Abstract
An advanced version of relativistic energy formalism in the Auger spectroscopy of multielectron atomic systems is developed in order to calculate the fundamental energetic and spectroscopic parameters of the Auger decay process. The approach originally uses the Gell-Mann and Low adiabatic formulae in order to calculate an autoionization and Auger decays probabilities as well as the radiative oscillator strengths. The electron structure of a multielectron atom is calculated on the basis of the relativistic many-body perturbation theory (RMBPT) with ab initio model zeroth approximation and a correct accounting for the exchange-polarization corrections as the second and higher orders perturbation theory contributions. In order to provide gauge invariance performance, the RMBPT optimized zeroth approximation is generated on the basis of the relativistic criterion of minimization of the RMBPT second and higher orders exchange-polarization diagrams contributions into imaginary part of the atomic level energy shift. As an illustration, the results of computing the energy and spectral parameters of the resonant Auger decay for neon atomic system as well as some solids are listed. The results are compared with available experimental results as well as with the results, obtained within calculation on the basis of different semiempirical and ab initio methods. In whole there is a physically reasonable agreement between new theory results and experimental data.
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References
Aberg T, Hewat G (1979) Theory of Auger effect. Springer, Berlin
Glushkov AV (2020) Advanced relativistic energy approach in spectroscopy of autoionization states of multielectron atomic systems. In: Mammino L, Ceresoli D, Maruani J and Brändas E (eds) Advances in Quantum Systems in Chemistry, Physics, and Biology. Series: Progress in Theoretical Chemistry and Physics, vol 32. Springer, Cham, pp 3–31
Glushkov AV (2008) Relativistic quantum theory. Quantum mechanics of atomic systems. Astroprint, Odessa
Maruani J (2016) The dirac electron: from quantum chemistry to holistic cosmology. J Chin Chem Soc 63(1):33–48
Larkins FP (1976) Semi-empirical Auger electron energies. I. General method and K-LL line energies. J Phys B At Mol Opt Phys 9(1):47–58
Vijayakumar M, Gopinathan MS (1991) Theoretical Auger transition energies for atoms and ions through the relativistic and correlated local-density method. Phys Rev A 44(5):2850–2859
Glushkov AV, Ambrosov SV, Prepelitsa GP, Kozlovskaya VN (2003) Auger effect in atoms and solids: Calculation of characteristics of Auger decay in atoms, quasi-molecules and solids with application to surface composition analysis. Funct Mater. 10:206–210. Preprint OSENU NAMD-3 (2003)
Efimova EA, Chernyshev AS, Buyadzhi VV, Nikola LV (2019) Theoretical Auger spectroscopy of the neon: transition energies and widths. Photoelectronics. 28:24–31
Khetselius OYu (2011) Quantum structure of electroweak interaction in heavy finite Fermi-systems. Astroprint, Odessa
Glushkov AV (2006) Relativistic and correlation effects in spectra of atomic systems. Astroprint, Odessa
Ambrosov SV, Glushkov AV, Nikola LV (2006) Sensing the Auger spectra for solids: New quantum approach. Sens Electr Microsyst Techn Issue 3:46–50
Glushkov AV, Buyadzhi VV, Chernyshev AS, Efimova EA, Tsudik AV (2020) Theoretical Auger spectroscopy of solids: sensing energy parameters. Sens Electr Microsyst Techn 17(1):21–28
Chernyshev AS, Efimova EA, Buyadzhi VV, Nikola LV (2020) Cascade of Auger transitions in spectrum of xenon: theoretical data. Photoelectr 29:94–101
Glushkov AV, Malinovskaya SV, Loboda AV, Shpinareva IM, Gurnitskaya EP, Korchevsky DA (2005) Diagnostics of the collisionally pumped plasma and search of the optimal plasma parameters of x-ray lasing: calculation of electron-collision strengths and rate coefficients for Ne-like plasma. J Phys Conf Ser 11:188–198
Pahler M, Caldwell C, Schaphorst S, Krause M (1993) Intrinsic linewidths of neon 2s2p5(1,3P)nl2L correlation satellites. J Phys B At Phys 26:1617–1622
Sinanis C, Aspromallis G, Nicolaides C (1995) Electron correlation in Auger spectra of the Ne+ K 2s2p5(3,1P0)3p2S satellites. J Phys B At Phys 28:L423–L428
Armen GB, Larkins FP (1991) Valence Auger and X-ray participator and spectator processes for neon and argon atoms. J Phys B At Mol Opt Phys 24:741–760
De Fanis A, Tamenori Y, Kitajima M, Tanaka H, Ueda K (2004) Doopler-free resonant Auger Raman spectroscopy on atoms and molecules at Spring-8. J Phys Conf Ser 183:63–72
Sakho I, Konté K, Ndao AS, Biaye M, Wagué A (2010) Calculations of (nl)2 and (3lnl’) autoionizing states in two-electron systems. Phys Scr 82:035301
