Abstract: A diode includes a first plurality of combo fins having lengthwise directions parallel to a first direction, wherein the first plurality of combo fins comprises portions of a first conductivity type. The diodes further includes a second plurality of combo fins having lengthwise directions parallel to the first direction, wherein the second plurality of combo fins includes portions of a second conductivity type opposite the first conductivity type. An isolation region is located between the first plurality of combo fins and the second plurality of combo fins. The first and the second plurality of combo fins form a cathode and an anode of the diode. The diode is configured to have a current flowing in a second direction perpendicular to the first direction, with the current flowing between the anode and the cathode.

Abstract: Disclosed are methods to form a FinFET diode of high efficiency, designed to resolve the degradation problem with a conventional FinFET diode arising from reduced active area, and a method of fabrication. The FinFET diode has a doped substrate, two spaced-apart groups of semiconductor fin structures, dielectric layers formed between the two groups and among the fin structures for insulation, a plurality of gate structures perpendicularly traversing both groups of the fin structures, and two groups of semiconductor strips respectively formed lengthwise upon the two groups of the fin structures. The two groups of semiconductor strips are doped to have opposite conductivity types, p-type and n-type. In an embodiment, the FinFET diode further has metal contacts formed upon the semiconductor strips. In another embodiment, the semiconductor strips may be integrally formed with the fin structures by epitaxial growth and in-situ doped.

Abstract: A semiconductor structure comprises a semiconductor substrate and a shallow trench isolation (STI) feature over the substrate. The STI feature includes first and second portions. A top surface of the first portion is lower than a top surface of the second portion. The semiconductor structure further comprises fin active regions; conductive features on the fin active regions and the STI feature; and dielectric features separating the conductive features from the fin active regions. The semiconductor structure further comprises a first gate stack having a first one of the dielectric features and a first one of the conductive features overlying the first one of the dielectric features; and a second gate stack having a second one of the dielectric features and a second one of the conductive features overlying the second one of the dielectric features.

Abstract: A fin field effect transistor (FinFET) and a method of forming the same are introduced. In an embodiment, trenches are formed in a substrate, wherein a region between adjacent trenches defines a fin. A dielectric material is formed in the trenches. A part of the substrate is doped and a region of high dopant concentration and a region of low dopant concentration are formed. Gate stacks are formed, portions of the fins are removed and source/drain regions are epitaxially grown in the regions of high/low dopant concentration. Contacts are formed to provide electrical contacts to source/gate/drain regions.

Abstract: A diode includes a first plurality of combo fins having lengthwise directions parallel to a first direction, wherein the first plurality of combo fins comprises portions of a first conductivity type. The diodes further includes a second plurality of combo fins having lengthwise directions parallel to the first direction, wherein the second plurality of combo fins includes portions of a second conductivity type opposite the first conductivity type. An isolation region is located between the first plurality of combo fins and the second plurality of combo fins. The first and the second plurality of combo fins form a cathode and an anode of the diode. The diode is configured to have a current flowing in a second direction perpendicular to the first direction, with the current flowing between the anode and the cathode.

Abstract: The present disclosure provides methods to fabricate a semiconductor structure that includes a semiconductor substrate having a first region and a second region; a shallow trench isolation (STI) feature formed in the semiconductor substrate. The STI feature includes a first portion disposed in the first region and having a first thickness T1 and a second portion disposed in the second region and having a second thickness T2 greater than the first depth, the first portion of the STI feature being recessed from the second portion of the STI feature. The semiconductor structure also includes a plurality of fin active regions on the semiconductor substrate; and a plurality of conductive features disposed on the fin active regions and the STI feature, wherein one of the conductive features covers the first portion of the STI feature in the first region.

Abstract: Disclosed are methods to form a FinFET diode of high efficiency, designed to resolve the degradation problem with a conventional FinFET diode arising from reduced active area, and a method of fabrication. The FinFET diode has a doped substrate, two spaced-apart groups of substantially parallel, equally-spaced, elongated semiconductor fin structures, dielectric layers formed between the two groups and among the fin structures for insulation, a plurality of substantially equal-spaced and parallel elongated gate structures perpendicularly traversing both groups of the fin structures, and two groups of semiconductor strips respectively formed lengthwise upon the two groups of the fin structures. The two groups of semiconductor strips are doped to have opposite conductivity types, p-type and n-type. The FinFET diode further has metal contacts formed upon the semiconductor strips. In an embodiment, the semiconductor strips may be integrally formed with the fin structures by epitaxial growth and in-situ doped.

Abstract: A fin field effect transistor (FinFET) and a method of forming the same are introduced. In an embodiment, trenches are formed in a substrate, wherein a region between adjacent trenches defines a fin. A dielectric material is formed in the trenches. A part of the substrate is doped and a region of high dopant concentration and a region of low dopant concentration are formed. Gate stacks are formed, portions of the fins are removed and source/drain regions are epitaxially grown in the regions of high/low dopant concentration. Contacts are formed to provide electrical contacts to source/gate/drain regions.

Abstract: A circuit device includes core circuitry. The circuit device further includes a first set of guard rings having a first dopant type, the first set of guard rings being around a periphery of the core circuitry, the first set of guard rings comprising a first guard ring and a second guard ring. The circuit device further includes a second set of guard rings having a second dopant type, the second dopant type being opposite to the first dopant type, wherein at least one guard ring of the second set of guard rings is around a periphery of at least one guard ring of the first set of guard rings, and the second set of guard rings comprises a third guard ring and a fourth guard ring.

