Electron ejection processes at insulator-semiconductor interfaces in ACTFEL display devices

Luminance, conduction current and threshold voltage of ZnS:Mn ac thin film electroluminescent display devices were measured as functions of device temperature (10 K-300 K) and risetime of the excitation voltage pulse (2 /spl mu/s-50 /spl mu/s). Results provided insight into the electron ejection mec...

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Veröffentlicht in:IEEE transactions on electron devices 1995-10, Vol.42 (10), p.1756-1762
Hauptverfasser: Bhaskaran, S., Singh, V.P., Morton, D.C.
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container_title IEEE transactions on electron devices
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creator Bhaskaran, S.
Singh, V.P.
Morton, D.C.
description Luminance, conduction current and threshold voltage of ZnS:Mn ac thin film electroluminescent display devices were measured as functions of device temperature (10 K-300 K) and risetime of the excitation voltage pulse (2 /spl mu/s-50 /spl mu/s). Results provided insight into the electron ejection mechanism at the insulator-phosphor interfaces. It was found that the distribution of interface state electrons at the beginning of the excitation voltage pulse varied substantially with device temperature. Pure tunneling is thought to be the dominant electron ejection mechanism at the beginning of the voltage pulse while phonon-assisted tunneling is responsible for altering the interface electron distribution during the interval between the pulses. A delay of several microseconds was observed in the build up of the transferred charge. It is attributed to the relatively small population of electrons available at the insulator-phosphor interface.< >
doi_str_mv 10.1109/16.464422
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source IEEE Electronic Library (IEL)
subjects Current measurement
Displays
Electroluminescent devices
Electrons
Insulation
Pulse measurements
Temperature
Thin film devices
Threshold voltage
Tunneling
title Electron ejection processes at insulator-semiconductor interfaces in ACTFEL display devices
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