Greene CH, Aymar M (1991) Spin-orbit effects in the heavy alkaline-earth atoms. Phys Rev A 44(3):1773–1790
Van Leuwen R, Ubachs W, Hogervorst W (1994) Autoionization of low-lying 5dng states in barium. J Phys B At Mol Opt Phys 27:3891–3904
Luc-Koenig E, Aymar M, Van Leeuwen R, Ubachs W, Hogervorst W (1995) Polarization effects in autoionization processes: the 5d5g states in barium. Phys Rev A 52:208–215
Bartlett RJ, Bellum JC, Brändas EJ (2009) The treatment of correlation effects in second-order properties. Int J Quant Chem S7:449–462
Rittby M, Elander N, Brändas E (1984) Exterior complex scaling—a calculation of shape resonances in the A1Π state of CH+ using a realistic numeric potential. Chem Phys 87(1):55–62
Wesdorp C, Noordam LD, Robicheaux F (1999) Dynamics of forced autoionization. Phys Rev A 60:R3377–R3380
Klose JZ, Fuhr JR, Wiese WL (2002) Critically evaluated atomic transition probabilities for Ba I and Ba II. J Phys Chem Ref Data 31:217–230
Bokor J, Freeman R, Cooke W (1982) Autoionization—pumped laser. Phys Rev Lett 48:1242–1247
De Graaff RJ, Ubachs W, Hogervorst W (1992) 4fnf doubly excited autoioinizing states in barium. Phys Rev 45(1):166–178
Nicolaides CA (1992) Hole-projection, saddle points and localization in the theory of autoionizing states. Phys Rev A 46:690–698
Glushkov AV, Khetselius OYu, Svinarenko AA, Buyadzhi VV (2015) Spectroscopy of autoionization states of heavy atoms and multiply charged ions. TEC, Odessa
Nikitin SI, Ostrovsky VN (1980) The autoionization of high Rydberg atomic states with large orbital momentum. J Phys B At Mol Opt Phys 13:1961–1984
Yi J-H, Lee J, Kong HJ (1995) Autoionizing states of the ytterbium atom by three-photon polarization spectroscopy. Phys Rev A 51:3053–3057
Jong-hoon Y, Park H, Lee J (2001) Investigation of even parity autoionizing states of ytterbium atom by two-photon ionization spectroscopy. J Korean Phys Soc 39:916–920
Bylicki M (1998) Methods involving complex coordinates applied to atoms. Adv Quant Chem 32:207–226
Poirier M (1997) Analysis of correlation effects in autoionizing doubly excited states of barium using Coulomb Green’s function. Z Phys D 39:189–193
Chernenko AA, Beterov IM, Permyakova OI (2000) Modeling of amplification without inversion near transitions from autoionization levels of ytterbium atom. Laser Phys 10:133–138
Buyadzhi VV, Chernyakova Y, Smirnov AV, Tkach TB (2016) Electron-collisional spectroscopy of atoms and ions in plasma: Be-like ions. Photoelectronics 25:97–101
Buyadzh VV, Chernyakova Y, Antoshkina OA, Tkach TB (2017) Spectroscopy of multicharged ions in plasmas: oscillator strengths of Be-like ion Fe. Photoelectronics 26:94–102
Laughlin C, Victor GA (1989) Model-potential methods. Adv At Mol Phys 25:163
Cheng K, Kim Y, Desclaux J (1979) Electric dipole, quadrupole, and magnetic dipole transition probabilities of ions isoelectronic to the first-row atoms, Li through F. At Data Nucl Data Tabl 24:111
Indelicato P, Desclaux JP (1993) Projection operator in the multiconfiguration Dirac-Fock method. Phys Scr 46:110
Bieron J, Pyykkö P, Jonsson P (2005) Nuclear quadrupole moment of 201Hg. Phys Rev A 7:012502
Lund AP, Ralph TC (2005) Coherent-state linear optical quantum computing gates using simplified diagonal superposition resource states. Phys Rev A 71:032502
Feller D, Davidson ER (1989) An approximation to frozen natural orbitals through the use of the Hartree-Fock exchange potential. J Chem Phys 74:3977
Dietz K, Heβ BA (1989) Single particle orbitals for configuration interaction derived from quantum electrodynamics. Phys Scr 39:682–688
Glushkov AV, Malinovskaya SV, Filatov VV (1989) S-Matrix formalism calculation of atomic transition probabilities with inclusion of polarization effects. Sov Phys J 32(12):1010–1014
Khetselius OYu (2008) Relativistic calculating the spectral lines hyperfine structure parameters for heavy ions. AIP Conf Proc 1058:363–365
Glushkov AV, Lovett L, Khetselius OYu, Gurnitskaya EP, Dubrovskaya Y, Loboda AV (2009) Generalized multiconfiguration model of decay of multipole giant resonances applied to analysis of reaction (µ-n) on the nucleus 40Ca. Int J Modern Phys A 24(2–3):611–615
Glushkov AV, Malinovskaya SV, Sukharev DE, Khetselius OYu, Loboda AV, Lovett L (2009) Green’s function method in quantum chemistry: new numerical algorithm for the Dirac equation with complex energy and Fermi-model nuclear potential. Int J Quant Chem 109:1717–1727
Khetselius OYu (2009) Relativistic perturbation theory calculation of the hyperfine structure parameters for some heavy-element isotopes. Int J Quant Chem 109:3330–3335
Khetselius OYu (2009) Relativistic calculation of the hyperfine structure parameters for heavy elements and laser detection of the heavy isotopes. Phys Scr T135:014023
