Index
573
inhomogeneous localization of, 18–22
local fields, 26–28
retarded Green’s function, 22–24
SP modes as resonances, 24–26
Non-radiative decay rate, 527
Nonradiative plasmon coupling, 540
Norton wave, 381, 385, 386, 388
Number theory, 330, 334, 345, 370
aperiodic order and, 345–347
Numerical modeling
boundary-element method, 224–227
challenges, 222–223
modeling SHG, recent approaches for,
224
nonlinear problems, general approach
for, 223–224
Numerical simulations, 516
O
Ohmic losses, 415
One-photon photoemission PEEM (1PPPEEM), 29
Optical activity, 407
Optical antenna, 8, 9, 432
Optical Bloch equations, 64–66
Optical gratings, 2D, 360
Optical Magnus effect, 470
Optical spin Hall effect (OSHE), 470, 484,
485, 496
from plasmonic nanoapertures, 485–492
Optical spin symmetry breaking, in
nanoapertures, 470–475
Optical tornado, nanoparticle generated,
440–444
Orbital angular momentum (OAM), 342,
343, 344, 470, 472, 473, 474, 480,
482
P
Para-mercaptoaniline (pMA) molecules,
451
Parastichies, 342
Perturbation theory, 59, 258, 360
Phase modulation, 34, 41, 47, 53, 55, 157
Photoemission
electron
microscope
(PEEM), 29, 30, 31, 42, 50, 51,
273
Photon tunneling, 308
frustration modes, 308–309
surface modes, 309–312
Photonic molecules, 434
Photonic–plasmonic coupled modes, 331
Photonic–plasmonic coupling, 348
Photovoltaics (PVs), 126, 137, 319, 456
efficiency, 319
thermophotovoltaics (TPVs), 299, 301
thin-film, 454
Pinwheel tiling, 339
Pisot-type substitutions, 336
Planar diffraction, 341
Planck’s constant, 284
Plasmon dynamics, femtosecond timedomain measurement of, 270–
274
Plasmon enhanced dye-sensitized solar
cells, 128
calculating solar enhancement, 130–132
mechanism of enhanced dye absorption,
129–130
Plasmon-enhanced radiative coupling, 527,
531, 540
Plasmon-enhanced
radiative
transfer
(PERT), 546
Plasmonic Aharonov-Bohm effect, 475–479
Plasmonic antennas, ultrafast spatiotemporal control with, 274–278
Plasmonic atoms, 434
Plasmonic Dicke effect, 531, 535
Plasmonic eigenmodes and effective resonant permittivity of metamaterials, 79–80
Plasmonic in-plane wavenumber, 467
Plasmonic materials, energy transport and
dissipation in, 436–437
Plasmonic nanogalaxies, 357
Plasmonic nanostructures
hydrodynamics of light flow in, 449–451
for supporting vibrational spectroscopy,
113–116
Plasmonically enhanced dye-sensitized
solar cells, challenges, 139–140
ensembles, 140–141
excited state lifetime of plasmons, 142
metal losses, 142–143
Plasmonically-integrated tornadoes, applications of, 451–456
Plasmonics. See Nanoplasmonics; Plasmonics and coherent control; Quantum nanoplasmonics; Silicon
plasmonics components; Spinoptics, in plasmonics
Plasmonics and coherent control, 33–36
coherent control by spatiotemporal pulse
shaping, 46–50
experimental demonstrations of, 50–55
573
inhomogeneous localization of, 18–22
local fields, 26–28
retarded Green’s function, 22–24
SP modes as resonances, 24–26
Non-radiative decay rate, 527
Nonradiative plasmon coupling, 540
Norton wave, 381, 385, 386, 388
Number theory, 330, 334, 345, 370
aperiodic order and, 345–347
Numerical modeling
boundary-element method, 224–227
challenges, 222–223
modeling SHG, recent approaches for,
224
nonlinear problems, general approach
for, 223–224
Numerical simulations, 516
O
Ohmic losses, 415
One-photon photoemission PEEM (1PPPEEM), 29
Optical activity, 407
Optical antenna, 8, 9, 432
Optical Bloch equations, 64–66
Optical gratings, 2D, 360
Optical Magnus effect, 470
Optical spin Hall effect (OSHE), 470, 484,
485, 496
from plasmonic nanoapertures, 485–492
Optical spin symmetry breaking, in
nanoapertures, 470–475
Optical tornado, nanoparticle generated,
440–444
Orbital angular momentum (OAM), 342,
343, 344, 470, 472, 473, 474, 480,
482
P
Para-mercaptoaniline (pMA) molecules,
451
Parastichies, 342
Perturbation theory, 59, 258, 360
Phase modulation, 34, 41, 47, 53, 55, 157
Photoemission
electron
microscope
(PEEM), 29, 30, 31, 42, 50, 51,
273
Photon tunneling, 308
frustration modes, 308–309
surface modes, 309–312
Photonic molecules, 434
Photonic–plasmonic coupled modes, 331
Photonic–plasmonic coupling, 348
Photovoltaics (PVs), 126, 137, 319, 456
efficiency, 319
thermophotovoltaics (TPVs), 299, 301
thin-film, 454
Pinwheel tiling, 339
Pisot-type substitutions, 336
Planar diffraction, 341
Planck’s constant, 284
Plasmon dynamics, femtosecond timedomain measurement of, 270–
274
Plasmon enhanced dye-sensitized solar
cells, 128
calculating solar enhancement, 130–132
mechanism of enhanced dye absorption,
129–130
Plasmon-enhanced radiative coupling, 527,
531, 540
Plasmon-enhanced
radiative
transfer
(PERT), 546
Plasmonic Aharonov-Bohm effect, 475–479
Plasmonic antennas, ultrafast spatiotemporal control with, 274–278
Plasmonic atoms, 434
Plasmonic Dicke effect, 531, 535
Plasmonic eigenmodes and effective resonant permittivity of metamaterials, 79–80
Plasmonic in-plane wavenumber, 467
Plasmonic materials, energy transport and
dissipation in, 436–437
Plasmonic nanogalaxies, 357
Plasmonic nanostructures
hydrodynamics of light flow in, 449–451
for supporting vibrational spectroscopy,
113–116
Plasmonically enhanced dye-sensitized
solar cells, challenges, 139–140
ensembles, 140–141
excited state lifetime of plasmons, 142
metal losses, 142–143
Plasmonically-integrated tornadoes, applications of, 451–456
Plasmonics. See Nanoplasmonics; Plasmonics and coherent control; Quantum nanoplasmonics; Silicon
plasmonics components; Spinoptics, in plasmonics
Plasmonics and coherent control, 33–36
coherent control by spatiotemporal pulse
shaping, 46–50
experimental demonstrations of, 50–55