Matches in SemOpenAlex for { <https://semopenalex.org/work/W2035269892> ?p ?o ?g. }
- W2035269892 endingPage "4919" @default.
- W2035269892 startingPage "4907" @default.
- W2035269892 abstract "We have studied two-photon nonlinear optical effects arising in a microcavity geometry from resonant two-photon absorption or second-harmonic generation. The transmission spectrum of the cavity is shown to depend on light intensity according to a simple two-level picture with an intensity-dependent coupling: at resonance the system exhibits a two-photon Rabi splitting. The absorption spectrum of a weak probe beam in a pumped cavity is found to strongly depend on pump intensity and detuning; the resulting effect is a sort of two-photon analogue of the usual optical Stark effect. For moderate pump intensities a two-level picture with a pump-dependent coupling can account for the main results, while at higher intensities new unexpected features show up; in particular, we predict the appearance of gain in well-determined spectral regions due to hyper-Raman processes. Finally, we have shown how the coupling coefficients appearing in our formalism can be obtained from a detailed knowledge of the material and geometrical properties of a specific system. For illustrative purposes, we have estimated the required light intensities using realistic data for a GaAs-based semiconductor microcavity." @default.
- W2035269892 created "2016-06-24" @default.
- W2035269892 creator A5039776049 @default.
- W2035269892 creator A5086799755 @default.
- W2035269892 date "1999-08-15" @default.
- W2035269892 modified "2023-10-06" @default.
- W2035269892 title "Two-photon Rabi splitting and optical Stark effect in semiconductor microcavities" @default.
- W2035269892 cites W1496521667 @default.
- W2035269892 cites W1963665419 @default.
- W2035269892 cites W1965398986 @default.
- W2035269892 cites W1967160233 @default.
- W2035269892 cites W1967394964 @default.
- W2035269892 cites W1975717519 @default.
- W2035269892 cites W1978837036 @default.
- W2035269892 cites W1985081344 @default.
- W2035269892 cites W1985956213 @default.
- W2035269892 cites W1986478150 @default.
- W2035269892 cites W1986971855 @default.
- W2035269892 cites W1987571760 @default.
- W2035269892 cites W1993942758 @default.
- W2035269892 cites W1994054031 @default.
- W2035269892 cites W1996075345 @default.
- W2035269892 cites W1997555526 @default.
- W2035269892 cites W2002337126 @default.
- W2035269892 cites W2004190440 @default.
- W2035269892 cites W2008222139 @default.
- W2035269892 cites W2008723340 @default.
- W2035269892 cites W2011244282 @default.
- W2035269892 cites W2013669807 @default.
- W2035269892 cites W2013961322 @default.
- W2035269892 cites W2014691017 @default.
- W2035269892 cites W2020630971 @default.
- W2035269892 cites W2025890428 @default.
- W2035269892 cites W2025965161 @default.
- W2035269892 cites W2034557192 @default.
- W2035269892 cites W2037943293 @default.
- W2035269892 cites W2039846847 @default.
- W2035269892 cites W2044556241 @default.
- W2035269892 cites W2049605097 @default.
- W2035269892 cites W2060594498 @default.
- W2035269892 cites W2065167457 @default.
- W2035269892 cites W2066158002 @default.
- W2035269892 cites W2068025288 @default.
- W2035269892 cites W2070406154 @default.
- W2035269892 cites W2070691411 @default.
- W2035269892 cites W2079712711 @default.
- W2035269892 cites W2080214969 @default.
- W2035269892 cites W2086946141 @default.
- W2035269892 cites W2087614350 @default.
- W2035269892 cites W2087989146 @default.
- W2035269892 cites W2089067353 @default.
- W2035269892 cites W3043418317 @default.
- W2035269892 cites W3185383519 @default.
- W2035269892 cites W4241862048 @default.
- W2035269892 cites W4252813054 @default.
- W2035269892 doi "https://doi.org/10.1103/physrevb.60.4907" @default.
- W2035269892 hasPublicationYear "1999" @default.
- W2035269892 type Work @default.
- W2035269892 sameAs 2035269892 @default.
- W2035269892 citedByCount "23" @default.
- W2035269892 countsByYear W20352698922013 @default.
- W2035269892 countsByYear W20352698922014 @default.
- W2035269892 countsByYear W20352698922015 @default.
- W2035269892 countsByYear W20352698922016 @default.
- W2035269892 countsByYear W20352698922018 @default.
- W2035269892 countsByYear W20352698922019 @default.
- W2035269892 countsByYear W20352698922021 @default.
- W2035269892 countsByYear W20352698922022 @default.
- W2035269892 countsByYear W20352698922023 @default.
- W2035269892 crossrefType "journal-article" @default.
- W2035269892 hasAuthorship W2035269892A5039776049 @default.
- W2035269892 hasAuthorship W2035269892A5086799755 @default.
- W2035269892 hasConcept C101075120 @default.
- W2035269892 hasConcept C108225325 @default.
- W2035269892 hasConcept C120665830 @default.
- W2035269892 hasConcept C121332964 @default.
- W2035269892 hasConcept C125287762 @default.
- W2035269892 hasConcept C131584629 @default.
- W2035269892 hasConcept C139210041 @default.
- W2035269892 hasConcept C159317903 @default.
- W2035269892 hasConcept C184779094 @default.
- W2035269892 hasConcept C191897082 @default.
- W2035269892 hasConcept C192562407 @default.
- W2035269892 hasConcept C29169072 @default.
- W2035269892 hasConcept C30713254 @default.
- W2035269892 hasConcept C47027709 @default.
- W2035269892 hasConcept C4839761 @default.
- W2035269892 hasConcept C49040817 @default.
- W2035269892 hasConcept C50126897 @default.
- W2035269892 hasConcept C520434653 @default.
- W2035269892 hasConcept C62520636 @default.
- W2035269892 hasConcept C78854221 @default.
- W2035269892 hasConceptScore W2035269892C101075120 @default.
- W2035269892 hasConceptScore W2035269892C108225325 @default.
- W2035269892 hasConceptScore W2035269892C120665830 @default.
- W2035269892 hasConceptScore W2035269892C121332964 @default.
- W2035269892 hasConceptScore W2035269892C125287762 @default.
- W2035269892 hasConceptScore W2035269892C131584629 @default.