Glushkov AV, Yu KO, Gurnitskaya EP, Loboda AV, Sukharev DE (2009) Relativistic quantum chemistry of heavy ions and hadronic atomic systems: spectra and energy shifts. Theory and applications of computational chemistry. AIP Conf Proc 1102:168–171
Khetselius OYu (2012) Quantum Geometry: New approach to quantization of the quasistationary states of Dirac equation for super heavy ion and calculating hyper fine structure parameters. Proc Intern Geometry Center 5(3–4):39–45
Quinet P, Argante C, Fivet V et al (2007) Atomic data for radioactive elements Ra I, Ra II, Ac I and Ac II and application to their detection in HD 101065 and HR 465. Astrophys Astron 474:307
Biémont É, Fivet V, Quinet P (2004) Relativistic Hartree-Fock and Dirac-Fock atomic structure calculations in Fr-like ions Ra+, Ac2+, Th3+ and U5+. J Phys B At Mol Opt Phys 37:4193
Froese Fischer C, Tachiev G (2004) Breit-Pauli energy levels, lifetimes, and transition probabilities for the beryllium-like to neon-like sequences. At Data Nucl Data Tab 87:1
Sapirstein J, Cheng KT (2005) Calculation of radiative corrections to E1 matrix elements in the neutral alkali metals. Phys Rev A 71:022503
Shabaev VM, Tupitsyn II, Pachucki K et al (2005) Radiative and correlation effects on the parity-nonconserving transition amplitude in heavy alkali-metal atoms. Phys Rev A 72:062105
Yerokhin V, Artemyev AN, Shabaev VM (2007) QED treatment of electron correlation in Li-like ions. Phys Rev A 75:062501
Khetselius OYu, Florko TA, Svinarenko AA, Tkach TB (2013) Radiative and collisional spectroscopy of hyperfine lines of the Li-like heavy ions and Tl atom in an atmosphere of inert gas. Phys Scr T 153:014037
Kohn W, Sham LJ (1965) Self-consistent equations including exchange and correlation effects. Phys Rev A 140:1133
Hohenberg P, Kohn W (1964) Inhomogeneous electron gas. Phys Rev B 136:864
Buyadzhi VV, Zaichko PA, Antoshkina OA, Kulakli TA, Prepelitsa GP, Ternovsky VB, Mansarliysky VF (2017) Computing of radiation parameters for atoms and multicharged ions within relativistic energy approach: advanced code. J Phys Conf Ser 905:012003
Ternovsky EV, Buyadzhi VV, Tsudik AV, Svinarenko AA (2018) Relativistic calculation of Rydberg autoionization states parameters in spectrum of barium. Photoelectronics 27:34–43
Rao J, Liu W, Li B (1994) Theoretical complex Stark energies of hydrogen by a complex-scaling plus B-spline approach. Phys Rev A 50:1916–1919
Rao J, Li B (1995) Resonances of the hydrogen atom in strong parallel magnetic and electric fields. Phys Rev A 51:4526–4530
Meng H-Y, Zhang Y-X, Kang S et al (2008) Theoretical complex Stark energies of lithium by a complex scaling plus the B-spline approach. J Phys B At Mol Opt Phys 41:155003
Brändas E, Froelich P (1997) Continuum orbitals, complex scaling problem, and the extended virial theorem. Phys Rev A 16(6):2207
Rittby M, Elander N, Brändas E (1981) Weyl’s theory and the complex-rotation method applied to phenomena associated with a continuous spectrum. Phys Rev A 24(3):1636
Froelich P, Davidson ER, Brändas E (1993) Error estimates for complex eigenvalues of dilated Schr6dinger operators. Phys Rev A 28(5):2641
Lipkin N, Moiseyev N, Brändas E (1989) Resonances by the exterior-scaling method within the framework of the finite-basis-set approximation. Phys Rev A 40(2):549
Simon B (1979) The definition of molecular resonance curves by the method of exterior complex scaling. Phys Lett A 71(2–3):211–214
Danilov V, Kruglyak Yu, Pechenaya V (1969) The electron density-bond order matrix and the spin density in the restricted CI method. Theor Chim Act 13(4):288–296
Kruglyak Yu (2014) Configuration interaction in the second quantization representation: basics with application up to full CI. Sci Rise 4(2):98–115
Mammino L (2019) Complexes of hyperguinones A and B with a Cu2+ Ion: a DFT study. Adv Quant Chem 78:83–108
Mammino L (2020) Complexes of Furonewguinone B with a Cu2+ Ion. A DFT Study In: Mammino L, Ceresoli D, Maruani J, Brändas E (eds) Advances in quantum systems in chemistry, physics, and biology: selected proceedings of QSCP-XXIII (Kruger Park, South Africa, September 2018). Series: progress in theoretical chemistry and physics, vol 32. Springer, Cham, pp 159–182
Cerjan C, Hedges R, Holt C et al (1978) Complex coordinates and the Stark effect. Int J Quant Chem 14(4):393–418
Luc-Koenig E, Bachelier A (1980) Systematic theoretical study of the Stark spectrum of atomic hydrogen. I. Density of continuum states. J Phys B At Mol Phys 13:1743–1756
Ignatenko AV, Buyadzhi AA, Buyadzhi VV, Kuznetsova AA, Mashkantsev AA, Ternovsky EV (2019) Nonlinear chaotic dynamics of quantum systems: molecules in an electromagnetic field. Adv Quant Chem 78:149–170. https://doi.org/10.1016/bs.aiq.2018.06.006. Elsevier
