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Nature Catalysis 3: 564–573, 2022.
The photothermal nonlinearity in plasmon-assisted photocatalysis
Nanoscale 14: 5022,
2022.
Distinguishing thermal from non-thermal ("hot") carries in
illuminated molecular junctions
Nano Letters 22:
2127-2133 , 2022.
For a lecture on this work, see Movies\PHOTOPTICS_AT_2022_38.mp4 (starting from the middle, unfortunately).
The role of heat generation and fluid flow in plasmon-enhanced reduction-oxidation reactions
ACS Photonics 8:
1183-1190, 2021.
Recent developments in plasmon-assisted photocatalysis – A personal
Perspective
Appl. Phys. Letters
117: 130501, 2020.
Parametric study of temperature distribution in plasmon-assisted
photocatalysis
Nanoscale 12: 17821-17832, 2020.
Thermal effects - an alternative mechanism for plasmonic-assisted
photo-catalysis
Chemical Science 11: 5017-5027, 2020.
OSA Continuum 3: 483-497,
2020.
Comment on “Quantifying hot carrier and thermal contributions in
plasmonic photocatalysis”
Science 364: (6439)
eaaw9367, 2019.
Assistance of metal nanoparticles in photocatalysis – nothing more than
a classical heat source
Faraday Discussions
214: 215, 2019.
“Hot” electrons in metallic nanostructures – thermal vs. non-thermal
effects;
Light: Science &
Applications 8: 89, 2019.
·
J.
Aizpurua et al., Dynamics of hot electron generation in metallic nanostructures: general
discussion
Faraday Discussions
214: 123, 2019.
·
J. Aizpurua
et al., Theory of hot electrons: general discussion,
Faraday Discussions
214: 245, 2019.
Under review.
“Theory of “Hot” photoluminescence from Drude
metals
ACS Nano 15: 8724-8732, 2021.
See correction (the published errata was unfortunately wrong too).
Effective electron temperature measurement using time-resolved
anti-Stokes
J. Phys. Chem. A 124: 6968–6976, 2020.
New Journal of Physics
24: 053008, 2022.
Thermal emission of spinning photons from temperature gradients
Phys. Rev. Applied, 18:
014052, 2022.
Wide frequency band
expansion of permittivity normal modes.
Journal
of the Optical Society of America, 39: 2387, 2022.
Generalised normal mode
expansion method for open and lossy periodic structures.
Journal
of the Optical Society of America B 39: 1338, 2022.
Resolving the Gibbs phenomenon via a discontinuous basis in a mode
solver for open optical systems.
Journal
of Computational Physics
429: 110004, 2021.
An efficient solver for
the generalized normal modes of non-uniform open optical resonators
Journal
of Computational Physics 422: 109754, 2020.
Scattering by lossy
anisotropic scatterers: A modal approach
Journal
of Applied Physics 129: 113104, 2021.
See
an introduction of the paper in https://aip.scitation.org/doi/10.1063/10.0003927
Overcoming the
bottleneck for quantum computations of complex nanophotonic
structures: Purcell and
FRET calculations using a rigorous mode hybridization method
Phys.
Rev. B 101: 155401, 2020.
Generalized normal mode expansion of electromagnetic Green’s tensor for
open systems
Phys.
Rev. Applied 11:
044018, 2019.
Robust location of optical fiber modes via the argument principle method
Computer
Physics Communications 214: 105-116, 2017.
Codes
are available here.
Frequency-domain
modelling of TM wave propagation in optical nanostructures with a third-order
nonlinear response
Optics
Letters 34: 3364-6, 2009.
·
Y.
Sivan, M. Spector
Ultrafast dynamics of
optically-induced heat gratings in metals - more complicated than expected
ACS
Photonics 7: 1271−1279, 2020.
·
A.
Block, M. Liebel, R. Yu, M. Spector, Y. Sivan, F. J.
García de Abajo, N. F. van Hulst
Tracking ultrafast
hot-electron diffusion in space and time by ultrafast thermomodulation
microscopy; Supplementary Materials
Science
Advances 5:
eaav8965, 2019.
See
also a popular introduction to this paper in https://sciencetrends.com/hot-electrons-diffuse-100-times-faster-than-usual/
Optimization of
second-harmonic generation from touching plasmonic wires
Phys.
Rev. B 103:
075411, 2021.
Sum frequency
generation from touching wires: A transformation optics approach
Optics
Letters 46: 2079, 2021.
Second-harmonic
generation due to coulomb-like interaction in a heterodimer of subwavelength
dimensions
Optics Express 28:
31468, 2020.
