Abstract: The present disclosure generally relates to semiconductor structures and, more particularly, to gate cut structures and methods of manufacture. The structure includes: a plurality of gate structures comprising source and drain regions and sidewall spacers comprised of different dielectric materials; and contacts connecting to the source and drain regions and isolated from the gate structures by the different dielectric materials.

Abstract: An integrated circuit (IC) includes an active area including at least one active fin-type field effect transistor (FinFET), and a trench isolation adjacent to the active area. At least one inactive gate is positioned over the trench isolation. A vertically extending resistor body is positioned adjacent the at least one inactive gate over the trench isolation. A lower end of the resistor is below an upper surface of the trench isolation. The resistor reduces interconnect layer thickness to improve yield, and significantly reduces resistor footprint to enable scaling.

Abstract: A system and method of automatically assigning a priority rank to messages. The system and method accesses a message data store and assigns a priority rank to each message. The priority rank is selected from a priority rank scale by, for each message, parsing the message for features present in the message and calculating a predicted intensity score for the message using a user-specific classifier. The classifier is trained from user training data which includes prior user messages on which a machine learning algorithm operates. The training data is labeled by scores calculated based on the actual activates performed by the user to each message. The priority rank of each message can be used to improve message processing in message processing systems.

Abstract: Methods of forming a gate cut isolation for an SRAM include forming a first and second active nanostructures adjacent to each other and separated by a space; forming a sacrificial liner over at least a side of the first active nanostructure facing the space, causing a first distance between a remaining portion of the space and the first active nanostructure to be greater than a second distance between the remaining portion of the space and the second active nanostructure. A gate cut isolation is formed in the remaining portion of the space such that it is closer to the second active nanostructure than the first active nanostructure. The sacrificial liner is removed, and gates formed over the active nanostructures with the gates separated from each other by the gate cut isolation. An SRAM including the gate cut isolation and an IC structure including the SRAM are also included.

Abstract: The present disclosure generally relates to semiconductor device fabrication and integrated circuits. More particularly, the present disclosure relates to replacement metal gate processes and structures for transistor devices having a short channel and a long channel component. The present disclosure also relates to processes and structures for multi-gates with dissimilar threshold voltages.

Abstract: The present disclosure relates to semiconductor structures and, more particularly, to a scaled gate contact and source/drain cap and methods of manufacture. The structure includes: a gate structure comprising an active region; source and drain contacts adjacent to the gate structure; a capping material over the source and drain contacts; a gate contact formed directly above the active region of the gate structure and over the capping material; a U-shape dielectric material around the gate contact, above the source and drain contacts; and a contact in direct electrical contact to the source and drain contacts.

Abstract: A device including a triple-layer EPI stack including SiGe, Ge, and Si, respectively, with Ga confined therein, and method of production thereof. Embodiments include an EPI stack including a SiGe layer, a Ge layer, and a Si layer over a plurality of fins, the EPI stack positioned between and over a portion of sidewall spacers, wherein the Si layer is a top layer capping the Ge layer, and wherein the Ge layer is a middle layer capping the SiGe layer underneath; and a Ga layer in a portion of the Ge layer between the SiGe layer and the Si layer.

Abstract: A method is provided for fabricating a semiconductor device structure with a short channel and long channel component having different gate dielectric layers without using lithography processes or masks. The method includes forming first and second openings having sidewalls and bottom surfaces in a dielectric layer, the first opening being narrower than the second opening. A first material layer is formed in the first and second openings. A protective layer is formed over the first material layer, wherein the protective layer covers the sidewalls and the bottom surface of the second opening. A block layer is formed to fill the second opening and cover the protective layer therein. The method further includes removing side portions of the protective layer to expose upper portions of the first material layer in the second opening. The block layer is removed from the second opening to expose the protective layer remaining in the second opening.

Abstract: One illustrative integrated circuit product disclosed herein includes a vertically oriented semiconductor (VOS) structure positioned above a semiconductor substrate, a conductive silicide vertically oriented e-fuse positioned along at least a portion of a vertical height of the VOS structure wherein the conductive silicide vertically oriented e-fuse comprises a metal silicide material that extends through at least a portion of an entire lateral width of the VOS structure, and a conductive metal silicide region in the semiconductor substrate that is conductively coupled to the conductive silicide vertically oriented e-fuse.

Abstract: One integrated circuit product disclosed herein includes a first final gate structure for a first transistor device, a second final gate structure for a second transistor device, wherein the first and second transistor devices have a gate width that extends in a gate width direction and a gate length that extends in a gate length direction, and a gate separation structure positioned between the first and second final gate structures, the gate separation structure comprising at least one insulating material. The gate separation structure further has a substantially uniform width in the gate width direction for substantially an entire vertical height of the gate separation structure and a first side surface and a second side surface, wherein an end surface of the first final gate structure contacts the first side surface and an end surface of the second final gate structure contacts the second side surface.

