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Distribution of electronic states in amorphous Zn-P thin films on the basis of optical measurements

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Transmission and fundamental reflectivity studies, completed on amorphous Zn-P thin films, allowed us to obtain parameters describing the fundamental absorption edge, i.e., the optical pseudogap EG, Urbach energy EU and exponential edge parameter ET. All these data, together with the results of earlier transport measurements, have been utilized in developing simple models of electronic structure (distribution of electronic states) for amorphous Zn-P thin films of two compositions, i.e., Zn57P43 (near stoichiometry of Zn3P2) and Zn32P68 (near stoichiometry of ZnP2).
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575--583
Opis fizyczny
Biblipogr. 29 poz.,
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Bibliografia
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  • [2] MISIEWICZ J., SZATKOWSKI J., MIROWSKA N., GUMIENNY Z., PŁACZEK-POPKO E., Zn3P2 – a new material for optoelectronic devices, Materials Science and Engineering: B 9(1–3), 1991, pp. 259–62.
  • [3] RAO V.J., SALVI M.V., SAMUEL V., SINHA A.P.B., Structural and optical properties of Zn3P2 thin films, Journal of Materials Science 20(9), 1985, pp. 3277–82.
  • [4] NAYAK A., RAO D.R., BANERJEE H.D., Optical studies on electron-beam-deposited Zn3P2 thin films, Journal of Materials Science Letters 10(7), 1991, pp. 403–5.
  • [5] BRYJA L., JEZIERSKI K., MISIEWICZ J., Optical properties of Zn3P2 thin films, Thin Solid Films 229(1), 1993, pp. 11–3.
  • [6] DEISS J.L., ELIDRISSI B., ROBINO M., WEIL R., Amorphous thin films of Zn3P2: preparation and characterization, Applied Physics Letters 49(15), 1986, pp. 969–70.
  • [7] DEISS J.L., ELIDRISSI B., ROBINO M., TAPIRO M., ZIELINGER J.P., WEIL R., Amorphous thin films of Zn3P2, Physica Scripta 37(4), 1988, pp. 587–92.
  • [8] ARSENAULT C.J., BRODIE D.E., Crystallization of Zn-rich and P-rich amorphous Zn3P2 thin films, Canadian Journal of Physics 66(5), 1988, pp. 373–5.
  • [9] WEBER A., Thesis, Zurich 1993.
  • [10] WEBER A., SUTTER P., VON KAENEL H., Optical, electrical, and photoelectrical properties of sputtered thin amorphous Zn3P2 films, Journal of Applied Physics 75(11), 1994, pp. 7448–55.
  • [11] JARZĄBEK B., WESZKA J., BURIAN A., POCZTOWSKI G., Optical properties of amorphous thin films of the Zn-P system, Thin Solid Films 279(1–2), 1996, pp. 204–8.
  • [12] JARZĄBEK B., WESZKA J., CISOWSKI J., Distribution of electronic states in amorphous Cd-As thin films on the basis of optical measurements, Journal of Non-Crystalline Solids 333(2), 2004, pp. 206–11.
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  • [15] MOTT N.F., Conduction in non-crystalline systems. IV. Anderson localization in a disordered lattice, Philosophical Magazine 22(175), 1970, pp. 7–29.
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  • [18] MARSHALL J.M., OWEN A.E., Drift mobility studies in vitreous arsenic triselenide, Philosophical Magazine 24(192), 1971, pp. 1281–305.
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  • [20] JARZĄBEK B., JURUSIK J., CISOWSKI J., NOWAK M., Roughness of amorphous Zn-P thin films, Optica Applicata 31(1), 2001, pp. 93–101.
  • [21] JARZĄBEK B., Thesis, Zabrze 1997.
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  • [25] Cody D., [In] Semiconductors and Semimetals, [Ed.] J.I. Pankove, Vol. 21, Part B, Academic Press, New York 1984, p. 11.
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  • [27] LECANTE P., MOSSET A., GALY J., BURIAN A., Structural studies of amorphous Zn-P films, Journal of Materials Science 27(12), 1992, pp. 3286–92.
  • [28] BURIAN A., LECANTE P., MOSSET A., GALY J., Extended X-ray absorption fine-structure studies of short-range order in amorphous Zn-P films, Philosophical Magazine B: Physics of Condensed Matter, Electronic, Optical and Magnetic Properties 66(6), 1992, pp. 727–36.
  • [29] VORLICEK V., Optical absorption edge of CdAs2-based glasses, Physica Status Solidi B 67(2), 1975, pp. 731–42.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-article-BPW7-0009-0052
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