Abstract: An integrated circuit (IC) device is disclosed which includes a first transistor over a substrate. The first transistor includes a gate over the substrate and between a source region and a drain region. The transistor further includes a first region of vertically-graded silicon germanium (“SiGe”) adjacent a first side of a channel under the gate, and a second region of vertically-graded SiGe adjacent a second side of the channel. The channel includes substantially uniformly-graded SiGe.

Abstract: A one-time programmable (OTP) fuse includes a trench isolation; a gate metal layer over the trench isolation; and a PN junction over the gate metal layer. More particularly, the OTP fuse may include a first terminal including a highly doped n-type polysilicon layer over the trench isolation, and a second terminal including a highly doped p-type polysilicon layer over the trench isolation. The highly doped n-type polysilicon layer contacts the highly doped p-type polysilicon layer, creating a PN junction and a fuse link defined in a portion of the gate metal layer between the trench isolation and the PN junction. The gate metal layer has a uniform thickness that allows better dimension control of the fuse link to reduce fuse programming current variability.

Abstract: A method of forming matched PFET/NFET spacers with differential widths for SG and EG structures and a method of forming differential width nitride spacers for SG NFET and SG PFET structures and PFET/NFET EG structures and respective resulting devices are provided. Embodiments include providing PFET SG and EG structures and NFET SG and EG structures; forming a first nitride layer over the substrate; forming an oxide liner; forming a second nitride layer on sidewalls of the PFET and NFET EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the PFET SG and EG structures; forming RSD structures on opposite sides of each of the PFET SG and EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the NFET SG and EG structures; and forming RSD structures on opposite sides of each of the NFET SG and EG structures.

Abstract: A FinFET device is provided, which includes a semiconductor substrate, a fin structure and a dielectric material. The fin structure is extending from the semiconductor substrate, the fin structure having an upper fin section, a middle fin section and a lower fin section. The dielectric material is over the semiconductor substrate embedding a first portion of the lower fin section. The dielectric material forms shallow trench isolation regions of the FinFET device.

Abstract: A method of forming matched PFET/NFET spacers with differential widths for SG and EG structures and a method of forming differential width nitride spacers for SG NFET and SG PFET structures and PFET/NFET EG structures and respective resulting devices are provided. Embodiments include providing PFET SG and EG structures and NFET SG and EG structures; forming a first nitride layer over the substrate; forming an oxide liner; forming a second nitride layer on sidewalls of the PFET and NFET EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the PFET SG and EG structures; forming RSD structures on opposite sides of each of the PFET SG and EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the NFET SG and EG structures; and forming RSD structures on opposite sides of each of the NFET SG and EG structures.

Abstract: A method of forming matched PFET/NFET spacers with differential widths for SG and EG structures and a method of forming differential width nitride spacers for SG NFET and SG PFET structures and PFET/NFET EG structures and respective resulting devices are provided. Embodiments include providing PFET SG and EG structures and NFET SG and EG structures; forming a first nitride layer over the substrate; forming an oxide liner; forming a second nitride layer on sidewalls of the PFET and NFET EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the PFET SG and EG structures; forming RSD structures on opposite sides of each of the PFET SG and EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the NFET SG and EG structures; and forming RSD structures on opposite sides of each of the NFET SG and EG structures.

Abstract: Methods of forming a graded SiGe percentage PFET channel in a FinFET or FDSOI device by post gate thermal condensation and oxidation of a high Ge percentage channel layer and the resulting devices are provided. Embodiments include forming a gate dielectric layer over a plurality of Si fins; forming a gate over each fin; forming a HM and spacer layer over and on sidewalls of each gate; forming a cavity in each fin adjacent to the gate and spacer layer; epitaxially growing an un-doped high percentage SiGe layer in each cavity and along sidewalls of each fin; thermally condensing the high percentage SiGe layer, an un-doped low percentage SiGe formed underneath in the substrate and fins; and forming a S/D region over the high percentage SiGe layer in each u-shaped cavity, an upper surface of the S/D regions below the gate dielectric layer.