Maquet A, Chu SI, Reinhardt WP (1983) Stark ionization in dc and ac fields: an L2 complex-coordinate approach. Phys Rev A 27(6):2946–2970
Reinhardt WP (1982) Padé summations for the real and imaginary parts of atomic stark eigenvalues. Int J Quant Chem 21(1):133–146
Franceschini V, Grecchi V, Silverstone H (1985) Complex energies from real perturbation series for the LoSurdo-Stark effect in hydrogen by Borel-Padé approximants. J Phys Rev A 32(3):1338
Benassi L, Grecchi V (1980) Resonances in the Stark effect and strongly asymptotic approximants. J Phys B At Mol Phys 13(5):911
Farrelly D, Reinhardt WP (1983) Uniform semiclassical and accurate quantum calculations of complex energy eigenvalues for the hydrogen atom in a uniform electric field. J Phys B At Mol Phys 16(12):2103
Filho O, Fonseca A, Nazareno H et al (1990) Different approach to the Stark effect: application to the hydrogen ground state. Phys Rev A 42(7):4008–4014
Kondratovich VD, Ostrovsky VN (1984) Resonance and interference phenomena in the photoionisation of a hydrogen atom in a uniform electric field. II. Overlapping resonances and interference. J Phys B At Mol Phys 17(10):2011
Telnov DA (1989) DC Stark effect in a hydrogen atom via Sturmian expansions. J Phys B At Mol Opt Phys 22(14):L399–L403
Ho Y-K (1983) The method of complex coordinate rotation and its applications to atomic collision processes. Phys Rev 99(1):1–68
Ivanov IA, Ho Y-K (2004) Complex rotation method for the Dirac Hamiltonian. Phys Rev A 69:023407
González-Férez R, Schweizer W (2000) In: Hernández-Laguna A, Maruani J, McWeeny R, Wilson S (eds) Quantum systems in chemistry and physics. Series: progress in theoretical chemistry and physics, vol 23. Springer, Berlin, p 17
Sahoo S, Ho Y-K (2000) Stark effect on the low-lying excited states of the hydrogen and the lithium atoms. J Phys B At Mol Opt Phys 33:5151–5164
Sahoo S, Ho Y-K (2000) The complex absorbing potential method (CAP) to study the Stark effect in hydrogen and lithium. J Phys B At Mol Opt Phys 33:2195–2206
Zimmerman ML, Littman MG, Kash MM et al (1979) Stark structure of the Rydberg states of alkali-metal atoms. Phys Rev A 20:2251
Harmin DA (1982) Theory of the Stark effect. Phys Rev A 26:2656
Buyadzhi VV (2015) Laser multiphoton spectroscopy of atom embedded in Debye plasmas: multiphoton resonances and transitions. Photoelectronics 24:128–133
Kuznetsova AA, Glushkov AV, Ignatenko AV, Svinarenko AA, Ternovsky VB (2019) Spectroscopy of multielectron atomic systems in a DC electric field. Adv Quantum Chem 78:287–306. Elsevier; https://doi.org/10.1016/bs.aiq.2018.06.005
Khetselius OYu (2008) Hyperfine structure of atomic spectra. Astroprint, Odessa
Glushkov AV (2005) Atom in electromagnetic field. KNT, Kiev
Glushkov AV, Ivanov LN (1993) DC strong-field Stark effect: consistent quantum-mechanical approach. J Phys B At Mol Opt Phys 26:L379–L386
Glushkov AV (2013) Operator perturbation theory for atomic systems in a strong DC electric field. In: Hotokka M, Brändas E, Maruani J, Delgado-Barrio G (eds) Advances in quantum methods and applications in chemistry, physics, and biology. Series: progress in theoretical chemistry and physics, vol 27. Springer, Cham, pp 161–177
Glushkov AV, Ambrosov SV, Ignatenko AV, Korchevsky DA (2004) DC strong field Stark effect for non-hydrogenic atoms: new consistent quantum mechanical approach. Int J Quant Chem 99(5):936–939
Glushkov AV, Malinovskaya SV, Loboda AV, Shpinareva IM, Prepelitsa GP (2006) Consistent quantum approach to new laser-electron-nuclear effects in diatomic molecules. J Phys Conf Ser 35:420–424
Glushkov AV, Ambrosov SV, Ignatenko AV (2001) Non-hydrogenic atoms and Wannier-Mott excitons in a DC electric field: photoionization, Stark effect, resonances in ionization continuum and stochasticity. Photoelectronics 10:103–106
Ignatenko AV (2007) Probabilities of the radiative transitions between Stark sublevels in spectrum of atom in an DC electric field: New approach. Photoelectronics 16:71–74
Benvenuto F, Casati G, Shepelyansky DL (1994) Rydberg Stabilization of atoms in strong fields: “magic” mountain in chaotic sea. J Phys B 94:481–486
Buchleitner A, Delande D (1997) Secular motion of three-dimensional Rydberg states in a microwave field. Phys Rev A 55:R1585
Gallagher TF, Noel M, Griffith MW (2000) Classical subharmonic resonances in microwave ionization of lithium Rydberg atoms. Phys Rev A 62:063401
Grutter M, Zehnder O, Softley T et al (2008) Spectroscopic study and multichannel quantum defect theory analysis of the Stark effect in Rydberg states of neon. J Phys B At Mol Opt Phys 41:115001
