Abstract: A method including forming an oxygen gettering layer on one side of an insulating layer of a deep trench capacitor between the insulating layer and a substrate, the oxygen gettering layer including an aluminum containing compound, and depositing an inner electrode on top of the insulating layer, the inner electrode including a metal.

Abstract: A surface of a semiconductor-containing dielectric material/oxynitride/nitride is treated with a basic solution in order to provide hydroxyl group termination of the surface. A dielectric metal oxide is subsequently deposited by atomic layer deposition. The hydroxyl group termination provides a uniform surface condition that facilitates nucleation and deposition of the dielectric metal oxide, and reduces interfacial defects between the oxide and the dielectric metal oxide. Further, treatment with the basic solution removes more oxide from a surface of a silicon germanium alloy with a greater atomic concentration of germanium, thereby reducing a differential in the total thickness of the combination of the oxide and the dielectric metal oxide across surfaces with different germanium concentrations.

Abstract: Aspects of the present disclosure include integrated circuit (IC) structures with metal plugs therein, and methods of forming the same. An IC fabrication method according to embodiments of the present disclosure can include: providing a structure including a via including a bulk semiconductor material therein, wherein the via further includes a cavity extending from a top surface of the via to an interior surface of the via, and wherein a portion of the bulk semiconductor material defines at least one sidewall of the cavity; forming a first metal level on the via, wherein the first metal level includes a contact opening positioned over the cavity of the via; forming a metal plug within the cavity to the surface of the via, such that the metal plug conformally contacts a sidewall of the cavity and the interior surface of the via, wherein the metal plug is laterally distal to an exterior sidewall of the via; and forming a contact within the contact opening of the first metal level.

Abstract: A method including forming an oxygen gettering layer on one side of an insulating layer of a deep trench capacitor between the insulating layer and a substrate, the oxygen gettering layer including an aluminum containing compound, and depositing an inner electrode on top of the insulating layer, the inner electrode including a metal.

Abstract: An aspect of the disclosure is directed to a method of forming an interconnect for use in an integrated circuit. The method comprises: forming an opening in a dielectric layer on a substrate; filling the opening with a metal such that an overburden outside of the opening is created; subjecting the metal to a microwave energy dose such that atoms from the overburden migrate to within the opening; and planarizing the metal to a top surface of the opening to remove the overburden, thereby forming the interconnect.

Abstract: Aspects of the present disclosure include integrated circuit (IC) structures with metal plugs therein, and methods of forming the same. An IC fabrication method according to embodiments of the present disclosure can include: providing a structure including a via including a bulk semiconductor material therein, wherein the via further includes a cavity extending from a top surface of the via to an interior surface of the via, and wherein a portion of the bulk semiconductor material defines at least one sidewall of the cavity; forming a first metal level on the via, wherein the first metal level includes a contact opening positioned over the cavity of the via; forming a metal plug within the cavity to the surface of the via, such that the metal plug conformally contacts a sidewall of the cavity and the interior surface of the via, wherein the metal plug is laterally distal to an exterior sidewall of the via; and forming a contact within the contact opening of the first metal level.

Abstract: A method of manufacturing a semiconductor structure, and the resultant structure. The method includes forming an oxide layer above a substrate. The method includes forming a metal layer above the oxide layer. The method includes forming a first capping layer above the metal layer. A material forming the first capping layer may be titanium oxide, or titanium oxynitride. The method includes annealing the semiconductor structure. Annealing the semiconductor structure may result in diffusing a metal from the metal layer into the oxide layer.

Abstract: An aspect of the disclosure is directed to a method of forming an interconnect for use in an integrated circuit. The method comprises: forming an opening in a dielectric layer on a substrate; filling the opening with a metal such that an overburden outside of the opening is created; subjecting the metal to a microwave energy dose such that atoms from the overburden migrate to within the opening; and planarizing the metal to a top surface of the opening to remove the overburden, thereby forming the interconnect.

Abstract: A method of manufacturing a semiconductor structure, and the resultant structure. The method includes forming an oxide layer above a substrate. The method includes forming a metal layer above the oxide layer. The method includes forming a first capping layer above the metal layer. A material forming the first capping layer may be titanium oxide, or titanium oxynitride. The method includes annealing the semiconductor structure. Annealing the semiconductor structure may result in diffusing a metal from the metal layer into the oxide layer.

Abstract: A method including forming an oxygen gettering layer on one side of an insulating layer of a deep trench capacitor between the insulating layer and a substrate, the oxygen gettering layer including an aluminum containing compound, and depositing an inner electrode on top of the insulating layer, the inner electrode including a metal.