Abstract: Methods of forming a graded SiGe percentage PFET channel in a FinFET or FDSOI device by post gate thermal condensation and oxidation of a high Ge percentage channel layer and the resulting devices are provided. Embodiments include forming a gate dielectric layer over a plurality of Si fins; forming a gate over each fin; forming a HM and spacer layer over and on sidewalls of each gate; forming a cavity in each fin adjacent to the gate and spacer layer; epitaxially growing an un-doped high percentage SiGe layer in each cavity and along sidewalls of each fin; thermally condensing the high percentage SiGe layer, an un-doped low percentage SiGe formed underneath in the substrate and fins; and forming a S/D region over the high percentage SiGe layer in each u-shaped cavity, an upper surface of the S/D regions below the gate dielectric layer.

Abstract: An electrical connector and system for connecting to a terminal post. The electrical connector includes a housing body, a contact and a locking release member. The housing body includes a post receiving passage for receiving the terminal post therein. The contact is provided in the post receiving passage and is positioned about the circumference of the post receiving passage. The contact will make an electrical engagement with a terminal post inserted into the post receiving passage regardless of the orientation of the terminal post with respect to the contact. The electrical connector which prevents the improper mating of the connector to the post, prevents unwanted rotation of the connector, provides a visual indication that the proper connection is secured and provides a secondary lock to ensure that unwanted unmating of the connector does not occur.

Abstract: Methods for selectively thinning a silicon channel area under a gate electrode and resulting devices are disclosed. Embodiments include providing a SOI substrate including a Si-layer; providing a first dummy-gate electrode over a first gate-oxide between first spacers over a first channel area of the Si-layer and a second dummy-gate electrode over a second gate-oxide between second spacers over a second channel area of the Si-layer; forming a S/D region adjacent each spacer; forming an oxide over the S/D regions and the spacers; removing the dummy-gate electrodes creating first and second cavities between respective first and second spacers; forming a mask with an opening over the first cavity; removing the first gate-oxide; thinning the Si-layer under the first cavity, forming a recess in the Si-layer; forming a third gate-oxide on recess side and bottom surfaces; and filling the recess and the cavities with metal, forming first and second RMG electrodes.

Abstract: Methods for selectively thinning a silicon channel area under a gate electrode and resulting devices are disclosed. Embodiments include providing a SOI substrate including a Si-layer; providing a first dummy-gate electrode over a first gate-oxide between first spacers over a first channel area of the Si-layer and a second dummy-gate electrode over a second gate-oxide between second spacers over a second channel area of the Si-layer; forming a S/D region adjacent each spacer; forming an oxide over the S/D regions and the spacers; removing the dummy-gate electrodes creating first and second cavities between respective first and second spacers; forming a mask with an opening over the first cavity; removing the first gate-oxide; thinning the Si-layer under the first cavity, forming a recess in the Si-layer; forming a third gate-oxide on recess side and bottom surfaces; and filling the recess and the cavities with metal, forming first and second RMG electrodes.

Abstract: Methods of forming a graded SiGe percentage PFET channel in a FinFET or FDSOI device by post gate thermal condensation and oxidation of a high Ge percentage channel layer and the resulting devices are provided. Embodiments include forming a gate dielectric layer over a plurality of Si fins formed over a substrate; forming a gate over each fin; forming a HM and spacer layer over and on sidewalls of each gate; forming a u-shaped cavity in each fin adjacent to the gate and spacer layer; epitaxially growing an un-doped high percentage SiGe layer in each u-shaped cavity and along sidewalls of each fin; thermally condensing the high percentage SiGe layer, an un-doped low percentage SiGe formed underneath in the substrate and fins; and forming a S/D region over the high percentage SiGe layer in each u-shaped cavity, an upper surface of the S/D regions below the gate dielectric layer.

Abstract: A method of controlling the facet height of raised source/drain epi structures using multiple spacers, and the resulting device are provided. Embodiments include providing a gate structure on a SOI layer; forming a first pair of spacers on the SOI layer adjacent to and on opposite sides of the gate structure; forming a second pair of spacers on an upper surface of the first pair of spacers adjacent to and on the opposite sides of the gate structure; and forming a pair of faceted raised source/drain structures on the SOI, each of the faceted source/drain structures faceted at the upper surface of the first pair of spacers, wherein the second pair of spacers is more selective to epitaxial growth than the first pair of spacers.