Dunning FB, Mestayer JJ, Reinhold CO et al (2009) Engineering atomic Rydberg states with pulsed electric fields. J Phys B At Mol Opt Phys 42:022001
Glushkov AV, Malinovskaya SV, Svinarenko AA, Vitavetskaya LA (2005) Sensing spectral hierarchy, quantum chaos, chaotic diffusion and dynamical stabilisation effects in a multi-photon atomic dynamics with intense laser field. Sens Electr Microsyst Tech 2(2):29–36
Glushkov AV, Ternovsky VB, Buyadzhi VV, Prepelitsa GP (2014) Geometry of a relativistic quantum chaos: new approach to dynamics of quantum systems in electromagnetic field and uniformity and charm of a chaos Proc. Intern Geom Center 7(4):60–71
Glushkov AV (1990) Relativistic polarization potential of a many-electron atom. Sov Phys J 33(1):1–4
Braun MA, Dmitriev YuYu, Labzovsky LN (1969) Relativistic theory of the heavy atom. JETP 57:2189
Ivanov LN, Ivanova EP (1996) Method of Sturm orbitals in calculation of physical characteristics of radiation from atoms and ions. JETP 83:258–266
Ivanov LN, Ivanova EP (1979) Atomic ion energies for Na-like ions by a model potential method Z = 25–80. At Data Nucl Data Tabl 24:95
Ivanova EP, Ivanov LN, Glushkov AV, Kramida A (1985) High order corrections in the relativistic perturbation theory with the model zeroth approximation, Mg-like and Ne-like ions. Phys Scr 32:513–522
Ivanova EP, Glushkov AV (1986) Theoretical investigation of spectra of multicharged ions of F-like and Ne-like isoelectronic sequences. J Quant Spectr Rad Transfer 36:127–145
Ivanov LN, Ivanova EP, Aglitsky EV (1988) Modern trends in the spectroscopy of multicharged ions. Phys Rep 164:315–317
Glushkov AV, Ivanov LN., Ivanova EP (1986) Radiation decay of atomic states. Generalized energy approach. In: Autoionization phenomena in atoms. Moscow State Univ., Moscow, p 58
Glushkov AV, Ivanov LN (1992) Radiation decay of atomic states: atomic residue polarization and gauge noninvariant contributions. Phys Lett A 170:33–36
Glushkov AV (2012) Advanced relativistic energy approach to radiative decay processes in multielectron atoms and multicharged ions. In: Nishikawa K, Maruani J, Brandas E, Delgado-Barrio G, Piecuch P (eds) Quantum systems in chemistry and physics: progress in methods and applications. series: progress in theoretical chemistry and physics, vol 26. Springer, Dordrecht, pp 231–252
Glushkov AV (2019) Multiphoton spectroscopy of atoms and nuclei in a laser field: relativistic energy approach and radiation atomic lines moments method. Adv Quant Chem 78:253–285. Elsevier. https://doi.org/10.1016/bs.aiq.2018.06.004
Khetselius OY (2019) Optimized relativistic many-body perturbation theory calculation of wavelengths and oscillator strengths for Li-like multicharged ions. Adv Quant Chem 78:223–251. Elsevier. https://doi.org/10.1016/bs.aiq.2018.06.001
Ivanov LN, Letokhov VS (1985) Spectroscopy of autoionization resonances in heavy elements. Com Mod Phys D At Mol Phys 4:169–184
Ivanova EP, Grant IP (1998) Oscillator strength anomalies in the neon isoelectronic sequence with applications to x-ray laser modelling. J Phys B At Mol Opt Phys 31:2871
Ivanova EP, Zinoviev NA (1999) Calculation of the vacuum-UV radiation gains in transitions of Ne-like argon in capillary discharges. Quant Electr 29:484
Ivanova EP, Zinoviev NA (2001) The possibility of X-ray lasers based on the innershell transitions of Ne-like ions. Phys Lett A 274:239
Bekov GI, Vidolova-Angelova E, Ivanov LN, Letokhov VS, Mishin V (1981) Laser spectroscopy of narrow doubly excited autoionizing states of ytterbium atoms. JETP 80(3):866
Vidolova-Angelova E, Ivanov LN, Ivanova EP et al (1986) Relativistic perturbation method for investigating the radiation decay of highly excited many electron atoms: Tm atom. J Phys B At Mol Opt Phys 19:2053–2069
Vidolova-Angelova E, Ivanov LN (1991) Autoionizing Rydberg states of thulium. Re-orientation decay due to monopole interaction. J Phys B At Mol Opt Phys 24:4147–4158
Ivanov LN, Ivanova EP, Knight L (1993) Energy approach to consistent QED theory for calculation of electron-collision strengths: Ne-like ions. Phys Rev A 48:4365
Glushkov AV, Ivanov LN, Letokhov VS (1991) Nuclear quantum optics. Preprint of Institute for Spectroscopy of the USSR Academy of Sciences. ISAN, Moscow-Troitsk, AS-4
Letokhov VS, Ivanov LN, Glushkov AV (1992) Laser separation of heavy lanthanides and actinides isotopes: autoionization resonances and decay in electric field. Preprint of Institute for Spectroscopy of the USSR Academy of Sciences, ISAN, Moscow-Troitsk, AS, p N5
Glushkov AV (2005) Energy approach to resonance states of compound superheavy nucleus and EPPP in heavy nuclei collisions. In: Grzonka D, Czyzykiewicz R, Oelert W et al (eds) Low Energy Antiproton Physics, vol 796. AIP Conf Proc, New York, pp 206–210
