A formalism based on non-local dielectric response theory and Green function techniques has been developed to describe the interaction of quantum well excitons with an evanescent optical wave of a planar waveguide. Reflection spectra of a system in which a quantum well placed behind a dielectric interface at which light experiences total internal reflection have been calculated. It is shown that the spectral feature corresponding to the exciton resonance becomes much more pronounced if the angle of incidence is close to the critical angle of total internal reflection. The concept of a generalized Snell law has been applied to provide simplification of the formalism
We formulate a full quantum mechanical theory of the interaction between electromagnetic modes in ph...
This paper describes our recent work on electric field effects on excitons in AlGaAs/GaAs quantum we...
We consider Wannier-Mott exciton in a semiconductor quantum well coupled via Coulomb interaction to ...
A formalism based on non-local dielectric response theory and Green function techniques has been dev...
A formalism based on non-local dielectric response theory and Green function techniques has been dev...
We report on the first observation of the exciton resonant reflection from a directly grown array of...
A transfer matrix method has been used to calculate the dispersion relations of planar dielectric wa...
A transfer matrix method has been used to calculate the dispersion relations of planar dielectric wa...
A variational wave function for excitons in quantum-well wires is obtained. The reflectivity of a g...
A transfer matrix method has been used to calculate the dispersion relations of planar dielectric wa...
The calculated dispersion curves of excitonic polaritons in GaAs quantum wells provide up to now not...
A novel semi-classical theory of exciton–polaritons in quantum wells (QWs) is presented. Time-resolv...
We report on a theoretical description of radiation-matter coupling for semiconductor-based photonic...
We present a review of optical properties of excitonic semiconductors. We consider the interaction o...
It is predicted that the Goos-Hänchen effect can be resonantly enhanced by placing a metallic quantu...
We formulate a full quantum mechanical theory of the interaction between electromagnetic modes in ph...
This paper describes our recent work on electric field effects on excitons in AlGaAs/GaAs quantum we...
We consider Wannier-Mott exciton in a semiconductor quantum well coupled via Coulomb interaction to ...
A formalism based on non-local dielectric response theory and Green function techniques has been dev...
A formalism based on non-local dielectric response theory and Green function techniques has been dev...
We report on the first observation of the exciton resonant reflection from a directly grown array of...
A transfer matrix method has been used to calculate the dispersion relations of planar dielectric wa...
A transfer matrix method has been used to calculate the dispersion relations of planar dielectric wa...
A variational wave function for excitons in quantum-well wires is obtained. The reflectivity of a g...
A transfer matrix method has been used to calculate the dispersion relations of planar dielectric wa...
The calculated dispersion curves of excitonic polaritons in GaAs quantum wells provide up to now not...
A novel semi-classical theory of exciton–polaritons in quantum wells (QWs) is presented. Time-resolv...
We report on a theoretical description of radiation-matter coupling for semiconductor-based photonic...
We present a review of optical properties of excitonic semiconductors. We consider the interaction o...
It is predicted that the Goos-Hänchen effect can be resonantly enhanced by placing a metallic quantu...
We formulate a full quantum mechanical theory of the interaction between electromagnetic modes in ph...
This paper describes our recent work on electric field effects on excitons in AlGaAs/GaAs quantum we...
We consider Wannier-Mott exciton in a semiconductor quantum well coupled via Coulomb interaction to ...