Abstract: In the manufacture of a FinFET device, an isolation architecture is provided between gate and source/drain contact locations. The isolation architecture may include a low-k spacer layer and a contact etch stop layer. An upper portion of the isolation architecture is removed and replaced with a high-k, etch-selective spacer layer adapted to resist degradation during an etch to open the source/drain contact locations. The high-k spacer layer, in conjunction with a self-aligned contact (SAC) capping layer disposed over the gate and overlapping a sidewall of the isolation layer, forms an improved isolation structure that inhibits short circuits or parasitic capacitance between the gate and source/drain contacts.

Abstract: The present disclosure relates to semiconductor structures and, more particularly, to middle of line structures and methods of manufacture. The structure includes: a plurality of gate structures; source and drain regions adjacent to respective gate structures of the plurality of gate structures; metallization features contacting selected source and drain regions; and recessed metallization features contacting other selected source and drain regions.

Abstract: An integrated circuit product is disclosed that includes a transistor device that includes a final gate structure, a gate cap, a low-k sidewall spacer positioned on and in contact with opposing sidewalls of the final gate structure, first and second contact etch stop layers (CESLs) located on opposite sides of the final gate structure, whereby the CESLs are positioned on and in contact with the low-k sidewall spacer, and a high-k spacer located on opposite sides of the final gate structure, wherein the high-k spacer is positioned in recesses formed in an upper portion of the CESLs.

Abstract: The present disclosure generally relates to semiconductor devices and processing. The present disclosure also relates to semiconductor structures disposed over active regions, more particularly, via contact structures disposed over such active regions and to methods of forming such semiconductor structures.

Abstract: The present disclosure generally relates to semiconductor device fabrication and integrated circuits. More particularly, the present disclosure relates to replacement metal gate processes and structures for multi-gate transistor devices having a short channel and a long channel component.

Abstract: Structures for a field effect-transistor and methods of forming a structure for a field-effect transistor. A gate electrode arranged adjacent to an outer sidewall spacer and an inner sidewall spacer. The gate electrode has a top surface that is recessed relative to the outer sidewall spacer and the inner sidewall spacer. A gate cap includes a first section of a first width arranged over the first section of the gate electrode and a second section of a second width arranged over the first section of the gate cap and the inner sidewall spacer. The second width is greater than the first width, and the inner sidewall spacer is composed of a low-k dielectric material.

Abstract: Device structures and fabrication methods for a field-effect transistor. A semiconductor fin includes a first section and a second section in a lengthwise arrangement, a first gate structure overlapping the first section of the semiconductor fin, and a second gate structure overlapping the second section of the semiconductor fin. A pillar is arranged in the first section of the semiconductor fin. The pillar extends through a height of the semiconductor fin and across a width of the semiconductor fin.

Abstract: Disclosed is a transistor that includes a sidewall spacer positioned adjacent a sidewall of a gate structure, wherein the sidewall spacer comprises a notch proximate the lower end and wherein the notch is defined by a substantially vertically oriented side surface and a substantially horizontally oriented upper surface. An epi cavity in the substrate includes a substantially vertically oriented cavity sidewall that is substantially vertically aligned with the substantially vertically oriented side surface of the notch and an epi semiconductor material positioned in the epi cavity and in the notch, wherein the epi semiconductor material contacts and engages the substantially vertically oriented side surface of the notch and the substantially horizontally oriented upper surface of the notch.

Abstract: One illustrative IC product disclosed herein includes an isolation structure that separates a fin into a first fin portion and a second fin portion, an epi semiconductor material positioned on the first fin portion in a source/drain region of a transistor device, wherein a lateral gap is present between a first sidewall of the epi semiconductor material and a second sidewall of the SDB isolation structure, and a conductive source/drain structure that is conductively coupled to the epi semiconductor material, wherein a gap portion of the conductive source/drain structure is positioned in the gap and physically contacts the first sidewall and the second sidewall.

Abstract: One illustrative method disclosed herein may include forming a first straight sidewall spacer adjacent a gate structure of a transistor, forming a recessed layer of sacrificial material adjacent the first straight sidewall spacer and forming a second straight sidewall spacer on a portion of the outer surface of the first straight sidewall spacer and above the recessed layer of sacrificial material. The method may also include removing the recessed layer of sacrificial material so as to expose a first vertical portion of the outer surface of the first straight sidewall spacer and forming an epi material on and above the substrate, wherein an edge of the epi material engages the first straight sidewall spacer.