FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3005368851> ?p ?o ?g. }

• W3005368851 abstract "We present a theory of radio-frequency spectroscopy of impurities interacting with a quantum gas at finite temperature. By working in the canonical ensemble of a single impurity, we show that the impurity spectral response is directly connected to the finite-temperature equation of state (free energy) of the impurity. We consider two different response protocols: injection, where the impurity is introduced into the medium from an initially noninteracting state, and ejection, where the impurity is ejected from an initially interacting state with the medium. We show that there is a simple mapping between injection and ejection spectra, which is connected to the detailed balance condition in thermal equilibrium. To illustrate the power of our approach, we specialize to the case of the Fermi polaron, corresponding to an impurity atom that is immersed in a noninteracting Fermi gas. For a mobile impurity with a mass equal to the fermion mass, we employ a finite-temperature variational approach to obtain the impurity spectral response. We find a striking nonmonotonic dependence on temperature in the impurity free energy, the contact, and the radio-frequency spectra. For the case of an infinitely heavy Fermi polaron, we derive exact results for the finite-temperature free energy, thus generalizing Fumi's theorem to arbitrary temperature. We also determine the exact dynamics of the contact after a quench of the impurity-fermion interactions. Finally, we show that the injection and ejection spectra obtained from the variational approach compare well with the exact spectra, thus demonstrating the accuracy of our approximation method." @default.
• W3005368851 created "2020-02-14" @default.
• W3005368851 creator A5045449983 @default.
• W3005368851 creator A5071692760 @default.
• W3005368851 creator A5077082959 @default.
• W3005368851 creator A5081235266 @default.
• W3005368851 date "2020-08-05" @default.
• W3005368851 modified "2023-10-15" @default.
• W3005368851 title "Theory of radio-frequency spectroscopy of impurities in quantum gases" @default.
• W3005368851 cites W1513059268 @default.
• W3005368851 cites W1587290248 @default.
• W3005368851 cites W1631526886 @default.
• W3005368851 cites W1782145838 @default.
• W3005368851 cites W1941505088 @default.
• W3005368851 cites W1966394061 @default.
• W3005368851 cites W1969938472 @default.
• W3005368851 cites W1973180683 @default.
• W3005368851 cites W1974804408 @default.
• W3005368851 cites W1977878480 @default.
• W3005368851 cites W1984403081 @default.
• W3005368851 cites W1987283688 @default.
• W3005368851 cites W1990483973 @default.
• W3005368851 cites W1994143030 @default.
• W3005368851 cites W1994468436 @default.
• W3005368851 cites W1995644743 @default.
• W3005368851 cites W1998571746 @default.
• W3005368851 cites W2003183940 @default.
• W3005368851 cites W2004091191 @default.
• W3005368851 cites W2005949970 @default.
• W3005368851 cites W2007479011 @default.
• W3005368851 cites W2008376824 @default.
• W3005368851 cites W2014786292 @default.
• W3005368851 cites W2015153057 @default.
• W3005368851 cites W2015428108 @default.
• W3005368851 cites W2015469700 @default.
• W3005368851 cites W2019048790 @default.
• W3005368851 cites W2019378714 @default.
• W3005368851 cites W2030321708 @default.
• W3005368851 cites W2033360703 @default.
• W3005368851 cites W2034251480 @default.
• W3005368851 cites W2039151028 @default.
• W3005368851 cites W2042180799 @default.
• W3005368851 cites W2056778485 @default.
• W3005368851 cites W2063559558 @default.
• W3005368851 cites W2073903977 @default.
• W3005368851 cites W2074056894 @default.
• W3005368851 cites W2076609888 @default.
• W3005368851 cites W2084848313 @default.
• W3005368851 cites W2086612234 @default.
• W3005368851 cites W2086766109 @default.
• W3005368851 cites W2101149407 @default.
• W3005368851 cites W2108422491 @default.
• W3005368851 cites W2128838812 @default.
• W3005368851 cites W2131007722 @default.
• W3005368851 cites W2156205620 @default.
• W3005368851 cites W2162808923 @default.
• W3005368851 cites W2214514613 @default.
• W3005368851 cites W2263277038 @default.
• W3005368851 cites W2303611403 @default.
• W3005368851 cites W2328857052 @default.
• W3005368851 cites W2343576172 @default.
• W3005368851 cites W2344248325 @default.
• W3005368851 cites W2345157368 @default.
• W3005368851 cites W2345197317 @default.
• W3005368851 cites W2497169196 @default.
• W3005368851 cites W2591246153 @default.
• W3005368851 cites W2612499786 @default.
• W3005368851 cites W2624808817 @default.
• W3005368851 cites W2747357028 @default.
• W3005368851 cites W2751828159 @default.
• W3005368851 cites W2804114620 @default.
• W3005368851 cites W2884537919 @default.
• W3005368851 cites W2884858969 @default.
• W3005368851 cites W2899163467 @default.
• W3005368851 cites W2903349393 @default.
• W3005368851 cites W2904269507 @default.
• W3005368851 cites W2916468358 @default.
• W3005368851 cites W2949874398 @default.
• W3005368851 cites W2951804223 @default.
• W3005368851 cites W2976640159 @default.
• W3005368851 cites W2977790411 @default.
• W3005368851 cites W2989032249 @default.
• W3005368851 cites W3004871672 @default.
• W3005368851 cites W3098698304 @default.
• W3005368851 cites W3098709421 @default.
• W3005368851 cites W3098831912 @default.
• W3005368851 cites W3101469139 @default.
• W3005368851 cites W3103660009 @default.
• W3005368851 cites W3105015361 @default.
• W3005368851 cites W3105705767 @default.
• W3005368851 cites W658703259 @default.
• W3005368851 doi "https://doi.org/10.1103/physreva.102.023304" @default.
• W3005368851 hasPublicationYear "2020" @default.
• W3005368851 type Work @default.
• W3005368851 sameAs 3005368851 @default.
• W3005368851 citedByCount "20" @default.
• W3005368851 countsByYear W30053688512020 @default.
• W3005368851 countsByYear W30053688512021 @default.
• W3005368851 countsByYear W30053688512022 @default.
• W3005368851 countsByYear W30053688512023 @default.

• next