Abstract: A semiconductor device includes a field effect transistor including: a semiconductor substrate including a channel forming region; a gate insulating film formed at the channel forming region on the semiconductor substrate; a gate electrode formed over the gate insulating film; a first stress application layer formed over the gate electrode and applying stress to the channel forming region; a source/drain region formed on a surface layer portion of the semiconductor substrate at both sides of the gate electrode and the first stress application layer; and a second stress application layer formed over the source/drain region in a region other than at least a region of the first stress application layer and applying stress different from the first stress application layer to the channel forming region.

Abstract: A semiconductor device includes a field effect transistor including: a semiconductor substrate including a channel forming region; a gate insulating film formed at the channel forming region on the semiconductor substrate; a gate electrode formed over the gate insulating film; a first stress application layer formed over the gate electrode and applying stress to the channel forming region; a source/drain region formed on a surface layer portion of the semiconductor substrate at both sides of the gate electrode and the first stress application layer; and a second stress application layer formed over the source/drain region in a region other than at least a region of the first stress application layer and applying stress different from the first stress application layer to the channel forming region.

Abstract: A semiconductor device includes a field effect transistor including: a semiconductor substrate including a channel forming region; a gate insulating film formed at the channel forming region on the semiconductor substrate; a gate electrode formed over the gate insulating film; a first stress application layer formed over the gate electrode and applying stress to the channel forming region; a source/drain region formed on a surface layer portion of the semiconductor substrate at both sides of the gate electrode and the first stress application layer; and a second stress application layer formed over the source/drain region in a region other than at least a region of the first stress application layer and applying stress different from the first stress application layer to the channel forming region.

Abstract: A semiconductor device including a channel region formed in a semiconductor substrate; a source region formed on one side of the channel region; a drain region formed on the other side of the channel region; a gate electrode formed on the channel region with a gate insulating film therebetween; and a stress-introducing layer that applies stress to the channel region, the semiconductor device having a stress distribution in which source region-side and drain region-side peaks are positioned between a pn junction boundary of the channel region and the source region and a pn junction boundary of the channel region and the drain region.

Abstract: A vertically alternating sequence of multi-fingered silicon-germanium layers and multi-fingered silicon layers is formed over a substrate. The multi-fingered silicon-germanium layers include silicon-germanium wires, and the multi-fingered silicon layers include silicon wires. Tubular memory films and multi-fingered gate electrodes are formed. Each gate electrode includes a respective gate electrode bar which overlies the silicon wires and a respective set of vertically-extending gate electrode fingers which is adjoined to a bottom portion of the respective gate electrode bar and spaced apart by the silicon wires. The multi-fingered silicon-germanium layers are removed selective to multi-fingered silicon layers. First active regions are formed at an end portion of each of the silicon wires. Second active regions are formed on silicon plate portions of the multi-fingered silicon layers.

Abstract: A vertically alternating sequence of multi-fingered silicon-germanium layers and multi-fingered silicon layers is formed over a substrate. The multi-fingered silicon-germanium layers include silicon-germanium wires, and the multi-fingered silicon layers include silicon wires. Tubular memory films and multi-fingered gate electrodes are formed. Each gate electrode includes a respective gate electrode bar which overlies the silicon wires and a respective set of vertically-extending gate electrode fingers which is adjoined to a bottom portion of the respective gate electrode bar and spaced apart by the silicon wires. The multi-fingered silicon-germanium layers are removed selective to multi-fingered silicon layers. First active regions are formed at an end portion of each of the silicon wires. Second active regions are formed on silicon plate portions of the multi-fingered silicon layers.

Abstract: A memory device includes first conductive rails laterally extending along a first horizontal direction over a substrate, where the first conductive rails include a fill portion, and a first cobalt-containing cap liner contacting a top surface of the fill portion, a rectangular array of first memory pillar structures overlying top surfaces of the first conductive rails, where each first memory pillar structure includes a respective first resistive memory element, and second conductive rails laterally extending along a second horizontal direction and overlying top surfaces of the rectangular array of first memory pillar structures.

Abstract: A semiconductor device including a channel region formed in a semiconductor substrate; a source region formed on one side of the channel region; a drain region formed on the other side of the channel region; a gate electrode formed on the channel region with a gate insulating film therebetween; and a stress-introducing layer that applies stress to the channel region, the semiconductor device having a stress distribution in which source region-side and drain region-side peaks are positioned between a pn junction boundary of the channel region and the source region and a pn junction boundary of the channel region and the drain region.

Abstract: A semiconductor device including a channel region formed in a semiconductor substrate; a source region formed on one side of the channel region; a drain region formed on the other side of the channel region; a gate electrode formed on the channel region with a gate insulating film therebetween; and a stress-introducing layer that applies stress to the channel region, the semiconductor device having a stress distribution in which source region-side and drain region-side peaks are positioned between a pn junction boundary of the channel region and the source region and a pn junction boundary of the channel region and the drain region.

