Matches in SemOpenAlex for { <https://semopenalex.org/work/W3082008341> ?p ?o ?g. }
- W3082008341 abstract "The effective-Lagrangian description of Lorentz-invariance violation provided by the so-called Standard-Model Extension covers all the sectors of the Standard Model, allowing for model-independent studies of high-energy phenomena that might leave traces at relatively-low energies. In this context, the quantification of the large set of parameters characterizing Lorentz-violating effects is well motivated. In the present work, effects from the Lorentz-nonconserving Yukawa sector on the electromagnetic moments of charged leptons are calculated, estimated, and discussed. Following a perturbative approach, explicit expressions of leading contributions are derived and upper bounds on Lorentz violation are estimated from current data on electromagnetic moments. Scenarios regarding the coefficients of Lorentz violation are considered. In a scenario of two-point insertions preserving lepton flavor, the bound on the electron electric dipole moment yields limits as stringent as $10^{-28}$, whereas muon and tau-lepton electromagnetic moments determine bounds as restrictive as $10^{-14}$ and $10^{-6}$, respectively. Another scenario, defined by the assumption that Lorentz-violating Yukawa couplings are Hermitian, leads to less stringent bounds, provided by the muon anomalous magnetic moment, which turn out to be as restrictive as $10^{-14}$." @default.
- W3082008341 created "2020-09-08" @default.
- W3082008341 creator A5007131379 @default.
- W3082008341 creator A5020979995 @default.
- W3082008341 creator A5040135955 @default.
- W3082008341 creator A5076310096 @default.
- W3082008341 creator A5088611538 @default.
- W3082008341 date "2021-03-02" @default.
- W3082008341 modified "2023-10-18" @default.
- W3082008341 title "Bounds on Lorentz-violating Yukawa couplings via lepton electromagnetic moments" @default.
- W3082008341 cites W1554181361 @default.
- W3082008341 cites W1849773149 @default.
- W3082008341 cites W1937257165 @default.
- W3082008341 cites W1967251385 @default.
- W3082008341 cites W1969566525 @default.
- W3082008341 cites W1972820948 @default.
- W3082008341 cites W1975207295 @default.
- W3082008341 cites W1977016767 @default.
- W3082008341 cites W1983834038 @default.
- W3082008341 cites W1996413343 @default.
- W3082008341 cites W1997690634 @default.
- W3082008341 cites W2007338392 @default.
- W3082008341 cites W2015721393 @default.
- W3082008341 cites W2016415260 @default.
- W3082008341 cites W2019977466 @default.
- W3082008341 cites W2021883920 @default.
- W3082008341 cites W2027628727 @default.
- W3082008341 cites W2031833926 @default.
- W3082008341 cites W2035842045 @default.
- W3082008341 cites W2039605271 @default.
- W3082008341 cites W2039612611 @default.
- W3082008341 cites W2039727594 @default.
- W3082008341 cites W2045120204 @default.
- W3082008341 cites W2046006759 @default.
- W3082008341 cites W2052634059 @default.
- W3082008341 cites W2053355144 @default.
- W3082008341 cites W2054458517 @default.
- W3082008341 cites W2057404189 @default.
- W3082008341 cites W2059708868 @default.
- W3082008341 cites W2062265776 @default.
- W3082008341 cites W2065604389 @default.
- W3082008341 cites W2070151728 @default.
- W3082008341 cites W2074564363 @default.
- W3082008341 cites W2080072566 @default.
- W3082008341 cites W2081194465 @default.
- W3082008341 cites W2081796865 @default.
- W3082008341 cites W2084305379 @default.
- W3082008341 cites W2085260696 @default.
- W3082008341 cites W2088170864 @default.
- W3082008341 cites W2089347893 @default.
- W3082008341 cites W2099998178 @default.
- W3082008341 cites W2102713168 @default.
- W3082008341 cites W2104602796 @default.
- W3082008341 cites W2105732215 @default.
- W3082008341 cites W2117470460 @default.
- W3082008341 cites W2122122046 @default.
- W3082008341 cites W2128828294 @default.
- W3082008341 cites W2142679573 @default.
- W3082008341 cites W2151497957 @default.
- W3082008341 cites W2153412875 @default.
- W3082008341 cites W2154614215 @default.
- W3082008341 cites W2155813851 @default.
- W3082008341 cites W2156124524 @default.
- W3082008341 cites W2157409049 @default.
- W3082008341 cites W2160726592 @default.
- W3082008341 cites W2169447547 @default.
- W3082008341 cites W2178558786 @default.
- W3082008341 cites W2203635712 @default.
- W3082008341 cites W2223433365 @default.
- W3082008341 cites W2225565636 @default.
- W3082008341 cites W2232454336 @default.
- W3082008341 cites W2342354902 @default.
- W3082008341 cites W2610224162 @default.
- W3082008341 cites W2788324782 @default.
- W3082008341 cites W2788650296 @default.
- W3082008341 cites W2899140785 @default.
- W3082008341 cites W2903842322 @default.
- W3082008341 cites W2917504010 @default.
- W3082008341 cites W2929822833 @default.
- W3082008341 cites W2950449274 @default.
- W3082008341 cites W2981313176 @default.
- W3082008341 cites W3100562658 @default.
- W3082008341 cites W3102779190 @default.
- W3082008341 cites W3102830388 @default.
- W3082008341 cites W3103626699 @default.
- W3082008341 cites W3104259034 @default.
- W3082008341 cites W3105519781 @default.
- W3082008341 cites W3105785566 @default.
- W3082008341 cites W3150678420 @default.
- W3082008341 cites W4232026843 @default.
- W3082008341 cites W4240654682 @default.
- W3082008341 cites W611600668 @default.
- W3082008341 cites W85293589 @default.
- W3082008341 doi "https://doi.org/10.1103/physrevd.103.055003" @default.
- W3082008341 hasPublicationYear "2021" @default.
- W3082008341 type Work @default.
- W3082008341 sameAs 3082008341 @default.
- W3082008341 citedByCount "4" @default.
- W3082008341 countsByYear W30820083412022 @default.
- W3082008341 countsByYear W30820083412023 @default.