excitation transfer via DNA nanowire using noble nanoparticles as laser antennas | |
F. Garwe | |
Slowly varying surface plasmon for super-resolution imaging | |
N. Cang |