Abstract: A memory cell includes a vertically oriented transistor having an elevationally outer source/drain region, an elevationally inner source/drain region, and a channel region elevationally between the inner and outer source/drain regions. The inner source/drain region has opposing laterally outer sides. One of a pair of data/sense lines is electrically coupled to and against one of the outer sides of the inner source/drain region. The other of the pair of data/sense lines is electrically coupled to and against the other of the outer sides of the inner source/drain region. An access gate line is elevationally outward of the pair of electrically coupled data/sense lines and is operatively adjacent the channel region. A charge storage device is electrically coupled to the outer source/drain region. Other embodiments and additional aspects, including methods, are disclosed.

Abstract: A memory cell includes a vertically oriented transistor having an elevationally outer source/drain region, an elevationally inner source/drain region, and a channel region elevationally between the inner and outer source/drain regions. The inner source/drain region has opposing laterally outer sides. One of a pair of data/sense lines is electrically coupled to and against one of the outer sides of the inner source/drain region. The other of the pair of data/sense lines is electrically coupled to and against the other of the outer sides of the inner source/drain region. An access gate line is elevationally outward of the pair of electrically coupled data/sense lines and is operatively adjacent the channel region. A charge storage device is electrically coupled to the outer source/drain region. Other embodiments and additional aspects, including methods, are disclosed.

Abstract: The present invention proposes the use of a silicon nitride layer on top of a second conductive layer. After a step of etching a second conductive layer, an oxide spacer is formed to define a gap. Then, another silicon nitride layer fills up the gap. After that, the oxide spacer is removed. Later, a first conductive layer is etched to separate the digit line to cell contact line.

Abstract: A DRAM structure with buried word lines is described, including a semiconductor substrate, cell word lines buried in the substrate and separated from the same by a first gate dielectric layer, and isolation word lines buried in the substrate and separated from the same by a second gate dielectric layer. The top surfaces of the cell word lines and those of the isolation word lines are lower than the top surface of the substrate. The bottom surfaces of the isolation word lines are lower than those of the cell word lines.

Abstract: A memory cell includes a vertically oriented transistor having an elevationally outer source/drain region, an elevationally inner source/drain region, and a channel region elevationally between the inner and outer source/drain regions. The inner source/drain region has opposing laterally outer sides. One of a pair of data/sense lines is electrically coupled to and against one of the outer sides of the inner source/drain region. The other of the pair of data/sense lines is electrically coupled to and against the other of the outer sides of the inner source/drain region. An access gate line is elevationally outward of the pair of electrically coupled data/sense lines and is operatively adjacent the channel region. A charge storage device is electrically coupled to the outer source/drain region. Other embodiments and additional aspects, including methods, are disclosed.

Abstract: One embodiment relates to an integrated circuit formed on a semiconductor body having interconnect between source/drain regions of a first and second transistor. The interconnect includes a metal body arranged underneath the surface of the semiconductor body. A contact element establishes electrical contact between the metal body and the source/drain regions of the first and second transistor. The contact element extends along a connecting path between the source/drain regions of the first and second transistors. Other methods, devices, and systems are also disclosed.

Abstract: In one embodiment, a memory cell includes a bit line arranged in a semiconductor substrate and a bit line contact region arranged adjacent the bit line. A word line is arranged above the bit line contact region in a trench formed in the semiconductor substrate. A generally U-shaped insulating layer is arranged in a bottom region of the trench and separates the bit line and the bit line contact region from the word line.

Abstract: An integrated circuit is manufactured from a semiconductor substrate having trenches with first and second sidewalls facing each other and a conductive line arranged in a bottom region of the trenches. At least the bottom region of the trenches is lined with an insulative material between the conductive line and the substrate. A first sacrificial layer is formed above the conductive line adjacent the first and second sidewalls. The trenches are filled with one or more additional sacrificial layers having a different etch selectivity than the first sacrificial layer. A portion of the one or more additional sacrificial layers and a portion of the insulative material are selectively removed to the first sacrificial layer so that the substrate is exposed below the first sacrificial layer along the first trench sidewalls and covered by the insulative material along the second trench sidewalls.

Abstract: One embodiment relates to an integrated circuit formed on a semiconductor body having interconnect between source/drain regions of a first and second transistor. The interconnect includes a metal body arranged underneath the surface of the semiconductor body. A contact element establishes electrical contact between the metal body and the source/drain regions of the first and second transistor. The contact element extends along a connecting path between the source/drain regions of the first and second transistors. Other methods, devices, and systems are also disclosed.

