Selenides indium

Zinc sulfide, ZnS, sphalerite (zinc blende) zinc sulfide, ZnS, wurtzite zinc selenide, ZnSe zinc telluride, ZnTe, cubic zinc telluride, ZnTe, hexagonal zinc polonide, ZnPo zinc aluminum selenide, ZnAl2Se4 zinc indium selenide, ZnIn2Se4 zinc indium telluride, Znhi2Te4. 

Uosaki K, Kaneko S, Kita H, Chevy A (1986) Electrochemical behavior of p-type indium selenide single crystal electrodes in dark and under illumination. Bull Chem Soc Jpn 59 599-605... 

Yamaguchi K (1995) Phonons of indium selenide single crystals studied by inelastic electron tunneling spectroscopy. Phys Status Solidi B 190 409 113... 

Lee, H. Kim, Y. K. Kim, D. Kang, D.-H. 2005. Switching behavior of indium selenide-based phase-change memory cell. IEEE Trans. Magnetics. 41 1034-1036. 

Antimony telluride films have been grown from antimony(III) and tellurium(IV) oxides.167 Antimony telluride films were stoichimetric and consisted of nanoscale particles of the size 100 nm. The films had a good crystallinity.167 Indium selenide films were grown from indium sulphate and selenium oxide precursors.168 The films consisted of large particles, 70 to 200 nm in diameter. The band gap was 1.73 eV.168... 

A number of companies are currently involved in thin-fllm photovoltaics [17], and low-cost multilayer thin-fllm amorphous silicon and CdTe (cadmium telluride) systems have already been installed in large numbers with efficiencies of the order of 10% and of about 80% output after 25 years of operation. Large-scale plants have been announced for the so-called CIS (cadmium indium selenide) and CGIS (copper gallium indium diselenide), technologies with production efficiencies in the range 12-13% and laboratory measurements up to 19.9% [18]. 

BASIL CIS CV CVD DSSC ECALE EC-STM EDX, EDS, EDAX EIS EMF EQCM FAB MS FFG-NMR Biphasic Acid Scavenging Utilizing Ionic Liquids Copper-indium-selenide Cyclic Voltammetry Chemical Vapor Deposition Dye Sensitized Solar Cell Electrochemical Atomic Layer Epitaxy Electrochemical in situ scanning tunnelling microscopy Energy Dispersive X-ray analysis Electrochemical Impedance Spectroscopy Electromotive Force Electrochemical Quarz Crystal Microbalance Fast atom bombardment mass spectroscopy Fixed Field Gradient Nuclear Magnetic Resonance... 

Camassel I, Merle P., Mathieu H. (1978) Excitonic absorption edge of indium selenide. Phys. Rev. B. 17(12), 4718-4725. 

After the assessment of the thermodynamic properties of indium selenides was made by the review, the thermodynamic modelling of the In-Se system by Li, Record, and Tedenac [2003LI/REC] has appeared. The paper brings no new experimental information and does not affect the selection of the thermodynamic properties made by the review. However, the modelling resulted in thermodynamic properties of all condensed phases in the system and the values are given in the pertinent sections. Most of these data are not based on experimental thermodynamic information for individual phases, but are a result of the modelling of the thermodynamics and the phase diagram of the system as a whole. The data are included in the review for information only. 

Table A-57 Thermodynamic properties of the gaseous indium selenides at standard conditions as re-evaluated by the review from the investigation in [68COL/DRO]. The enthalpy values of In2Se2(g) were calculated using the third law value of ln2Se(g).

Trojko, R., Revised and new crystal data for indium selenides, J. Appl. Crystallogr., 12, (1979), 416-420. Cited on page 242. 

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