Glushkov AV, Ivanov LN (1992) Shift and deformation of radiation atomic lines in the laser emission field. Multiphoton processes. Preprint of Institute for Spectroscopy of the USSR Academy of Sciences. ISAN, Moscow-Troitsk, AS N3
Glushkov AV, Ivanov LN (1992) A broadening of the thulium atom autoionization resonances in a weak electric field. Preprint of Institute for Spectroscopy of the USSR Academy of Sciences. ISAN, Moscow-Troitsk, AS N2
Glushkov AV (2008) QED theory of radiation emission and absorption lines for atoms and ions in a strong laser field. AIP Conf Proc 1058:134–136
Glushkov AV, Loboda AV (2007) Calculation of the characteristics of radiative multiphoton absorption and emission lines when an atom interacts with pulsed laser radiation. J Appl Spectr (Springer) 74:305–309
Glushkov AV (2012) Spectroscopy of cooperative muon-gamma-nuclear processes: energy and spectral parameters. J Phys Conf Ser 397:012011
Glushkov AV (2014) Spectroscopy of atom and nucleus in a strong laser field: Stark effect and multiphoton resonances. J Phys Conf Ser 548:012020
Khetselius OY (2012) Spectroscopy of cooperative electron-gamma-nuclear processes in heavy atoms: NEET effect. J Phys Conf Ser 397:012012
Khetselius OY (2012) Relativistic energy approach to cooperative electron-γ-nuclear processes: NEET effect. In: Nishikawa K, Maruani J, Brändas E, Delgado-Barrio G, Piecuch P (eds) Quantum systems in chemistry and physics. Series: progress in theoretical chemistry and physics, vol 26. Springer, Dordrecht, pp 217–229
Glushkov AV, Kondratenko PA, Buyadgi VV, Kvasikova AS, Sakun TN, Shakhman AN (2014) Spectroscopy of cooperative laser electron-γ-nuclear processes in polyatomic molecules. J Phys Conf Ser 548:012025
Buyadzhi VV, Glushkov AV, Lovett L (2014) Spectroscopy of atoms and nuclei in a strong laser field: AC Stark effect and multiphoton resonances. Photoelectronics 23:38–43
Glushkov AV, Svinarenko AA, Khetselius OY, Buyadzhi VV, Florko TA, Shakhman AN (2015) Relativistic quantum chemistry: an advanced approach to the construction of the Green function of the Dirac equation with complex energy and mean-field nuclear potential. In: Nascimento M, Maruani J, Brändas E, Delgado-Barrio G (eds) Frontiers in quantum methods and applications in chemistry and physics. Series: progress in theoretical chemistry and physics, vol 29. Springer, Cham, pp 197–217
Malinovskaya SV, Glushkov AV, Khetselius OY (2008) New laser-electron nuclear effects in the nuclear γ transition spectra in atomic and molecular systems. In: Wilson S, Grout P, Maruani J, Delgado-Barrio G, Piecuch P (eds) Frontiers in quantum systems in chemistry and physics. Series: Progress in theoretical chemistry and physics, vol 18. Springer, Dordrecht, pp 525–541
Glushkov AV, Khetselius OYu, Malinovskaya SV (2008) Optics and spectroscopy of cooperative laser-electron nuclear processes in atomic and molecular systems—new trend in quantum optics. Eur Phys J ST 160:195–204
Glushkov AV, Malinovskaya SV, Ambrosov SV, Shpinareva IM, Troitskaya OV (1997) Resonances in quantum systems in strong external fields consistent quantum approach. J Tech Phys 38(2):215–218
Glushkov AV, Khetselius OYu, Malinovskaya SV (2008) Spectroscopy of cooperative laser-electron nuclear effects in multiatomic molecules. Molec Phys 106:1257–1260
Glushkov AV, Khetselius OY, Svinarenko AA (2012) Relativistic theory of cooperative muon-γ -nuclear processes: Negative muon capture and metastable nucleus discharge. In: Hoggan P, Brändas E, Maruani J, Delgado-Barrio G, Piecuch P (eds) Advances in the theory of quantum systems in chemistry and physics. Series: progress in theoretical chemistry and physics, vol 22. Springer, Dordrecht, pp 51–68
Glushkov AV, Khetselius OY, Lovett L (2009) Electron-β-nuclear spectroscopy of atoms and molecules and chemical bond effect on the β-decay parameters. In: Piecuch P, Maruani J, Delgado-Barrio G, Wilson S (eds) Advances in the theory of atomic and molecular systems dynamics, spectroscopy, clusters, and nanostructures. Series: progress in theoretical chemistry and physics, vol 20. Springer, Dordrecht, pp 125–152
Glushkov AV, Khetselius OY, Loboda AV, Svinarenko AA (2008) QED approach to atoms in a laser field: Multi-photon resonances and above threshold ionization In: Wilson S, Grout P, Maruani J, Delgado-Barrio G, Piecuch P (eds) Frontiers in quantum systems in chemistry and physics. Series: Progress in theoretical chemistry and physics, vol 18. Springer, Dordrecht, pp 543–560
Glushkov AV, Yu KO, Svinarenko AA, Prepelitsa GP, Shakhman AN (2010) Spectroscopy of cooperative laser-electron nuclear processes in diatomic and multiatomic molecules. AIP Conf Proc 1290(1):269–273
