Abstract:
A light emitting device comprises a gate electrode (101), a channel (103) comprising a molecule for electrically stimulated optical emission, wherein the molecule is disposed within an effective range of the gate electrode (101), a source (104) coupled to a first end of the channel injecting electrons into the channel, and a drain (105) coupled to a second end of the channel injecting holes into the channel.
Abstract:
PROBLEM TO BE SOLVED: To provide a ferroelectric gate field-effect tranisistor and a nonvolatile memory architecture, formed using it. SOLUTION: A vertical ferroelectric gate field-effect transistor (FeGFET) is provided with a substrate and a first drain/source electrode formed on the top surface of the substrate. A conductive channel region is formed on the top surface of the first drain/source electrode, and electrically connected to it. The FeGFET device is further provided with a ferroelectric gate region formed on at least one sidewall of the channel region, at least one gate electrode electrically contacting the ferroelectric gate region, and a second drain/source electrode, formed on the top surface of the channel region and electrically contacts the channel region. The ferroelectric gate region can be selectively polarized, depending on the potential supplied between the gate electrode and at least one of first and second drain/source electrode. A nonvolatile memory array, provided with a plurality of FeGFET device, is formed. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide an oxide channel FET structure for incorporating a buried oxide channel by incorporating conductive metallic oxide electrodes for buried source and drain electrodes. SOLUTION: A method for constructing the oxide electrodes for use in an oxide channel field-effect transistor (OxFET) device is disclosed. The electrodes are formed by first depositing a double layer 130 and 140 of conducting perovskite oxides onto an insulating oxide substrate. A resist pattern with the electrode configuration is then defined over the double layer. The top oxide layer is ion milled to a depth without reaching the substrate. Chemical etching of RIE is used to remove the part of the lower conductive oxide layer. The source and drain electrodes are thereby defined, which can be then used as buried contacts. COPYRIGHT: (C)2003,JPO
Abstract:
A light emitting device comprises a gate electrode (101), a channel (103) comprising a molecule for electrically stimulated optical emission, wherein the molecule is disposed within an effective range of the gate electrode (101), a source (104) coupled to a first end of the channel injecting electrons into the channel, and a drain (105) coupled to a second end of the channel injecting holes into the channel.
Abstract:
A light emitting device comprises a gate electrode, a channel comprising a molecule for electrically stimulated optical emission, wherein the molecule is disposed within an effective range of the gate electrode, a source coupled to a first end of the channel injecting electrons into the channel, and a drain coupled to a second end of the channel injecting holes into the channel.
Abstract:
A light emitting device comprises a gate electrode, a channel comprising a molecule for electrically stimulated optical emission, wherein the molecule is disposed within an effective range of the gate electrode, a source coupled to a first end of the channel injecting electrons into the channel, and a drain coupled to a second end of the channel injecting holes into the channel.