Using the Born expansion of the Green tensor, we consider the spontaneous decay rate of an excited atom placed in the vicinity of a rectangular plate. We discuss the limitations of the commonly used simplifying assumption that the plate extends to infinity in the lateral directions and examine the effects of the atomic dipole moment orientation, atomic position, and plate boundary and thickness on the atomic decay rate. In particular, it is shown that in the boundary region, the spontaneous decay rate can be strongly modified
As a contribution to quantum optics in the vicinity of surfaces we study the single atom spontaneous...
After giving a summary of the basic-theoretical concept of quantization of the electromagnetic eld ...
International audienceWe study the spontaneous decay rate of a dipole emitter close to a metallic na...
Using the Born expansion of the Green tensor, we consider the spontaneous decay rate of an excited ...
The influence of the size and shape of a dispersing and absorbing dielectric body on the local-field...
Starting from the quantized version of Maxwell's equations for the electromagnetic field in an arbit...
A formalism for studying spontaneous decay of an excited two-level atom in the presence of dispersin...
AbstractThe back reaction field and the self-consistent dynamics of a radiating dipole atom situated...
We study spontaneous radiative decay of translational levels of an atom in the vicinity of a semi-in...
The spontaneous decay rate of an excited atom placed near a dielectric cylinder is investigated. Spe...
Radiative corrections to an atom are calculated near a half-space that has arbitrarily shaped small ...
An electronically excited atom or molecule located outside but near a planar optical waveguide can d...
Abstract: Spontaneous emission and Lamb shift of atoms in absorbing dielectrics are discussed. A Gre...
Spontaneous emission of an atom (molecule) placed near a nanocylinder of elliptical cross-section of...
We investigate the spontaneous emission of one atom placed near an oscillating reflecting plate. We ...
As a contribution to quantum optics in the vicinity of surfaces we study the single atom spontaneous...
After giving a summary of the basic-theoretical concept of quantization of the electromagnetic eld ...
International audienceWe study the spontaneous decay rate of a dipole emitter close to a metallic na...
Using the Born expansion of the Green tensor, we consider the spontaneous decay rate of an excited ...
The influence of the size and shape of a dispersing and absorbing dielectric body on the local-field...
Starting from the quantized version of Maxwell's equations for the electromagnetic field in an arbit...
A formalism for studying spontaneous decay of an excited two-level atom in the presence of dispersin...
AbstractThe back reaction field and the self-consistent dynamics of a radiating dipole atom situated...
We study spontaneous radiative decay of translational levels of an atom in the vicinity of a semi-in...
The spontaneous decay rate of an excited atom placed near a dielectric cylinder is investigated. Spe...
Radiative corrections to an atom are calculated near a half-space that has arbitrarily shaped small ...
An electronically excited atom or molecule located outside but near a planar optical waveguide can d...
Abstract: Spontaneous emission and Lamb shift of atoms in absorbing dielectrics are discussed. A Gre...
Spontaneous emission of an atom (molecule) placed near a nanocylinder of elliptical cross-section of...
We investigate the spontaneous emission of one atom placed near an oscillating reflecting plate. We ...
As a contribution to quantum optics in the vicinity of surfaces we study the single atom spontaneous...
After giving a summary of the basic-theoretical concept of quantization of the electromagnetic eld ...
International audienceWe study the spontaneous decay rate of a dipole emitter close to a metallic na...