Khetselius OY, Glushkov AV, Dubrovskaya YV, Chernyakova YG, Ignatenko AV, Serga IN, Vitavetskay LA (2018) Relativistic quantum chemistry and spectroscopy of exotic atomic systems with accounting for strong interaction effects. In: Wang YA, Thachuk M, Krems R, Maruani J (eds) Concepts, methods and applications of quantum systems in chemistry and physics. Series: progress in theoretical chemistry and physics, vol 31. Springer, Cham, pp 71–91
Khetselius OYu (2010) Relativistic hyperfine structure spectral lines and atomic parity non-conservation effect in heavy atomic systems within qed theory. AIP Conf Proc 1290(1):29–33
Glushkov AV, Rusov VD, Ambrosov SV, Loboda AV (2003) Resonance states of compound super-heavy nucleus and EPPP in heavy nucleus collisions. In: Fazio G, Hanappe F (eds) New projects and new lines of research in nuclear physics. World Scientific, Singapore, pp 126–132
Glushkov AV, Khetselius OY, Gurnitskaya EP, Loboda AV, Florko TA, Sukharev DE, Lovett L (2008) Gauge-invariant QED perturbation theory approach to calculating nuclear electric quadrupole moments, hyperfine structure constants for heavy atoms and ions. In: Wilson S, Grout P, Maruani J, Delgado-Barrio G, Piecuch P (eds) Frontiers in quantum systems in chemistry and physics. Series: progress in theoretical chemistry and physics, vol 18. Springer, Dordrecht, pp 507–524
Malinovskaya SV, Glushkov AV (1992) Calculation of the spectra of potassium-like multicharged ions. Russ Phys J 35(11):999–1004
Glushkov AV, Butenko Y, Serbov NG, Ambrosov SV, Orlova VE, Orlov SV, Balan AK, Dormostuchenko GM (1996) Calculation of the oscillator strengths in Fr-like multiply charged ions. J Appl Spectrosc 63(1):28–30
Glushkov AV, Kondratenko PA, YaI L, Fedchuk AP, Svinarenko AA, Lovett L (2009) Electrodynamical and quantum-chemical approaches to modelling the electrochemical an catalytic processes on metals, metal alloys and semiconductors. Int J Quant Chem 109(14):3473–3481
Florko TA, Ambrosov SV, Svinarenko AA, Tkach TB (2012) Collisional shift of the heavy atoms hyperfine lines in an atmosphere of the inert gas. J Phys Conf Ser 397(1):012037
Glushkov AV (1992) Negative ions of inert gases. JETP Lett 55(2):97–100
Glushkov AV, Khetselius OYu, Svinarenko AA (2013) Theoretical spectroscopy of autoionization resonances in spectra of lanthanide atoms. Phys Scr T 153:014029
Glushkov AV, Ambrosov SV, Loboda AV, Gurnitskaya EP, Khetselius OY (2005) QED calculation of heavy multicharged ions with account for correlation, radiative and nuclear effects. In: Julien J-P, Maruani J, Mayou D, Wilson S, Delgado-Barion G (eds) Recent advances in theory of physical and chemical systems. Recent advances in the theory of chemical and physical systems. Series: progress in theoretical chemistry and physics, vol 15. Springer, Dordrecht, pp 285–299
Malinovskaya SV, Glushkov AV, Dubrovskaya YV, Vitavetskaya LA (2006) Quantum calculation of cooperative muon-nuclear processes: discharge of metastable nuclei during negative muon capture. In: Julien J-P, Maruani J, Mayou D, Wilson S, Delgado-Barion G (eds) Recent Advances in theory of physical and chemical systems. Recent advances in the theory of chemical and physical systems series: progress in theoretical chemistry and physics, vol 15. Springer, Dordrecht, pp 301–307
Malinovskaya SV, Glushkov AV, Khetselius OYu, Svinarenko AA, Mischenko EV, Florko TA (2009) Optimized perturbation theory scheme for calculating the interatomic potentials and hyperfine lines shift for heavy atoms in the buffer inert gas. Int J Quant Chem 109:3325–3329
Glushkov AV, Khetselius OYu, Lopatkin YM, Florko TA, Kovalenko OA, Mansarliysky VF (2014) Collisional shift of hyperfine line for rubidium in an atmosphere of the buffer inert gas. J Phys Conf Ser 548:012026
Khetselius OY, Lopatkin YM, Dubrovskaya YV, Svinarenko AA (2010) Sensing hyperfine-structure, electroweak interaction and parity non-conservation effect in heavy atoms and nuclei: new nuclear-QED approach. Sens Electr Microsyst Tech 7(2):11–19
Glushkov AV, Dan’kov SV, Prepelitsa G, Polischuk VN, Efimov AV (1997) Qed theory of nonlinear interaction of the complex atomic systems with laser field multi-photon resonances. J Techn Phys 38(2):219–222
Glushkov AV, Malinovskaya SV, Gurnitskaya EP, Khetselius OYu, Dubrovskaya Y (2006) Consistent quantum theory of recoil induced excitation and ionization in atoms during capture of neutron. J Phys Conf Ser 35:425–430
Glushkov AV, Malinovskay SV, Prepelitsa GP, Ignatenko V (2005) Manifestation of the new laser-electron nuclear spectral effects in the thermalized plasma: QED theory of co-operative laser-electron-nuclear processes. J Phys Conf Ser 11:199–206