Abstract: A semiconductor structure includes a substrate and an intrinsic replacement channel. A tunneling field effect transistor (TFET) fin may be formed by the intrinsic replacement channel, a p-fin and an n-fin formed upon the substrate. The p-fin may serve as the source of the TFET and the n-fin may serve as the drain of the TFET. The replacement channel may be formed in place of a sacrificial channel of a diode fin that includes the p-fin, the n-fin, and the sacrificial channel at the p-fin and n-fin junction.

Abstract: A semiconductor device including at least one suspended channel structure of a silicon including material, and a gate structure present on the suspended channel structure. At least one gate dielectric layer is present surrounding the suspended channel structure, and at least one gate conductor is present on the at least one gate dielectric layer. Source and drain structures may be composed of a silicon and germanium including material. The source and drain structures are in contact with the source and drain region ends of the suspended channel structure through a silicon cladding layer.

Abstract: Ion implantation to change an effective work function for dual work function metal gate integration is presented. One method may include forming a high dielectric constant (high-k) layer over a first-type field effect transistor (FET) region and a second-type FET region; forming a metal layer having a first effective work function compatible for a first-type FET over the first-type FET region and the second-type FET region; and changing the first effective work function to a second, different effective work function over the second-type FET region by implanting a species into the metal layer over the second-type FET region.

Abstract: A method for producing a semiconductor structure, as well as a semiconductor structure, that uses a partial removal of an insulating layer around a semiconductor fin, and subsequently epitaxially growing an additional semiconductor material in the exposed regions, while maintaining the shape of the fin with the insulating layer.

Abstract: The present invention relates generally to semiconductor devices and more particularly, to a structure and method of forming a high-mobility fin field effect transistor (finFET) fin in a silicon semiconductor on insulator (SOI) substrate by trapping crystalline lattice dislocations that occur during epitaxial growth in a recess formed in a semiconductor layer. The crystalline lattice dislocations may remain trapped below a thin isolation layer, thereby reducing device thickness and the need for high-aspect ratio etching and fin formation.

Abstract: A method of manufacturing a semiconductor structure, and the resultant structure. The method includes forming an oxide layer above a substrate. The method includes forming a metal layer above the oxide layer. The method includes forming a first capping layer above the metal layer. A material forming the first capping layer may be titanium oxide, or titanium oxynitride. The method includes annealing the semiconductor structure. Annealing the semiconductor structure may result in diffusing a metal from the metal layer into the oxide layer.

Abstract: A semiconductor structure includes a substrate and an intrinsic replacement channel. A tunneling field effect transistor (TFET) fin may be formed by the intrinsic replacement channel, a p-fin and an n-fin formed upon the substrate. The p-fin may serve as the source of the TFET and the n-fin may serve as the drain of the TFET. The replacement channel may be formed in place of a sacrificial channel of a diode fin that includes the p-fin, the n-fin, and the sacrificial channel at the p-fin and n-fin junction.

Abstract: A semiconductor device such as a FinFET includes a plurality of fins formed upon a substrate and a gate covering a portion of the fins. Diamond-shaped volumes are formed on the sidewalls of the fins by epitaxial growth which may be limited to avoid merging of the volumes or where the epitaxy volumes have merged. Because of the difficulties in managing merging of the diamond-shaped volumes, a controlled merger of the diamond-shaped volumes includes depositing an amorphous semiconductor material upon the diamond-shaped volumes and a crystallization process to crystallize the deposited semiconductor material on the diamond-shaped volumes to fabricate controllable and uniformly merged source drain.

Abstract: Oxygen scavenging material embedded in an isolation structure provides improved protection of high dielectric constant (Hi-K) materials from oxygen contamination while avoiding alteration of work function and switching threshold shift in transistors including such Hi-K materials.

Abstract: A method of forming a semiconductor device includes forming first and second semiconductor structures on a semiconductor substrate. The first semiconductor structure includes a first gate channel region having a first gate length, and the second semiconductor structure including a second gate channel region having a second gate length that is greater than the first gate length. The method further includes depositing a work function metal layer in each of a first gate void formed at the first gate channel region and a second gate void formed at the second gate channel region. The method further includes depositing a semiconductor masking layer on the work function metal layer, and simultaneously etching the silicon masking layer located at the first and second gate channel regions to re-expose the first and second gate voids. A low-resistive metal is deposited in the first and second gate voids to form low-resistive metal gate stacks.