Index
575
Short-range surface plasmon polaritons (SRSPPs), 403
Silicon carbide, 292
Silicon plasmonic detectors (SPDs), 157–
163
Silicon plasmonic modulators (SPMs), 157–
158
Silicon plasmonics components
active devices, 156–163
motivation, 151
passive devices, 151–156
Silver aggregates, 119
Singular-continuous spectra, 333, 333n2
Small metal nanosphere, 192
Solar spectrum, enhancing, 132–133
dielectric core, metal shell particles, 138
metal composition, 133–135
other geometries, 139
polarization-dependent resonances in
anisotropic particles, 138–139
polarization-independent resonances,
135–137
shape, 135
Spasers, 55–56
bistable spasers, 75, 76–77
in CW mode, 69–70
equations of, 64–65
fundamentals, 56–58
latest progress in, 59–64
monostable spasers, 73–75
nanospasers, 61–64
as ultrafast quantum nanoamplifier, 72–
73
Spasing, 55–56
conditions of loss compensation by gain,
81–82
loss compensation by gain, 77–81, 83–85
Spatial modulation spectroscopy (SMS), 198
Spatial signals, 2D, 349n5
Spatially-coherent thermal emission, 291–
293
Spatio-temporal coherent control, 34–35
Spatiotemporal pulse shaping, 46–47
Spectroscopy. See also Surface enhanced
vibrational spectroscopy, applications of; Vibrational spectroscopy, normal and surfaceenhanced
2D, 278
Spherical (Huygens) wave, 480
Spherical nanoparticle, 267
SPIDER, 14
Spin-based plasmonic effect in nanoscale
structures, 464–470
Spin-dependent plasmonics, 480–484
Spin-Hall effects, 478
Spinoptics, in plasmonics
coupled thermal antenna lattices, 492–
496
optical spin symmetry breaking, in
nanoapertures, 470–475
plasmonic Aharonov-Bohm effect, 475–
479
plasmonic nanoapertures, 485–492
Rashba-like spin degeneracy violation,
492–496
spin-based plasmonic effect in nanoscale
structures, 464–470
spin-dependent plasmonics, 480–484
Spin-orbit interaction, 460, 472, 473, 478,
480, 492, 494, 496
Split-ring resonators (SRRs), 216, 412
Stefan constant, 307
Stefan-Boltzmann law, 300, 301, 307, 308
Stern-Gerlach effects, 478
Stimulated emission, 59, 60, 65, 70, 74, 81,
82
Stimulated Raman scattering, 105
surface enhanced femtosecond, 120
Stimulated Raman spectroscopy (SRS), 105,
111, 112
Stokes frequency, 104
Structural resonances, 331
Substitution matrix, 336
Sum-frequency generation (SFG), 256
Super-hydrophobic surfaces (SHSs), 503
lattice packings and, 506–507
small friction coefficients of, and evaporation dynamics, 508–510
Super-hydrophobicity, model
fabrication of devices, 511–512
fluorescence microscopy characterization of Rhodamine deposits, 513
Raman characterization of Rhodamine
deposits, 513
samples AFM characterization, 512–513
samples SEM characterization, 512
Super-hydrophobicity, physical model, 504
lattice packings and SHSs, 506–507
optimal design, consideration for, 509–
510
physics of drops and surfaces, 504–505
small friction coefficients of SHSs and
evaporation dynamics, 508–509
Superradiance, 439
575
Short-range surface plasmon polaritons (SRSPPs), 403
Silicon carbide, 292
Silicon plasmonic detectors (SPDs), 157–
163
Silicon plasmonic modulators (SPMs), 157–
158
Silicon plasmonics components
active devices, 156–163
motivation, 151
passive devices, 151–156
Silver aggregates, 119
Singular-continuous spectra, 333, 333n2
Small metal nanosphere, 192
Solar spectrum, enhancing, 132–133
dielectric core, metal shell particles, 138
metal composition, 133–135
other geometries, 139
polarization-dependent resonances in
anisotropic particles, 138–139
polarization-independent resonances,
135–137
shape, 135
Spasers, 55–56
bistable spasers, 75, 76–77
in CW mode, 69–70
equations of, 64–65
fundamentals, 56–58
latest progress in, 59–64
monostable spasers, 73–75
nanospasers, 61–64
as ultrafast quantum nanoamplifier, 72–
73
Spasing, 55–56
conditions of loss compensation by gain,
81–82
loss compensation by gain, 77–81, 83–85
Spatial modulation spectroscopy (SMS), 198
Spatial signals, 2D, 349n5
Spatially-coherent thermal emission, 291–
293
Spatio-temporal coherent control, 34–35
Spatiotemporal pulse shaping, 46–47
Spectroscopy. See also Surface enhanced
vibrational spectroscopy, applications of; Vibrational spectroscopy, normal and surfaceenhanced
2D, 278
Spherical (Huygens) wave, 480
Spherical nanoparticle, 267
SPIDER, 14
Spin-based plasmonic effect in nanoscale
structures, 464–470
Spin-dependent plasmonics, 480–484
Spin-Hall effects, 478
Spinoptics, in plasmonics
coupled thermal antenna lattices, 492–
496
optical spin symmetry breaking, in
nanoapertures, 470–475
plasmonic Aharonov-Bohm effect, 475–
479
plasmonic nanoapertures, 485–492
Rashba-like spin degeneracy violation,
492–496
spin-based plasmonic effect in nanoscale
structures, 464–470
spin-dependent plasmonics, 480–484
Spin-orbit interaction, 460, 472, 473, 478,
480, 492, 494, 496
Split-ring resonators (SRRs), 216, 412
Stefan constant, 307
Stefan-Boltzmann law, 300, 301, 307, 308
Stern-Gerlach effects, 478
Stimulated emission, 59, 60, 65, 70, 74, 81,
82
Stimulated Raman scattering, 105
surface enhanced femtosecond, 120
Stimulated Raman spectroscopy (SRS), 105,
111, 112
Stokes frequency, 104
Structural resonances, 331
Substitution matrix, 336
Sum-frequency generation (SFG), 256
Super-hydrophobic surfaces (SHSs), 503
lattice packings and, 506–507
small friction coefficients of, and evaporation dynamics, 508–510
Super-hydrophobicity, model
fabrication of devices, 511–512
fluorescence microscopy characterization of Rhodamine deposits, 513
Raman characterization of Rhodamine
deposits, 513
samples AFM characterization, 512–513
samples SEM characterization, 512
Super-hydrophobicity, physical model, 504
lattice packings and SHSs, 506–507
optimal design, consideration for, 509–
510
physics of drops and surfaces, 504–505
small friction coefficients of SHSs and
evaporation dynamics, 508–509
Superradiance, 439