Abstract: A memory device includes first conductive rails laterally extending along a first horizontal direction over a substrate, where the first conductive rails include a fill portion, and a first cobalt-containing cap liner contacting a top surface of the fill portion, a rectangular array of first memory pillar structures overlying top surfaces of the first conductive rails, where each first memory pillar structure includes a respective first resistive memory element, and second conductive rails laterally extending along a second horizontal direction and overlying top surfaces of the rectangular array of first memory pillar structures.

Abstract: A memory device includes first conductive rails laterally extending along a first horizontal direction over a substrate, a rectangular array of first memory pillar structures, each containing a memory element, overlying top surfaces of the first conductive rails, second conductive rails laterally extending along a second horizontal direction and overlying top surfaces of the rectangular array of first memory pillar structures, and a one-dimensional array of first cavities free of solid material portions therein, laterally extending along the second horizontal direction and located between neighboring pairs of the second conductive rails.

Abstract: A memory device includes first conductive rails laterally extending along a first horizontal direction over a substrate, a rectangular array of first memory pillar structures, each containing a memory element, overlying top surfaces of the first conductive rails, second conductive rails laterally extending along a second horizontal direction and overlying top surfaces of the rectangular array of first memory pillar structures, and a one-dimensional array of first cavities free of solid material portions therein, laterally extending along the second horizontal direction and located between neighboring pairs of the second conductive rails.

Abstract: A semiconductor device including a channel region formed in a semiconductor substrate; a source region formed on one side of the channel region; a drain region formed on the other side of the channel region; a gate electrode formed on the channel region with a gate insulating film therebetween; and a stress-introducing layer that applies stress to the channel region, the semiconductor device having a stress distribution in which source region-side and drain region-side peaks are positioned between a pn junction boundary of the channel region and the source region and a pn junction boundary of the channel region and the drain region.

Abstract: A semiconductor device including a channel region formed in a semiconductor substrate; a source region formed on one side of the channel region; a drain region formed on the other side of the channel region; a gate electrode formed on the channel region with a gate insulating film therebetween; and a stress-introducing layer that applies stress to the channel region, the semiconductor device having a stress distribution in which source region-side and drain region-side peaks are positioned between a pn junction boundary of the channel region and the source region and a pn junction boundary of the channel region and the drain region.

Abstract: A semiconductor device includes a field effect transistor including: a semiconductor substrate including a channel forming region; a gate insulating film formed at the channel forming region on the semiconductor substrate; a gate electrode formed over the gate insulating film; a first stress application layer formed over the gate electrode and applying stress to the channel forming region; a source/drain region formed on a surface layer portion of the semiconductor substrate at both sides of the gate electrode and the first stress application layer; and a second stress application layer formed over the source/drain region in a region other than at least a region of the first stress application layer and applying stress different from the first stress application layer to the channel forming region.

Abstract: A method for fabricated a buried recessed access device comprising etching a plurality of gate trenches in a substrate, implanting and activating a source/drain region in the substrate, depositing a dummy gate in each of the plurality of gate trenches, filling the plurality of gate trenches with an oxide layer, removing each dummy gate and depositing a high-K dielectric in the plurality of gate trenches, depositing a metal gate on the high-K dielectric in each of the plurality of gate trenches, depositing a second oxide layer on the metal gate and forming a contact on the source/drain.

Abstract: A semiconductor device including a channel region formed in a semiconductor substrate; a source region formed on one side of the channel region; a drain region formed on the other side of the channel region; a gate electrode formed on the channel region with a gate insulating film therebetween; and a stress-introducing layer that applies stress to the channel region, the semiconductor device having a stress distribution in which source region-side and drain region-side peaks are positioned between a pn junction boundary of the channel region and the source region and a pn junction boundary of the channel region and the drain region.

Abstract: A semiconductor device including a channel region formed in a semiconductor substrate; a source region formed on one side of the channel region; a drain region formed on the other side of the channel region; a gate electrode formed on the channel region with a gate insulating film therebetween; and a stress-introducing layer that applies stress to the channel region, the semiconductor device having a stress distribution in which source region-side and drain region-side peaks are positioned between a pn junction boundary of the channel region and the source region and a pn junction boundary of the channel region and the drain region.

Abstract: Some embodiments include a construction having a second semiconductor material over a first semiconductor material. A region of the second semiconductor material proximate the first semiconductor material has strain due to different lattice characteristics of the first and second semiconductor materials. A transistor gate extends downwardly into the second semiconductor material. Gate dielectric material is along sidewalls and a bottom of the transistor gate. Source/drain regions are along the sidewalls of the transistor gate, and the gate dielectric material is between the source/drain regions and the transistor gate. A channel region extends between the source/drain regions and is under the bottom of the transistor gate. At least some of the channel region is within the strained region.

Abstract: A method for fabricated a buried recessed access device comprising etching a plurality of gate trenches in a substrate, implanting and activating a source/drain region in the substrate, depositing a dummy gate in each of the plurality of gate trenches, filling the plurality of gate trenches with an oxide layer, removing each dummy gate and depositing a high-K dielectric in the plurality of gate trenches, depositing a metal gate on the high-K dielectric in each of the plurality of gate trenches, depositing a second oxide layer on the metal gate and forming a contact on the source/drain.