Abstract: Conductive via bars self-aligned to gate ends are described. In an example, an integrated circuit structure includes a plurality of gate structures. The integrated circuit structure also includes a plurality of dielectric spacers, a corresponding one of the plurality of dielectric spacers laterally surrounding a corresponding one of the plurality of gate structures. A plurality of conductive trench contact structures is alternating with the plurality of gate structures. A conductive via bar is along ends of the plurality of gate structures and ends of the plurality of conductive trench contact structures, wherein the plurality of dielectric spacers is between the ends of the plurality of gate structures and the conductive via bar.

Abstract: This disclosure illustrates a FinFET based dual electronic component that may be used as a capacitor or a resistor and methods to manufacture said component. A FinFET based dual electronic component comprises a fin, source and drain regions, a gate dielectric, and a gate. The fin is heavily doped such that semiconductor material of the fin becomes degenerate.

Abstract: Technologies for selectively etching oxide and nitride materials on a work piece are described. Such technologies include methods for etching a work piece with a remote plasma that is produced by igniting a plasma gas flow. Microelectronic devices including first and second fins that are laterally offset by a fin pitch to define a first field there between are also described. In embodiments the microelectronic devices include a conformal oxide layer and a conformal nitride layer on at least a portion of the first and second fins, where the conformal nitride layer is on at least a portion of the conformal oxide layer and a sacrificial oxide material is disposed within the first field.

Abstract: This disclosure illustrates a FinFET based dual electronic component that may be used as a capacitor or a resistor and methods to manufacture said component. A FinFET based dual electronic component comprises a fin, source and drain regions, a gate dielectric, and a gate. The fin is heavily doped such that semiconductor material of the fin becomes degenerate.

Abstract: Technologies for selectively etching oxide and nitride materials on a work piece are described. Such technologies include methods for etching a work piece with a remote plasma that is produced by igniting a plasma gas flow. By controlling the flow rate of various components of the plasma gas flow, plasmas exhibiting desired etching characteristics may be obtained. Such plasmas may be used in single or multistep etching operations, such as recess etching operations that may be used in the production of non-planar microelectronic devices.

Abstract: Technologies for selectively etching oxide and nitride materials on a work piece are described. Such technologies include methods for etching a work piece with a remote plasma that is produced by igniting a plasma gas flow. By controlling the flow rate of various components of the plasma gas flow, plasmas exhibiting desired etching characteristics may be obtained. Such plasmas may be used in single or multistep etching operations, such as recess etching operations that may be used in the production of non-planar microelectronic devices.

Abstract: A device includes a number of fins. Some of the fins have greater heights than other fins. This allows the selection of different drive currents and/or transistor areas.

Abstract: Improving an area scaling on tri-gate transistors is described. An insulating layer is deposited on a fin on a substrate. The insulating layer is recessed to expose the fin. The corner of the fin is rounded off using a noble gas. A gate dielectric layer is deposited on the rounded corner. The radius of curvature of the corner is controllable by adjusting a bias power to the substrate. The radius of curvature of the corner is determined based on the width of the fin to reduce an area scaling of the array.

Abstract: A device includes a number of fins. Some of the fins have greater heights than other fins. This allows the selection of different drive currents and/or transistor areas.

Abstract: A device includes a number of fins. Some of the fins have greater heights than other fins. This allows the selection of different drive currents and/or transistor areas.

Abstract: The present disclosure relates to the field of fabricating microelectronic devices. In at least one embodiment, the present subject matter relates to forming transistor fins of differing heights to obtain a performance improvement for a given type of integrated circuit within the microelectronic device.

Abstract: A device includes a number of fins. Some of the fins have greater heights than other fins. This allows the selection of different drive currents and/or transistor areas.

Abstract: Embodiments of the invention generally relate to transistors with high-k dielectric spacer liner to mitigate lateral oxide encroachment. In this regard a semiconductor device is introduced having a substrate, a high-k gate dielectric layer on the substrate, a metal gate electrode on the high-k gate dielectric layer, and a high-k dielectric layer on either side of and adjacent to the metal gate electrode and high-k gate dielectric layer, extending a distance away from the metal gate electrode and high-k gate dielectric layer on the substrate. Other embodiments are also disclosed and claimed.

Abstract: A device includes a number of fins. Some of the fins have greater heights than other fins. This allows the selection of different drive currents and/or transistor areas.

Abstract: In some embodiments an etchstop layer is deposited over a transistor that has been encapsulated by a high-K film, a silicon nitride is deposited over the deposited etchstop layer, the silicon nitride is removed, and the etchstop layer is removed. Other embodiments are described and claimed.

Abstract: Embodiments of the invention provide a device with a reverse-tapered gate electrode and a gate dielectric layer with a length close to that of the gate length. In an embodiment, this may be done by altering portions of a blanket dielectric layer with one or more angled ion implants, then removing the altered portions of the blanket dielectric layer.

Abstract: Embodiments of the invention generally relate to transistors with high-k dielectric spacer liner to mitigate lateral oxide encroachment. In this regard a semiconductor device is introduced having a substrate, a high-k gate dielectric layer on the substrate, a metal gate electrode on the high-k gate dielectric layer, and a high-k dielectric layer on either side of and adjacent to the metal gate electrode and high-k gate dielectric layer, extending a distance away from the metal gate electrode and high-k gate dielectric layer on the substrate. Other embodiments are also disclosed and claimed.

Abstract: Embodiments of the invention provide a device with a reverse-tapered gate electrode and a gate dielectric layer with a length close to that of the gate length. In an embodiment, this may be done by altering portions of a blanket dielectric layer with one or more angled ion implants, then removing the altered portions of the blanket dielectric layer.

Abstract: A method of fabricating a FET having a gate electrode with reduced susceptibility to the carrier depletion effect, includes increasing the amount of n-type dopant in the gate electrode of an n-channel FET. In one embodiment of the present invention, an integrated circuit including NFETs and PFETs is produced with increased n-type doping in the n-channel FET gate electrodes without the use of additional photomasking operations. Prior to polysilicon patterning, a phosphorus doped silica glass (PSG) is deposited over the polysilicon. Subsequent to patterning of the polysilicon, NFET areas are masked, and exposed PFET areas subjected to source/drain extension implant operations. During this sequence, the PSG is removed from PFET areas but remains in the NFET areas. An anneal is performed to drive the phosphorus from the PSG into the NFET gate electrodes. NFET source/drain extensions are formed, and conventional MOSFET processing operations may then be performed to complete the integrated circuit.