Nanoplasmonics beyond Ohm's law
Publication: Research - peer-review › Conference abstract in proceedings – Annual report year: 2012
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Nanoplasmonics beyond Ohm's law. / Mortensen, N. Asger (Invited author); Toscano, Giuseppe (Invited author); Raza, Søren (Invited author); Stenger, Nicolas (Invited author); Yan, Wei (Invited author); Jauho, Antti-Pekka (Invited author); Xiao, Sanshui (Invited author); Wubs, Martijn (Invited author).
In: AIP Conference Proceedings. American Institute of Physics, 2012. p. 28-32 (A I P Conference Proceedings Series, Vol. 1475).Publication: Research - peer-review › Conference abstract in proceedings – Annual report year: 2012
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TY - ABST
T1 - Nanoplasmonics beyond Ohm's law
A1 - Mortensen,N. Asger
A1 - Toscano,Giuseppe
A1 - Raza,Søren
A1 - Stenger,Nicolas
A1 - Yan,Wei
A1 - Jauho,Antti-Pekka
A1 - Xiao,Sanshui
A1 - Wubs,Martijn
AU - Mortensen,N. Asger
AU - Toscano,Giuseppe
AU - Raza,Søren
AU - Stenger,Nicolas
AU - Yan,Wei
AU - Jauho,Antti-Pekka
AU - Xiao,Sanshui
AU - Wubs,Martijn
PB - American Institute of Physics
PY - 2012
Y1 - 2012
N2 - In tiny metallic nanostructures, quantum confinement and nonlocal response change the collective plasmonic behavior with important consequences for e.g. field-enhancement and extinction cross sections. We report on our most recent developments of a real-space formulation of an equation-of-motion that goes beyond the common local-response approximation and use of Ohm's law as the central constitutive equation. The electron gas is treated within a semi-classical hydrodynamic model with the emergence of a new intrinsic length scale. We briefly review the new governing wave equations and give examples of applying the nonlocal framework to calculation of extinction cross sections and field enhancement in isolated particles, dimers, and corrugated surfaces.
AB - In tiny metallic nanostructures, quantum confinement and nonlocal response change the collective plasmonic behavior with important consequences for e.g. field-enhancement and extinction cross sections. We report on our most recent developments of a real-space formulation of an equation-of-motion that goes beyond the common local-response approximation and use of Ohm's law as the central constitutive equation. The electron gas is treated within a semi-classical hydrodynamic model with the emergence of a new intrinsic length scale. We briefly review the new governing wave equations and give examples of applying the nonlocal framework to calculation of extinction cross sections and field enhancement in isolated particles, dimers, and corrugated surfaces.
SN - 978-0-7354-1084-8
BT - AIP Conference Proceedings
T2 - AIP Conference Proceedings
T3 - A I P Conference Proceedings Series
T3 - en_GB
SP - 28
EP - 32
ER -