TELECOMMUNICATIONS AND RADIO ENGINEERING - 2012 Vol. 71,
No 9
 

 

 

 

HIGH-FREQUENCY ELECTRON CURRENT THROUGH A NON-STATIONARY TUNNEL JUNCTION


D.V. Abdulkadyrov, N.N. Beletskii, & S.A. Borysenko
A. Usikov Institute of Radio Physics and Electronics,
National Academy of Sciences of Ukraine
12, Academician Proskura St., Kharkiv, 61085, Ukraine
Address all correspondence to N.N. Beletskii E-mail: beletski@ire.kharkov.ua

Abstract
Tunneling electrons through a non-stationary tunnel junction are investigated within the framework of the approximation of one-quantum electron tunnel junctions. The effect of the thermal energy distribution of electrons in the emitter and collector of the tunnel junction is taken into account. The dependence of the high-frequency electron current on the frequency and the applied dc bias voltage is found. The influence of the barrier asymmetry on the active and reactive parts of the high-frequency electron current is studied.
KEY WORDS: tunneling electrons, non-stationary tunnel junction, high-frequency current

References

  1. Burstein, E. and Lundqvist,S., (eds.) (1969), Tunnelling phenomena in solids: lectures, New York : Plenum Press. – 367 p.
  2. Chang, L.L., Mendez, E.E., and Tejedor,C., (1991), Resonant Tunnelling in Semiconductors: Physics and Applications, N. Y. - London: Plenum Press. – 538 p.
  3. Borisenko, V.E., Vorob'eva, A.I., and Utkina, E.A., (2004), Nanoelectronics, BGU, Minsk: 223 p. (in Russian).
  4. Maekawa,S., (ed.) (2006), Concepts in Spin Electronics, N. Y.: Oxford University Press. – 398 p.
  5. Ryzhii, M. and Ryzhii, V., (eds.) (2008), Physics and modelling of tera- and nano-devices, New Jersey: World Scientific. – 194 p.
  6. Tsu, R., and Esaki, L., (1973), Tunneling in a finite superlattice, Appl. Phys. Lett., 22(11):562–564.
  7. Beletskii, N.N., Borysenko, S.A., and Yakovenko, V.M., (2006), Magnetoresistance and Spin Polarization of Electron Current in Magnetic Tunneling Junctions, Telecommunications and Radio Engineering, 65(6):509–526.
  8. Beletskii, N.N., Berman, G.P., Borysenko, S.A., et al., (2007), Magnetoresistance of magnetic tunnel junctions with low barrier heights, J. Appl. Phys., 101(7):074305(7 p.).
  9. Buttiker, M. and Landauer, R., (1982), Transversal time for tunnelling, Phys. Rev. Lett., 49(23):1739–1742.
  10. Hagmann, M.J., (1995), Resonance due to the interaction of the tunnelling particles with modulation quanta, Appl. Phys. Lett., 66(7):789–791.
  11. Ivlev, B.I. and Mel'nikov, V.I., (1986), Quasi-classical processes in a high-frequency field, Zhurnal eksperiment. i teoretich. Fiziki, 90(6):2208–2225 (in Russian).
  12. Pashkovskii, A.B., (1996), Electron transition through quantum-dimensioned structures in high-frequency fields, Zhurnal eksperiment. i teoretich. Fiziki, 109(5):1779–1805 (in Russian).
  13. Pashkovskii, A.B., (1995), Non-stationary perturbation theory for problems on electron tunneling through quantum-dimensioned structures in high-frequency fields, Fizika i tekhnika poluprovodnikov, 29(9):1712–1726 (in Russian).
  14. Gribnikov, Z.S. and Haddad, G.I., (2004), Time-dependent electron tunnelling through time-dependent tunnel barriers, J. Appl. Phys., 96(7):3831–3838.
  15. Gribnikov, Z.S. and Haddad, G.I., (2005), Differential tunnel transparency of a rectangular heterostructural barrier for the terahertz frequency range, J. Appl. Phys., 97(9):093705(5 p.).
  16. Abdulkadyrov, D.V. and Beletskii, N.N., (2009), Electron Tunnelling Through a Non-Stationary Potential Barrier, Telecommunications and Radio Engineering, 68(11):983–998.
  17. Abdulkadyrov, D.V. and Beletskii, N.N., (2010), Magnetoresistance of a Nonstationary Magnetic Tunnel Junction, Telecommunications and Radio Engineering, 69(20):1837-1849.
  18. Abdulkadyrov, D.V. and Beletskii, N.N., (2011), Giant change in the magnetoimpedance of the magnetic tunnel junction by an AC bias voltage, Physics of the solid state, 53(5):997-1004.


pages 847-859

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