Glushkov AV, Ambrosov SV, Loboda AV, Gurnitskaya EP, Prepelitsa GP (2005) Consistent QED approach to calculation of electron-collision excitation cross sections and strengths: Ne-like ions. Int J Quant Chem 104:562–569
Glushkov AV, Khetselius OYu, Loboda AV, Ignatenko AV, Svinarenko AA, Korchevsky DA, Lovett L (2008) QED approach to modeling spectra of the multicharged ions in a plasma: oscillator and electron-ion collision strengths. AIP Conf Proc 1058:175–177
Glushkov AV (1988) True effective molecular valency hamiltonian in a logical semiempricial theory. J Struct Chem 29(4):495–501
Glushkov AV (1990) Correction for exchange and correlation effects in multielectron system theory. J Struct Chem 31(4):529–532
Glushkov AV, Efimov VA, Gopchenko ED, Dan’kov SV, Polishchyuk VN, Goloshchak OP (1998) Calculation of spectroscopic characteristics 4 of alkali-metal dimers on the basis of a model perturbation theory. Opt Spectr 84(5):670–678
Svinarenko AA, Glushkov AV, Khetselius OY, Ternovsky VB, Dubrovskaya YuV, Kuznetsova AA, Buyadzhi VV (2017) Theoretical spectroscopy of rare-earth elements: spectra and autoionization resonance. In: Jose EA Orjuela (ed) Rare Earth Element. InTech, pp 83–104. https://doi.org/10.5772/intechopen.69314
Buyadzhi VV, Glushkov AV, Mansarliysky VF, Ignatenko AV, Svinarenko AA (2015) Spectroscopy of atoms in a strong laser field: New method to sensing AC Stark effect, multiphoton resonances parameters and ionization cross-sections. Sensor Electr Microsys Tech 12(4):27–36
Glushkov AV, Yu GM, Ignatenko AV, Smirnov AV, Serga IN, Svinarenko AA, Ternovsky EV (2017) Computational code in atomic and nuclear quantum optics: advanced computing multiphoton resonance parameters for atoms in a strong laser field. J Phys Conf Ser 905(1):012004
Dubrovskaya YuV, Khetselius OYu, Vitavetskaya LA, Ternovsky VB, Serga IN (2019) Quantum chemistry and spectroscopy of pionic atomic systems with accounting for relativistic, radiative, and strong interaction effects. Adv Quant Chem, vol 78. Elsevier, pp 193–222. https://doi.org/10.1016/bs.aiq.2018.06.003
Malinovskaya SV, Dubrovskaya YV, Vitavetskaya LA (2005) Advanced quantum mechanical calculation of the beta decay probabilities In: Grzonka D, Czyzykiewicz R, Oelert W, Rozek T, Winter P (eds) Low energy antiproton physics. AIP: New York, AIP Conf Proc 796:201–205
Glushkov AV, Khetselius OYu, Svinarenko AA, Buyadzhi VV, Ternovsky VB, Kuznetsova AA, Bashkarev PG (2017) Relativistic perturbation theory formalism to computing spectra and radiation characteristics: application to heavy elements. In: Uzunov DI (ed) Recent studies in perturbation theory, InTech, pp 131–150. (https://doi.org/10.5772/intechopen.69102)
Glushkov AV (1992) Oscillator strengths of Cs and Rb-like ions. J Appl Spectrosc 56(1):5–9
Khetselius OY, Glushkov AV, Gurskaya MY, Kuznetsova AA, Dubrovskaya YV, Serga IN, Vitavetskaya LA (2017) Computational modelling parity nonconservation and electroweak interaction effects in heavy atomic systems within the nuclear-relativistic many-body perturbation theory. J Phys Conf Ser 905:012029
Buyadzhi VV, Zaichko PA, Gurskaya MY, Kuznetsova AA, Ponomarenko EL, Ternovsky VB (2017) Relativistic theory of excitation and ionization of Rydberg atomic systems in a black-body radiation field. J Phys Conf Ser 810:012047
Svinarenko AA, Khetselius OYu, Buyadzhi VV, Florko TA, Zaichko PA, Ponomarenko EL (2014) Spectroscopy of Rydberg atoms in a Black-body radiation field: relativistic theory of excitation and ionization. J Phys Conf Ser 548:012048
Glushkov AV, Khetselius OY, Svinarenko AA, Buyadzhi VV (2015) Methods of computational mathematics and mathematical physics. P.1. TES, Odessa
Glushkov AV (2012) Methods of a chaos theory. Astroprint, Odessa
Acknowledgements
The author would like to thank Professors Olga Khetselius, Erkki Brändas, Jacek Karwowski, Ilya Kaplan, Jean Maruani, Boris Plakhutin and Andrey Svinarenko for useful discussions and comments and Dr Angeliki Athanasopoulou for the support. The author would like to thank the anonymous referees for useful comments too. The technical editorial assistance of Mr. Boopalan Renu and Mr. Muruga Prashanth are also very much acknowledged.
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Glushkov, A.V. (2021). Auger Spectroscopy of Multielectron Atoms: Generalized Energy Formalism. In: Glushkov, A.V., Khetselius, O.Y., Maruani, J., Brändas, E. (eds) Advances in Methods and Applications of Quantum Systems in Chemistry, Physics, and Biology. Progress in Theoretical Chemistry and Physics, vol 33. Springer, Cham. https://doi.org/10.1007/978-3-030-68314-6_1
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