Abstract: Methods for selectively thinning a silicon channel area under a gate electrode and resulting devices are disclosed. Embodiments include providing a SOI substrate including a Si-layer; providing a first dummy-gate electrode over a first gate-oxide between first spacers over a first channel area of the Si-layer and a second dummy-gate electrode over a second gate-oxide between second spacers over a second channel area of the Si-layer; forming a S/D region adjacent each spacer; forming an oxide over the S/D regions and the spacers; removing the dummy-gate electrodes creating first and second cavities between respective first and second spacers; forming a mask with an opening over the first cavity; removing the first gate-oxide; thinning the Si-layer under the first cavity, forming a recess in the Si-layer; forming a third gate-oxide on recess side and bottom surfaces; and filling the recess and the cavities with metal, forming first and second RMG electrodes.

Abstract: A method of forming matched PFET/NFET spacers with differential widths for SG and EG structures and a method of forming differential width nitride spacers for SG NFET and SG PFET structures and PFET/NFET EG structures and respective resulting devices are provided. Embodiments include providing PFET SG and EG structures and NFET SG and EG structures; forming a first nitride layer over the substrate; forming an oxide liner; forming a second nitride layer on sidewalls of the PFET and NFET EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the PFET SG and EG structures; forming RSD structures on opposite sides of each of the PFET SG and EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the NFET SG and EG structures; and forming RSD structures on opposite sides of each of the NFET SG and EG structures.

Abstract: A method of forming matched PFET/NFET spacers with differential widths for SG and EG structures and a method of forming differential width nitride spacers for SG NFET and SG PFET structures and PFET/NFET EG structures and respective resulting devices are provided. Embodiments include providing PFET SG and EG structures and NFET SG and EG structures; forming a first nitride layer over the substrate; forming an oxide liner; forming a second nitride layer on sidewalls of the PFET and NFET EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the PFET SG and EG structures; forming RSD structures on opposite sides of each of the PFET SG and EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the NFET SG and EG structures; and forming RSD structures on opposite sides of each of the NFET SG and EG structures.

Abstract: A method of forming matched PFET/NFET spacers with differential widths for SG and EG structures and a method of forming differential width nitride spacers for SG NFET and SG PFET structures and PFET/NFET EG structures and respective resulting devices are provided. Embodiments include providing PFET SG and EG structures and NFET SG and EG structures; forming a first nitride layer over the substrate; forming an oxide liner; forming a second nitride layer on sidewalls of the PFET and NFET EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the PFET SG and EG structures; forming RSD structures on opposite sides of each of the PFET SG and EG structures; removing horizontal portions of the first nitride layer and the oxide liner over the NFET SG and EG structures; and forming RSD structures on opposite sides of each of the NFET SG and EG structures.

Abstract: A method of controlling the facet height of raised source/drain epi structures using multiple spacers, and the resulting device are provided. Embodiments include providing a gate structure on a SOI layer; forming a first pair of spacers on the SOI layer adjacent to and on opposite sides of the gate structure; forming a second pair of spacers on an upper surface of the first pair of spacers adjacent to and on the opposite sides of the gate structure; and forming a pair of faceted raised source/drain structures on the SOI, each of the faceted source/drain structures faceted at the upper surface of the first pair of spacers, wherein the second pair of spacers is more selective to epitaxial growth than the first pair of spacers.

Abstract: A method of controlling the facet height of raised source/drain epi structures using multiple spacers, and the resulting device are provided. Embodiments include providing a gate structure on a SOI layer; forming a first pair of spacers on the SOI layer adjacent to and on opposite sides of the gate structure; forming a second pair of spacers on an upper surface of the first pair of spacers adjacent to and on the opposite sides of the gate structure; and forming a pair of faceted raised source/drain structures on the SOI, each of the faceted source/drain structures faceted at the upper surface of the first pair of spacers, wherein the second pair of spacers is more selective to epitaxial growth than the first pair of spacers.

Abstract: A method of controlling the facet height of raised source/drain epi structures using multiple spacers, and the resulting device are provided. Embodiments include providing a gate structure on a SOI layer; forming a first pair of spacers on the SOI layer adjacent to and on opposite sides of the gate structure; forming a second pair of spacers on an upper surface of the first pair of spacers adjacent to and on the opposite sides of the gate structure; and forming a pair of faceted raised source/drain structures on the SOI, each of the faceted source/drain structures faceted at the upper surface of the first pair of spacers, wherein the second pair of spacers is more selective to epitaxial growth than the first pair of spacers.