Abstract: In one embodiment, a memory cell includes a bit line arranged in a semiconductor substrate and a bit line contact region arranged adjacent the bit line. A word line is arranged above the bit line contact region in a trench formed in the semiconductor substrate. A generally U-shaped insulating layer is arranged in a bottom region of the trench and separates the bit line and the bit line contact region from the word line.

Abstract: An integrated circuit having an active semiconductor device is formed comprising a trench defined by conductor lines previously formed.

Abstract: The present invention provides a method for forming a recessed channel transistor comprising the steps of: forming a plurality of active areas lines in a semiconductor substrate with an upper surface, said lines being segmented by segmentation structures having an upper surface height differing from the substrate surface; forming a first and a second extension region arranged above the active area and adjacent said segmentation structures; forming recessed channel devices in the active area segments in the remaining portion of the active area segment between said extension regions.

Abstract: A memory cell array having a plurality of memory cells is disclosed. In one embodiment, each memory cell includes a storage capacitor and an access transistor, a plurality of bit lines orientated in a first direction, a plurality of word lines orientated in a second direction, the second direction being perpendicular to the first direction, a semiconductor substrate with a surface, a plurality of active areas being formed in the semiconductor substrate, each active area extending in the second direction, the access transistors being partially formed in the active areas and electrically coupling corresponding ones of the storage capacitors to corresponding bit lines, wherein a gate electrode of each of the access transistors is connected with a corresponding word line, a capacitor dielectric of the storage capacitor has a relative dielectric constant of more than 8, and the word lines are disposed above the bit lines.

Abstract: In a method for producing a semiconductor structure a semiconductor a substrate with a top surface is provided. A gate dielectric layer is provided on the top surface and on the gate dielectric layer is provided a memory cell array region with a first plurality of gate stacks and a peripheral element region with a second plurality of gate stacks. A dielectric layer is provided over the memory cell array region and the peripheral element region. A first source/drain implantation over the memory cell array region and the peripheral element region is carried out, a blocking mask over the memory cell array region is formed, the dielectric layer is removed using the blocking mask, and a second source/drain implantation over the memory cell array region and the peripheral element region is carried out, wherein the memory cell array region is protected by a mask.

Abstract: An integrated circuit includes a memory cell array comprising memory cells with a transistor. The transistors are formed in active areas. The memory cell array further includes bit lines oriented in a first direction and word lines oriented in a second direction. The active areas extend in the second direction. The bottom side of each gate electrode of the transistors is disposed under the bottom side of each word line. In addition, the word lines are disposed over the bit lines.

Abstract: A memory cell array includes memory cells with storage capacitor and an access transistor. The access transistors are formed in active areas. The memory cell array further includes bit lines oriented in a first direction and word lines oriented in a second direction. The active areas extend in the second direction. The bottom side of each gate electrode of the transistors is disposed beneath the bottom side of each word line. In addition, the word lines are disposed above the bit lines.

Abstract: The present invention provides a manufacturing method for an integrated semiconductor structure and a corresponding integrated semiconductor structure.

Abstract: A method for manufacturing a surface strap connection between a trench capacitor and a selection transistor includes providing a masking material on a surface of a semiconductor substrate in areas where no trench capacitors have been formed. An undoped semiconductor layer having vertical and horizontal areas is applied. An oblique ion implantation is performed such that a vertical area of the semiconductor layer on which the connecting structure is to be formed is not doped. After removal of the undoped portion of the semiconductor layer, the exposed portion of the masking material is laterally etched, one part of the substrate surface is exposed, and the doped part of the semiconductor layer is removed. An electrically conducting connection material is applied so that an electrical contact exists between the exposed portion of the substrate surface and the storage electrode.

Abstract: A connecting structure connects a storage electrode of a trench capacitor and a selection transistor that are at least partially formed in a semiconductor substrate. The connecting structure includes a portion of an intermediate layer disposed adjacent to a surface of the storage electrode, and an electrically conducting material disposed adjacent to the intermediate layer and electrically connected to a semiconductor substrate surface portion adjacent to the selection transistor, wherein a part of the connecting structure is disposed above the semiconductor substrate surface so as to be adjacent to a horizontal substrate surface portion.

Abstract: A memory cell array includes memory cells with storage capacitor and an access transistor. The access transistors are formed in active areas. The memory cell array further includes bit lines oriented in a first direction and word lines oriented in a second direction. The active areas extend in the second direction. The bottom side of each gate electrode of the transistors is disposed beneath the bottom side of each word line. In addition, the word lines are disposed above the bit lines.