Abstract: Disclosed are an image display method and a 3d display system. The method is adapted to the 3d display system including a 3d display device and includes the following steps. A first image and a second image are obtained by splitting an input image according to a 3d image format. Whether the input image is a 3D format image complying with the 3D image format is determined through a stereo matching processing performed on the first image and the second image. An image interweaving process is enabled to be performed on the input image to generate an interweaving image in response to determining that the input image is the 3D format image complying with the 3D image format, and the interweaving image is displayed via the 3D display device.

Abstract: A semiconductor transistor is formed as follows. A gate electrode is formed over but is insulated from a semiconductor body region. A first layer of insulating material is formed over the gate electrode and the semiconductor body region. A second layer of insulating material different from the first layer of insulating material is formed over the first layer of insulating material. Only the second layer of insulating material is etched to form spacers along the side-walls of the gate electrode. Impurities are implanted through the first layer of insulating material to form a source region and a drain region in the body region. A substantial portion of those portions of the first layer of insulting material extending over the source and drain regions is removed.

Abstract: A stack of two polysilicon layers is formed over a semiconductor body region. A DDD implant is performed to form a DDD source region in the semiconductor body region along a source side of the polysilicon stack but not along a drain side of the polysilicon stack. Off-set spacers are formed along opposing side-walls of the polysilicon stack. A source/drain implant is performed to form a drain region in the semiconductor body region along the drain side of the polysilicon stack and to form a highly doped region within the DDD source region such that the extent of an overlap between the polysilicon stack and each of the drain region and the highly doped region is inversely dependent on a thickness of the off-set spacers, and a lateral spacing directly under the polysilicon stack between adjacent edges of the DDD source region and the highly doped region is directly dependent on the thickness of the off-set spacers.

Abstract: An electrically programmable, non-volatile resistive memory includes an array of memory cells, a plurality of bit lines, and a plurality of word lines. Each memory cell comprises a resistive element and a Schottky diode coupled in series and having first and second terminals. Each bit line couples to the first terminal of all memory cells in a respective column of the array. Each word line couples to the second terminal of all memory cells in a respective row of the array. The resistive element for each memory cell may be formed with a film of a perovskite material (e.g., Pr0.7Ca0.3MnO3). The Schottky diode for each memory cell may be formed by a thin film of amorphous silicon. The films for the resistive element and Schottky diode for each memory cell may be stacked in a compact island at the cross point between a bit line and a word line.

Abstract: A stack of two polysilicon layers is formed over a semiconductor body region. A DDD implant is performed to form a DDD source region in the semiconductor body region along a source side of the polysilicon stack but not along a drain side of the polysilicon stack. Off-set spacers are formed along opposing side-walls of the polysilicon stack. A source/drain implant is performed to form a drain region in the semiconductor body region along the drain side of the polysilicon stack and to form a highly doped region within the DDD source region such that the extent of an overlap between the polysilicon stack and each of the drain region and the highly doped region is inversely dependent on a thickness of the off-set spacers, and a lateral spacing directly under the polysilicon stack between adjacent edges of the DDD source region and the highly doped region is directly dependent on the thickness of the off-set spacers.

Abstract: A non-volatile memory device includes a substrate having a first active region and a second active region. A first floating gate is provided over the first active region and having an edge, the first floating gate being made of a conductive material. A first spacer is connected to the edge of the first floating gate and being made of the same conductive material as that of the first floating gate. A control gate is provided proximate to the floating gate.

Abstract: A semiconductor transistor is formed as follows. A gate electrode is formed over but is insulated from a semiconductor body region. A first layer of insulating material is formed over the gate electrode and the semiconductor body region. A second layer of insulating material different from the first layer of insulating material is formed over the first layer of insulating material. Only the second layer of insulating material is etched to form spacers along the side-walls of the gate electrode. Impurities are implanted through the first layer of insulating material to form a source region and a drain region in the body region. A substantial portion of those portions of the first layer of insulting material extending over the source and drain regions is removed.

Abstract: A gate electrode is formed over but insulated from a semiconductor body region for each of first and second transistors. A DDD implant is carried out to from DDD source and DDD drain regions in the body region for the first transistor. After the DDD implant, off-set spacers are formed along side-walls of the gate electrode of each of the first and second transistors. After forming the off-set spacers, a LDD implant is carried out to from LDD source and drain regions in the body region for the second transistor. After the LDD implant, main spacers are formed adjacent the off-set spacers of at least the second transistor. After forming the main spacers, a source/drain implant is carried out to form a highly doped region within each of the DDD drain and source regions and the LDD drain and source regions.

Abstract: An MONOS integrated circuit device. The device has a semiconductor substrate comprising a silicon bearing material and a shallow trench isolation region formed within the substrate. A P-type well region is formed within the substrate and adjacent to the shallow trench isolation region. The first word gate comprising a first edge and a second edge. The first word gate comprises a first control gate coupled to the first edge and a second control gate coupled to the second edge. Preferably, the second word gate comprises a first edge and a second edge. The second word gate comprises a first control gate coupled to the first edge and a second control gate coupled to the second edge. A common buried bit line is formed within the P-type well region and between the second edge of the first word gate and the first edge of the second word gate.

Abstract: In accordance with an embodiment of the present invention, a semiconductor structure includes an undoped polysilicon layer, a doped polysilicon layer in contact with the undoped polysilicon layer, and an insulating layer in contact with the undoped polysilicon layer. The undoped polysilicon layer is sandwiched between the doped polysilicon layer and the insulating layer.

