Other
Scientific paper
Nov 1989
adsabs.harvard.edu/cgi-bin/nph-data_query?bibcode=1989stan.reptx....s&link_type=abstract
Final Report, 1 Oct. 1987 - 30 Nov. 1989 Stanford Univ., CA. Dept. of Electrical Engineering.
Other
Electron Mobility, Energy Gaps (Solid State), Infrared Detectors, Ion Implantation, Laser Annealing, Mercury Cadmium Tellurides, Semiconductor Junctions, Absorptivity, Backscattering, Nonlinear Systems, Permittivity, Photolithography, Thermal Radiation, Tunable Lasers
Scientific paper
Mercury cadmium telluride (MCT) has been extensively studied over the past thirty years, primarily as an optical detector material for the mid and far infrared. Researchers have also shown interest in other potential uses for the material such as optical communication devices, tunable lasers, and nonlinear optical devices. The properties that make the alloy semiconductor MCT particularly suited for infrared detection include an energy gap that can be adjusted from a value of -0.3 eV for the semimetal HgTe to 1.6 eV for CdTe and a direct energy gap over all values of composition. The direct energy gap gives the material a large absorption coefficient which means that the detector needs to be only several microns thick to absorb all the radiation of interest. It thus lends itself readily to production-line processing utilizing standard photolithographic techniques. Additional favorable properties include a very high electron mobility, a high electron-to-hole mobility ratio, and a fairly low dielectric constant.
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