Abstract:
A memory device and a manufacturing method of the same are provided. The memory device includes a substrate, a 3D memory array, a periphery circuit, and a conductive connection structure. The 3D memory array and the periphery circuit are stacked on the substrate. The periphery circuit includes a patterned metal layer and a contact structure electrically connected to the patterned metal layer. The conductive connection structure is electrically connected to the patterned metal layer. The 3D memory array is electrically connected to the periphery circuit via the conductive connection structure.
Abstract:
A semiconductor device includes a plurality of active strips, where active strips in the plurality are coupled together at one end by a pad and terminated at another end by a conductive line. The device includes memory cells at cross-points between the plurality of active strips and a plurality of word lines. The device includes string select structures arranged in an interlaced configuration as side gates for active strips. The device includes control circuitry, configured to turn on a particular active strip by applying a turn-on voltage to two string select structures arranged as side gates for the particular active strip, and to turn off a second particular active strip by applying a turn-off bias to at least one string select structure arranged as a side gate for the second particular active strip. The turn-off bias includes one of a ground voltage, a non-negative voltage, and a floating condition.
Abstract:
A three-dimensional (3D) memory and a method for manufacturing the same are disclosed. According to one embodiment, the 3D memory comprises a thin-film transistor. The thin-film transistor has a source region and a drain region disposed separately. The source region comprises a first source region and a second source region disposed between the first source region and the drain region. The first source region is p-type of doping, the second source region is n-type of doping, and the drain region is n-type of doping.
Abstract:
A memory device and a manufacturing method of the same are provided. The memory device includes a substrate, a 3D memory array, a periphery circuit, and a conductive connection structure. The 3D memory array and the periphery circuit are stacked on the substrate. The periphery circuit includes a patterned metal layer and a contact structure electrically connected to the patterned metal layer. The conductive connection structure is electrically connected to the patterned metal layer. The 3D memory array is electrically connected to the periphery circuit via the conductive connection structure.
Abstract:
A semiconductor structure and a method for manufacturing the same are provided. The method comprises following steps. A first silicon-containing conductive material is formed on a substrate. A second silicon-containing conductive material is formed on the first silicon-containing conductive material. The first silicon-containing conductive material and the second silicon-containing conductive material have different dopant conditions. The first silicon-containing conductive material and the second silicon-containing conductive material are thermally oxidized for turning the first silicon-containing conductive material wholly into an insulating oxide structure, and the second silicon-containing conductive material into a silicon-containing conductive structure and an insulating oxide layer.
Abstract:
A 3D memory device includes an improved dual gate memory cell. The improved dual gate memory cell has a channel body with opposing first and second side surfaces, charge storage structures on the first and second side surfaces, and a gate structure overlying the charge storage structures on both the first and second side surfaces. The channel body has a depth between the first and second side surfaces less than a threshold channel body depth, combined with the gate structure which establishes an effective channel length of the cell greater than a threshold length. The combination of the channel body depth and effective channel length are related so that the cell channel body can be fully depleted, and sub-threshold leakage current can be suppressed when the memory cell has a high threshold state under a read bias.
Abstract:
A semiconductor structure and a method for manufacturing the same are provided. The method comprises following steps. A first silicon-containing conductive material is formed on a substrate. A second silicon-containing conductive material is formed on the first silicon-containing conductive material. The first silicon-containing conductive material and the second silicon-containing conductive material have different dopant conditions. The first silicon-containing conductive material and the second silicon-containing conductive material are thermally oxidized for turning the first silicon-containing conductive material wholly into an insulating oxide structure, and the second silicon-containing conductive material into a silicon-containing conductive structure and an insulating oxide layer.
Abstract:
A three-dimensional (3D) memory and a method for manufacturing the same are disclosed. According to one embodiment, the 3D memory comprises a thin-film transistor. The thin-film transistor has a source region and a drain region disposed separately. The source region comprises a first source region and a second source region disposed between the first source region and the drain region. The first source region is p-type of doping, the second source region is n-type of doping, and the drain region is n-type of doping.
Abstract:
A method of forming an interlayer conductor structure. The method includes forming a stack of semiconductor pads coupled to respective active layers for a circuit. The semiconductor pads include outside perimeters each having one side coupled to a respective active layer. Impurities are implanted along the outside perimeters to form outside lower resistance regions on the pads. Openings are then formed in the stack of the semiconductor pads to expose a landing area for interlayer conductors on a corresponding semiconductor pad and to define an inside perimeter on at least one of the semiconductor pads. Inside lower resistance regions are formed along the inside perimeters by implanting impurities for interlayer conductor contacts and configured to overlap and be continuous with the corresponding outside lower resistance region.
Abstract:
A method of forming an interlayer conductor structure. The method includes forming a stack of semiconductor pads coupled to respective active layers for a circuit. The semiconductor pads include outside perimeters each having one side coupled to a respective active layer. Impurities are implanted along the outside perimeters to form outside lower resistance regions on the pads. Openings are then formed in the stack of the semiconductor pads to expose a landing area for interlayer conductors on a corresponding semiconductor pad and to define an inside perimeter on at least one of the semiconductor pads. Inside lower resistance regions are formed along the inside perimeters by implanting impurities for interlayer conductor contacts and configured to overlap and be continuous with the corresponding outside lower resistance region.