We computationally study the electromagnetic response of semiconductor micro and nanoinclusions for realizing highly reflective, plasmonically enhanced coatings in the visible and infrared regime. We first examine the influence of oxide coatings on the Mie resonances of microparticles of low-bandgap semiconductors (Si and Ge) in the near-IR regime. We then study the influence of a semiconducting core on the localized surface plasmon resonances of Si@Ag and Ge@Ag core@shell nanoparticles. Our results show a strong interaction between the resonances of the plasmonic Ag shell and the semiconducting core material which allows tuning of the electromagnetic response for near-IR applications.Peer reviewe
Decorating semiconductor surfaces with plasmonic nanoparticles (NPs) is considered a viable solution...
Metal nanoarchitectures producing optical responses in the visible and near-infrared form the founda...
We studied the response of a nano-structured material to an IR electromagnetic excitation. For a giv...
We computationally study the electromagnetic response of semiconductor micro and nanoinclusions for ...
We study the interplay between localized surface plasmon resonances from metallic cores and electrom...
We computationally design highly reflective, plasmonically enhanced coatings for more sensitive and ...
In this paper, III-IV semiconductors are demonstrated as strong candidates for plasmonics applicatio...
Surface plasmons (SPs) are the electromagnetic (EM) waves due to the light coupled with surface char...
Metal-semiconductor nanostructures represent an important new class of materials employed in designi...
Surface plasmon polaritons and their localized counterparts, surface plasmons, are widely used at vi...
Plasmonics provides an elegant way to effectively couple optical radiation to single sub-wavelength ...
We demonstrate the use of plasmonic effects to boost the near-infrared sensitivity of metal-semicond...
The earliest account of localized surface plasmon resonance (LSPR) has to date back to the ancient a...
This thesis demonstrates the use of the MIT Electromagnetic Equation Propagation (MEEP) software pac...
We report a study of the infrared response by localized surface plasmon resonance (LSPR) modes in go...
Decorating semiconductor surfaces with plasmonic nanoparticles (NPs) is considered a viable solution...
Metal nanoarchitectures producing optical responses in the visible and near-infrared form the founda...
We studied the response of a nano-structured material to an IR electromagnetic excitation. For a giv...
We computationally study the electromagnetic response of semiconductor micro and nanoinclusions for ...
We study the interplay between localized surface plasmon resonances from metallic cores and electrom...
We computationally design highly reflective, plasmonically enhanced coatings for more sensitive and ...
In this paper, III-IV semiconductors are demonstrated as strong candidates for plasmonics applicatio...
Surface plasmons (SPs) are the electromagnetic (EM) waves due to the light coupled with surface char...
Metal-semiconductor nanostructures represent an important new class of materials employed in designi...
Surface plasmon polaritons and their localized counterparts, surface plasmons, are widely used at vi...
Plasmonics provides an elegant way to effectively couple optical radiation to single sub-wavelength ...
We demonstrate the use of plasmonic effects to boost the near-infrared sensitivity of metal-semicond...
The earliest account of localized surface plasmon resonance (LSPR) has to date back to the ancient a...
This thesis demonstrates the use of the MIT Electromagnetic Equation Propagation (MEEP) software pac...
We report a study of the infrared response by localized surface plasmon resonance (LSPR) modes in go...
Decorating semiconductor surfaces with plasmonic nanoparticles (NPs) is considered a viable solution...
Metal nanoarchitectures producing optical responses in the visible and near-infrared form the founda...
We studied the response of a nano-structured material to an IR electromagnetic excitation. For a giv...