Abstract: A semiconductor transistor which is not capable of storing data is formed as follows. An insulating layer is formed over a silicon region. An undoped polysilicon layer is formed over and in contact with the insulating layer. A doped polysilicon layer is formed over and in contact with the undoped polysilicon layer such that at least two edges of the doped polysilicon layer vertically line up with corresponding edges of the undoped polysilicon layer to thereby form sidewalls, and the doped and undoped polysilicon layers form a gate of the transistor. After the doped polysilicon layer is formed, source and drain regions are formed in the silicon region. Dopants from the doped polysilicon layer migrate into the undoped polysilicon layer thereby doping the undoped polysilicon layer.

Abstract: A non-volatile memory device includes a substrate having a first active region and a second active region. A first floating gate is provided over the first active region and having an edge, the first floating gate being made of a conductive material. A first spacer is connected to the edge of the first floating gate and being made of the same conductive material as that of the first floating gate. A control gate is provided proximate to the floating gate.

Abstract: A gate electrode is formed over but insulated from a semiconductor body region for each of first and second transistors. A DDD implant is carried out to from DDD source and DDD drain regions in the body region for the first transistor. After the DDD implant, off-set spacers are formed along side-walls of the gate electrode of each of the first and second transistors. After forming the off-set spacers, a LDD implant is carried out to from LDD source and drain regions in the body region for the second transistor. After the LDD implant, main spacers are formed adjacent the off-set spacers of at least the second transistor. After forming the main spacers, a source/drain implant is carried out to form a highly doped region within each of the DDD drain and source regions and the LDD drain and source regions.

Abstract: A non-volatile memory device includes a substrate having a first active region and a second active region. A first floating gate is provided over the first active region and having an edge, the first floating gate being made of a conductive material. A first spacer is connected to the edge of the first floating gate and being made of the same conductive material as that of the first floating gate. A control gate is provided proximate to the floating gate.

Abstract: A method of erasing a non-volatile memory includes applying a first potential of first polarity to a control gate; applying a second potential of second polarity to a bulk region, the second potential being an N magnitude; and applying a third potential of second polarity to a source region, the third potential being an M magnitude, wherein the N and M are substantially the same.

Abstract: A gate electrode is formed over but is insulated from a semiconductor body region for each of first and second transistors. Off-set spacers are formed along side-walls of the gate electrode of each of the first and second transistors. After forming the off-set spacers, a DDD implant is performed to form DDD source and DDD drain regions in the body region for the first transistor. After the DDD implant, main spacers are formed adjacent the off-set spacers of at least the first transistor. A LDD implant is performed to form LDD source and LDD drain regions for the second transistor. After forming the main spacers, a source/drain (S/D) implant is carried out to form a highly doped region within each of the DDD drain and DDD source regions and each of the LDD drain and LDD source regions.

Abstract: In accordance with an embodiment of the present invention, a semiconductor structure includes an undoped polysilicon layer, a doped polysilicon layer in contact with the undoped polysilicon layer, and an insulating layer in contact with the undoped polysilicon layer. The undoped polysilicon layer is sandwiched between the doped polysilicon layer and the insulating layer.

Abstract: Structures and methods for flash memory transistors are formed with self-aligned drain/source contacts. The flash transistors are formed with a plurality of gate layers. An etch resistant layer(s) are deposited on top of the gate layers in the memory array transistors and on the gate layers of peripheral transistors. An additional oxide layer/spacer may be formed on the etch resistant layer to control the resulting transistor junction configuration. As a result within the same process various transistors may be formed satisfying various requirements. Contact holes to the drain and source regions of the memory and peripheral transistors are then formed. The etch resistant layer prevents the contact etchants from completely etching away the protective etch resistant layer surrounding the gate layers. The spacing between the drain/source contacts and the gate layers can be greatly reduced increasing the density of the memory array transistors and reducing chip size.

Abstract: A gate electrode is formed over but is insulated from a semiconductor body region for each of first and second transistors. Off-set spacers are formed along side-walls of the gate electrode of each of the first and second transistors. After forming the off-set spacers, a DDD implant is performed to form DDD source and DDD drain regions in the body region for the first transistor. After the DDD implant, main spacers are formed adjacent the off-set spacers of at least the first transistor. A LDD implant is performed to form LDD source and LDD drain regions for the second transistor. After forming the main spacers, a source/drain (S/D) implant is carried out to form a highly doped region within each of the DDD drain and DDD source regions and each of the LDD drain and LDD source regions.

Abstract: A non-volatile memory cell includes a first insulating layer over a substrate region, and a floating gate. The floating gate includes a first polysilicon layer over the first insulating layer and a second polysilicon layer over and in contact with the first polysilicon layer. The first polysilicon layer has a predetermined doping concentration and the second polysilicon layer has a doping concentration which decreases in a direction away from an interface between the first and second polysilicon layers. A second insulating layer overlies and is in contact with the second polysilicon layer. A control gate includes a third polysilicon layer over and in contact with the second insulating layer, and a fourth polysilicon layer over and in contact with the third polysilicon layer. The fourth polysilicon layer has a predetermined doping concentration, and the third polysilicon layer has a doping concentration which decreases in a direction away from an interface between the third and fourth polysilicon layers.