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Cadmium tellurides

Kidder L H, Levin I W, Lewis E N, Kleiman V D and Heilweil E J 1997 Mercury cadmium telluride focal-plane array detection for mid-infrared Fourier-transform spectroscopic imaging Opt. Lett. 22 742-4... [Pg.1176]

Monolayers can be transferred onto many different substrates. Most LB depositions have been perfonned onto hydrophilic substrates, where monolayers are transferred when pulling tire substrate out from tire subphase. Transparent hydrophilic substrates such as glass [18,19] or quartz [20] allow spectra to be recorded in transmission mode. Examples of otlier hydrophilic substrates are aluminium [21, 22, 23 and 24], cliromium [9, 25] or tin [26], all in their oxidized state. The substrate most often used today is silicon wafer. Gold does not establish an oxide layer and is tlierefore used chiefly for reflection studies. Also used are silver [27], gallium arsenide [27, 28] or cadmium telluride wafer [28] following special treatment. [Pg.2614]

Cadmium Telluride. Cadmium teUuride [1306-25-8] CdTe, is another promising thin film. CdTe is a well-known semiconductor often used in high performance infrared sensors. CdTe absorbs visible light very strongly, and very thin films (1—2 llm) are sufficient to absorb most sunlight. [Pg.472]

DTGS = deuterated triglycine sulfate KRS — 5 = mixed thallium bromide-iodide LT = lithium tantalate MCT = mercury cadmium telluride and OPO = optical parametric oscillator. [Pg.313]

A. J. Strauss, Proceedings of the International Symposium on Cadmium Telluride as a Materialfor Gamma-ray Detectors, 1972, p. I-l. [Pg.398]

Commercially available PV systems most often include modules made from single-crystal or poly-ciystalline silicon or from thin layers of amoiphous (non-crystalline) silicon. The thin-filni modules use considerably less semiconductor material but have lower efficiencies for converting sunlight to direct-current electricity. Cells and modules made from other thin-filni PV materials such as coppcr-indiuni-diselenide and cadmium telluride are under active development and are beginning to enter the market. [Pg.1059]

Abrasion and corrosion protection for germanium, magnesium fluoride, cadmium telluride, zinc sulfide, and zinc selenide IR windows. [Pg.211]

Commonly used II-VI compounds include zinc sulfide, zinc selenide, zinc telluride, cadmium sulfide, cadmium telluride, and mercury cadmium telluride. These materials are not as widely used as the III-V compounds, one reason being that it is difficult to achieve p-type doping. Mercury cadmium telluride is used extensively in military night sights, which detect in the 8-13 im spectral band (a similar material, platinum silicide, is being developed for that purpose). The major applications ofCVD II-VI compounds are found in photovoltaic and electroluminescent displays. [Pg.387]

Dennison S, Webster S (1992) An investigation into the effect of ionic species on the deposition of tellurium and the formation of cadmium telluride. J Electroanal Chem 333 287-298... [Pg.76]

Danaher WJ, Lyons LE (1978) Photoelectrochemical cell with cadmium telluride film. Nature 271 139-139... [Pg.143]

Lyons LE, Morris GC, Horton DH, Keyes JG (1984) Cathodically electrodeposited films of cadmium telluride. J Electroanal Chem 168 101-116... [Pg.143]

Mori E, Rajeshwar K (1989) The kinetics of electrocrystaUization of tellurium and cadmium telluride at the glassy carbon surface. J Electroanal Chem 258 415-429 Cowache P, Lincot D, Vedel J (1989) Cathodic codeposition of cadmium telluride on conducting glass. J Electrochem Soc 136 1646-1650... [Pg.143]

Saraby-Reintjes A, Peter LM, Ozsan ME, Dennison S, Webster S (1993) On the mechanism of the cathodic electrodeposition of cadmium telluride. J Electrochem Soc 140 2880-2888... [Pg.143]

Fulop G, Doty M, Meyers P, Betz J, Liu CH (1982) High-efficiency electrodeposited cadmium telluride solar cells. Appl Phys Lett 40 327-328... [Pg.150]

Fisher JM, Berlouis LEA, Sawers LJM, MacDonald SM, Affrosman S, Diskett DJ, Astles MG (1994) Growth and characterization of electrodeposited films of cadmium telluride on silicon. J Cryst Growth 138 86-93... [Pg.199]

Jackson F, Berlouis LEA, Rocabois P (1996) Layer-by-layer electrodeposition of cadmium telluride onto silicon. J Cryst Growth 159 200-204... [Pg.199]

Darkowski A, Cocivera M (1985) Electrodeposition of cadmium telluride using phosphine telluride. J Electrochem Soc 132 2768-2771. [Pg.204]

Elhs AB, Kaiser SW, Wrighton MS (1976) Optical to electrical energy conversion Cadmium telluride-based photoelectrochemical cells employing telluride/ditelluride electrolytes. J Am Chem Soc 98 6418-6420... [Pg.294]

A prime contender for leading thin film technology as applied to solar cells is cadmium telluride (CdTe). Its bandgap is almost ideal for use as a solar cell for energy conversion from the Sun s spectrum. Here, CdTe and cadmium sulfide (CdS) are used to produce a low cost thin film solar cell... [Pg.351]

Ito, S., Toitani, N., Pan, L., Tamai, N. and Miyasaka, H. (2007) Fluorescence correlation spectroscopic study on water-soluble cadmium telluride nanocrystals fast blinking dynamics in the ps-ms region. J. Phys. Condens. Matter, 19, 486208. [Pg.153]

Volume 5 Mercury Cadmium Telluride Imagers (by A. Onshage)... [Pg.403]


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Cadmium Telluride (CdTe)

Cadmium selenide telluride

Cadmium selenide telluride (CdSe

Cadmium selenide telluride, on molybdenum

Cadmium telluride , thin-film

Cadmium telluride detectors

Cadmium telluride energy bands

Cadmium telluride films

Cadmium telluride nanocrystals

Cadmium telluride nanoparticles

Cadmium telluride particles

Cadmium telluride properties

Cadmium telluride semiconductor detector

Cadmium telluride systems

Cadmium telluride, electrical

Cadmium zinc telluride

Detector cadmium zinc telluride

Mercury cadmium telluride (MCT

Mercury cadmium telluride pyroelectric

Mercury-cadmium-telluride

Mercury-cadmium-telluride detector

Photovoltaics cadmium telluride

Solar cells cadmium telluride-based

Solar cells cadmium-telluride

Tellurides

Thin-film solar cells cadmium telluride-based

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