Surface second-harmonic
from metallic nanoparticle configurations - a transformation optics approach
Physical
Review B 99:
235429, 2019.
Revisiting the boundary
conditions for second-harmonic generation at metal-dielectric interfaces
Journal
of the Optical Society of America B 34: 1824, 2017.
Phys.
Rev. Materials 4: 105201, 2020.
Size-dependence
of the photothermal response of a single metal nanosphere
Journal
of Applied Physics 126: 173103, 2019.
See
also Scilight article featuring our work in https://aip.scitation.org/doi/10.1063/10.0000221
Physical
Review E 96: 059901, 2017.
Nonlinear
plasmonics at high temperatures
Nanophotonics 6: 317-328, 2017.
Temperature-
and –roughness dependent permittivity of annealed/unannealed gold films
Optics
Express 24: 19254, 2016.
Stopping light using a transient Bragg grating
Phys. Rev. A 101: 033828, 2020.
Pulse propagation in the slow and stopped light regimes
Optics Express 26: 19294, 2018.
Ns-duration transient Bragg gratings in silica fibers
Optics Letters 42: 4748, 2017.
Nonlinear
wave interactions between short pulses of different spatio-temporal
extents
Scientific Reports 6: 29010, 2016.
Coupled-mode theory
for electromagnetic pulse propagation in dispersive media undergoing a
spatiotemporal perturbation: Exact derivation, numerical validation and
peculiar wave mixing
Physical Review B: 93: 144303, 2016.
Femtosecond-scale
modulations and switching based on periodic patterns of excited free-carriers
Optics Express 23: 16416-28, 2015.
Theory
of wave-front reversal of short pulses in dynamically-tuned zero-gap periodic
systems
Physical Review A 84: 033822-1-13, 2011.
Broadband time-reversal of optical pulses using a switchable photonic
crystal mirror
Optics Express 19: 14502-7, 2011.
Time-reversal
in dynamically-tuned zero-gap periodic systems
Physical Review Letters 106: 193909, 2011.
See
also cover story at http://phys.org/news/2011-05-physicists-time-reversed-pulses.html
Nano-particle
assisted STED nanoscopy with gold nanospheres
ACS
Photonics 5, 2574-2583, 2017.
Plasmonic
Nanoprobes for Stimulated Emission Depletion Nanoscopy
ACS
Nano 10, 10454-10461, 2016.
Experimental
proof of concept of nano-particle assisted STED
Nano
Letters 14: 4449-4453, 2014.
For
a video presentation of these results by my colleague - http://proceedings.spiedigitallibrary.org/proceeding.aspx?articleid=1939388
Performance
improvement in Nano-particle assisted STED nanoscopy
Applied Physics Letters 101: 021111, 2012.
Nano-particle
assisted STED nanoscopy
ACS Nano 6: 5291, 2012.
See also Perspective
Article at
Plasmonics
meets far-field optical nanoscopy
ACS Nano 6: 4580, 2012.
Plasmonic
sinks for the selective removal of long-lived states
ACS
Nano 5: 9958, 2011.
Reinterpreting
the magnetoelectric coupling of infinite cylinders using symmetry
Physical
Review B 94: 035142, 2016.
Spontaneously-formed
auto-focusing caustics in a confined self-defocusing medium
Optica
2: 1053-1056 (2015).
Independence of plasmonic near-filed enhancement to illumination beam
profile
Physical Review B 86: 155441, 2012.
Frequency-domain
simulations of a negative-index material with embedded gain
Optics Express 17: 24060-74, 2009.
A quantitative approach to
soliton instability
Optics Letters 36: 397-9, 2011.
Qualitative and quantitative
analysis of stability and instability dynamics of positive lattice solitons
Physical Review E 78: 046602, 2008.
Also available at the November 2008 edition of the APS virtual journal.
Drift instability and
tunneling of lattice solitons
Physical Review E 77: 045601(R), 2008.
Analytic theory
of narrow lattice solitons
Nonlinearity 21: 509-536, 2008.
Instability
of bound states of a nonlinear Schrodinger equation with a Dirac potential
Physica D 237: 1103-1128, 2008.
Also available at the October 2006 edition of the APS virtual journal.
Interaction-induced
localization of anomalously diffracting nonlinear waves
Physical Review Letters 97: 193901, 2006.
Control
of the filamentation distance and pattern in long-range atmospheric propagation
Optics Express 15: 2779-2784, 2007.
Control
of the collapse distance in atmospheric propagation
Optics Express 14: 4946-4957, 2006.