Radiative Auger effect

In optics and spectroscopy, the radiative Auger effect is a decay channel of an inner-shell atomic vacancy state, in which an X-ray photon is emitted accompanying simultaneous promotion of an electron into either a bound or a continuum state. Thus the transition energy is shared between the photon and the electron.[1] The effect was first observed by Felix Bloch and Perley Ason Ross,[2] with the initial theoretical explanation by Bloch.[3] Later the effect has also been observed on defects in the solid-state,[4] semiconductor quantum emitters,[5][6] as well as two-dimensional electron gases.[7][8] In the latter case, the effect is typically referred to as shake-up. In semiconductor quantum dot, radiative Auger transitions can also be coherently driven by laser fields[9], enabling the preparation of superposition states of carrier orbital levels[10].

See also

References

  1. ^ Åberg, T. (1971-11-01). "Theory of the Radiative Auger Effect". Physical Review A. 4 (5): 1735–1740. Bibcode:1971PhRvA...4.1735A. doi:10.1103/PhysRevA.4.1735.
  2. ^ Bloch, F.; P. A. Ross (1935-06-01). "Radiative Auger Effect". Physical Review. 47 (11): 884. Bibcode:1935PhRv...47..884B. doi:10.1103/PhysRev.47.884.
  3. ^ Bloch, F. (1935). "Double Electron Transitions in X-Ray Spectra". Physical Review. 48 (3): 187–192. Bibcode:1935PhRv...48..187B. doi:10.1103/PhysRev.48.187.
  4. ^ Dean, P. J.; Cuthbert, J. D.; Thomas, D. G.; Lynch, R. T. (1967-01-23). "Two-Electron Transitions in the Luminescence of Excitons Bound to Neutral Donors in Gallium Phosphide". Physical Review Letters. 18 (4). American Physical Society (APS): 122–124. Bibcode:1967PhRvL..18..122D. doi:10.1103/physrevlett.18.122. ISSN 0031-9007.
  5. ^ Löbl, Matthias C.; Spinnler, Clemens; Javadi, Alisa; Zhai, Liang; Nguyen, Giang N.; Ritzmann, Julian; Midolo, Leonardo; Lodahl, Peter; Wieck, Andreas D.; Ludwig, Arne; Warburton, Richard J. (2020-06-15). "Radiative Auger process in the single-photon limit" (PDF). Nature Nanotechnology. 15 (7). Springer Science and Business Media LLC: 558–562. arXiv:1911.11784. Bibcode:2020NatNa..15..558L. doi:10.1038/s41565-020-0697-2. ISSN 1748-3387. PMID 32541943. S2CID 208309976.
  6. ^ Antolinez, Felipe V.; Rabouw, Freddy T.; Rossinelli, Aurelio A.; Cui, Jian; Norris, David J. (2019-11-05). "Observation of Electron Shakeup in CdSe/CdS Core/Shell Nanoplatelets". Nano Letters. 19 (12). American Chemical Society (ACS): 8495–8502. Bibcode:2019NanoL..19.8495A. doi:10.1021/acs.nanolett.9b02856. hdl:20.500.11850/386327. ISSN 1530-6984. PMID 31686517. S2CID 207903415.
  7. ^ Skolnick, M.S.; Nash, K.J.; Mowbray, D.J.; Saker, M.K.; Fisher, T.A.; Whittaker, D.M.; Peggs, D.W.; Miura, N.; Sasaki, S.; Smith, R.S.; Bass, S.J. (1994). "Fermi sea shake-up in quantum well luminescence spectra". Solid-State Electronics. 37 (4–6). Elsevier BV: 825–829. Bibcode:1994SSEle..37..825S. doi:10.1016/0038-1101(94)90306-9. ISSN 0038-1101.
  8. ^ Manfra, M. J.; Goldberg, B. B.; Pfeiffer, L.; West, K. (1998-04-15). "Anderson-Fano resonance and shake-up processes in the magnetophotoluminescence of a two-dimensional electron system". Physical Review B. 57 (16). American Physical Society (APS): R9467–R9470. arXiv:cond-mat/9804068. Bibcode:1998PhRvB..57.9467M. doi:10.1103/physrevb.57.r9467. ISSN 0163-1829. S2CID 14351818.
  9. ^ Yan, Jun-Yong; Chen, Chen; Zhang, Xiao-Dong; Wang, Yu-Tong; Babin, Hans-Georg; Wieck, Andreas D.; Ludwig, Arne; Meng, Yun; Hu, Xiaolong; Duan, Huali; Chen, Wenchao; Fang, Wei; Cygorek, Moritz; Lin, Xing; Wang, Da-Wei; Jin, Chao-Yuan; Liu, Feng (2023). "Coherent control of a high-orbital hole in a semiconductor quantum dot". Nature Nanotechnology. 18: 1139–1146. doi:10.1038/s41565-023-01442-y.
  10. ^ Yan, Jun-Yong; Zhai, Liang; Babin, Hans-Georg; Li, Yuanzhen; Pei, Si-Hui; Cygorek, Moritz; Fang, Wei; Gao, Fei; Wieck, Andreas D.; Ludwig, Arne; Jin, Chao-Yuan; Wang, Da-Wei; Liu, Feng (2024). "All-Optical Ultrafast Arbitrary Rotation of Hole Orbital Qubits with Direct Phase Control". Physical Review Letters. 133 (20) 203603. arXiv:2403.15295. doi:10.1103/PhysRevLett.133.203603.


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