Matches in SemOpenAlex for { <https://semopenalex.org/work/W2008792366> ?p ?o ?g. }
- W2008792366 abstract "Cavity-enhanced light scattering from an ultracold gas in an optical lattice constitutes a quantum measurement with a controllable form of the measurement backaction. Time-resolved counting of scattered photons alters the state of the atoms without particle loss implementing a quantum nondemolition measurement. The conditional dynamics is given by the interplay between photodetection events (quantum jumps) and no-count processes. The class of emerging atomic many-body states can be chosen via the optical geometry and light frequencies. Light detection along the angle of a diffraction maximum (Bragg angle) creates an atom-number-squeezed state, while light detection at diffraction minima leads to the macroscopic superposition states (Schrodinger cat states) of different atom numbers in the cavity mode. A measurement of the cavity transmission intensity can lead to atom-number-squeezed or macroscopic superposition states depending on its outcome. We analyze the robustness of the superposition with respect to missed counts and find that a transmission measurement yields more robust and controllable superposition states than the ones obtained by scattering at a diffraction minimum." @default.
- W2008792366 created "2016-06-24" @default.
- W2008792366 creator A5044186246 @default.
- W2008792366 creator A5045667451 @default.
- W2008792366 date "2009-07-07" @default.
- W2008792366 modified "2023-10-18" @default.
- W2008792366 title "Quantum optics with quantum gases: Controlled state reduction by designed light scattering" @default.
- W2008792366 cites W1493948507 @default.
- W2008792366 cites W1495589048 @default.
- W2008792366 cites W1662373048 @default.
- W2008792366 cites W1963657000 @default.
- W2008792366 cites W1963988846 @default.
- W2008792366 cites W1965806215 @default.
- W2008792366 cites W1969332905 @default.
- W2008792366 cites W1979308046 @default.
- W2008792366 cites W1980376324 @default.
- W2008792366 cites W1983649509 @default.
- W2008792366 cites W1984261162 @default.
- W2008792366 cites W1986070497 @default.
- W2008792366 cites W1987130879 @default.
- W2008792366 cites W1990775743 @default.
- W2008792366 cites W1991512527 @default.
- W2008792366 cites W1994289786 @default.
- W2008792366 cites W1996206257 @default.
- W2008792366 cites W1996437896 @default.
- W2008792366 cites W1996876898 @default.
- W2008792366 cites W1997939948 @default.
- W2008792366 cites W2004264607 @default.
- W2008792366 cites W2006435629 @default.
- W2008792366 cites W2006946676 @default.
- W2008792366 cites W2007391198 @default.
- W2008792366 cites W2014665438 @default.
- W2008792366 cites W2014861701 @default.
- W2008792366 cites W2018427343 @default.
- W2008792366 cites W2021600504 @default.
- W2008792366 cites W2022236427 @default.
- W2008792366 cites W2024704523 @default.
- W2008792366 cites W2024829341 @default.
- W2008792366 cites W2025847854 @default.
- W2008792366 cites W2031330199 @default.
- W2008792366 cites W2035413341 @default.
- W2008792366 cites W2037749889 @default.
- W2008792366 cites W2039130193 @default.
- W2008792366 cites W2041298512 @default.
- W2008792366 cites W2042610660 @default.
- W2008792366 cites W2044918017 @default.
- W2008792366 cites W2056009655 @default.
- W2008792366 cites W2056454722 @default.
- W2008792366 cites W2056897491 @default.
- W2008792366 cites W2057867990 @default.
- W2008792366 cites W2058577924 @default.
- W2008792366 cites W2062391342 @default.
- W2008792366 cites W2063137578 @default.
- W2008792366 cites W2065710250 @default.
- W2008792366 cites W2072263453 @default.
- W2008792366 cites W2073986678 @default.
- W2008792366 cites W2075754819 @default.
- W2008792366 cites W2077735321 @default.
- W2008792366 cites W2081425917 @default.
- W2008792366 cites W2083488724 @default.
- W2008792366 cites W2084371143 @default.
- W2008792366 cites W2089621174 @default.
- W2008792366 cites W2110679289 @default.
- W2008792366 cites W2112640031 @default.
- W2008792366 cites W2124097263 @default.
- W2008792366 cites W2137800639 @default.
- W2008792366 cites W2147287960 @default.
- W2008792366 cites W2211778065 @default.
- W2008792366 cites W2964206847 @default.
- W2008792366 cites W3099603993 @default.
- W2008792366 cites W3105307533 @default.
- W2008792366 doi "https://doi.org/10.1103/physreva.80.013604" @default.
- W2008792366 hasPublicationYear "2009" @default.
- W2008792366 type Work @default.
- W2008792366 sameAs 2008792366 @default.
- W2008792366 citedByCount "33" @default.
- W2008792366 countsByYear W20087923662012 @default.
- W2008792366 countsByYear W20087923662013 @default.
- W2008792366 countsByYear W20087923662014 @default.
- W2008792366 countsByYear W20087923662015 @default.
- W2008792366 countsByYear W20087923662016 @default.
- W2008792366 countsByYear W20087923662017 @default.
- W2008792366 countsByYear W20087923662019 @default.
- W2008792366 crossrefType "journal-article" @default.
- W2008792366 hasAuthorship W2008792366A5044186246 @default.
- W2008792366 hasAuthorship W2008792366A5045667451 @default.
- W2008792366 hasConcept C120665830 @default.
- W2008792366 hasConcept C121332964 @default.
- W2008792366 hasConcept C131918908 @default.
- W2008792366 hasConcept C152026323 @default.
- W2008792366 hasConcept C15706264 @default.
- W2008792366 hasConcept C159317903 @default.
- W2008792366 hasConcept C184779094 @default.
- W2008792366 hasConcept C194269254 @default.
- W2008792366 hasConcept C207114421 @default.
- W2008792366 hasConcept C23125352 @default.
- W2008792366 hasConcept C25536358 @default.
- W2008792366 hasConcept C27753989 @default.
- W2008792366 hasConcept C39693636 @default.
- W2008792366 hasConcept C55615164 @default.