Abstract: Disclosed are methods to form a FinFET diode of high efficiency, designed to resolve the degradation problem with a conventional FinFET diode arising from reduced active area, and a method of fabrication. The FinFET diode has a doped substrate, two spaced-apart groups of substantially parallel, equally-spaced, elongated semiconductor fin structures, dielectric layers formed between the two groups and among the fin structures for insulation, a plurality of substantially equal-spaced and parallel elongated gate structures perpendicularly traversing both groups of the fin structures, and two groups of semiconductor strips respectively formed lengthwise upon the two groups of the fin structures. The two groups of semiconductor strips are doped to have opposite conductivity types, p-type and n-type. The FinFET diode further has metal contacts formed upon the semiconductor strips. In an embodiment, the semiconductor strips may be integrally formed with the fin structures by epitaxial growth and in-situ doped.

Abstract: A band gap reference circuit includes an error-amplifier-based current mirror coupled between a first supply node and a pair of intermediate voltage nodes, and a matched diode pair for providing a proportional-to-absolute temperature (PTAT) current. The matched diode pair includes a first diode connected between a first intermediate voltage node from the pair of intermediate voltage nodes and a second supply node, and a second diode connected in series with a resistor between a second intermediate voltage node from the pair of intermediate voltage nodes and the second supply node. Each diode has a P-N diode junction that is a homojunction.

Abstract: A fin field effect transistor (FinFET) and a method of forming the same are introduced. In an embodiment, trenches are formed in a substrate, wherein a region between adjacent trenches defines a fin. A dielectric material is formed in the trenches. A part of the substrate is doped and a region of high dopant concentration and a region of low dopant concentration are formed. Gate stacks are formed, portions of the fins are removed and source/drain regions are epitaxially grown in the regions of high/low dopant concentration. Contacts are formed to provide electrical contacts to source/gate/drain regions.

Abstract: Disclosed are a FinFET diode of high efficiency, designed to resolve the degradation problem with a conventional FinFET diode arising from reduced active area, and a method of fabrication. The FinFET diode has a doped substrate, two spaced-apart groups of substantially parallel, equally-spaced, elongated semiconductor fin structures, dielectric layers formed between the two groups and among the fin structures for insulation, a plurality of substantially equal-spaced and parallel elongated gate structures perpendicularly traversing both groups of the fin structures, and two groups of semiconductor strips respectively formed lengthwise upon the two groups of the fin structures. The two groups of semiconductor strips are doped to have opposite conductivity types, p-type and n-type. The FinFET diode further has metal contacts formed upon the semiconductor strips. In an embodiment, the semiconductor strips may be integrally formed with the fin structures by epitaxial growth and in-situ doped.

Abstract: A fin field effect transistor (FinFET), and a method of fabrication, is introduced. In an embodiment, trenches are formed in a substrate, wherein a region between adjacent trenches defines a fin. A dielectric material is formed in the trenches. A part of the substrate is doped and a region of high dopant concentration and a region of low dopant concentration are formed. Gate stacks are formed, portions of the fins are removed and source/drain regions are epitaxially grown in the regions of high/low dopant concentration. Contacts are formed to provide electrical contacts to source/gate/drain regions.

Abstract: A fin field effect transistor (FinFET), and a method of fabrication, is introduced. In an embodiment, trenches are formed in a substrate, wherein a region between adjacent trenches defines a fin. A dielectric material is formed in the trenches. A part of the substrate is doped and a region of high dopant concentration and a region of low dopant concentration are formed. Gate stacks are formed, portions of the fins are removed and source/drain regions are epitaxially grown in the regions of high/low dopant concentration. Contacts are formed to provide electrical contacts to source/gate/drain regions.

Abstract: A method for performing a stress memorization technique (SMT) a FinFET and a FinFET having memorized stress effects including multi-planar dislocations are disclosed. An exemplary embodiment includes receiving a FinFET precursor with a substrate, a fin structure on the substrate, an isolation region between the fin structures, and a gate stack over a portion of the fin structure. The gate stack separates a source region of the fin structure from a drain region of the fin structure and creates a gate region between the two. The embodiment also includes forming a stress-memorization technique (SMT) capping layer over at least a portion of each of the fin structures, isolation regions, and the gate stack, performing a pre-amorphization implant on the FinFET precursor by implanting an energetic doping species, performing an annealing process on the FinFET precursor, and removing the SMT capping layer.

Abstract: A Bipolar Junction Transistor (BJT) includes an elongated collector line, an elongated emitter line parallel to the collector line, and an elongated base line parallel to the collector line and positioned between the collector line and the base line. The emitter line, the base line, and the collector line are formed over fin structures.

Abstract: A method of forming one or more diodes in a fin field-effect transistor (FinFET) device includes forming a hardmask layer having a fin pattern, said fin pattern including an isolated fin area, a fin array area, and a FinFET area. The method further includes etching a plurality of fins into a semiconductor substrate using the fin pattern, and depositing a dielectric material over the semiconductor substrate to fill spaces between the plurality of fins. The method further includes planarizing the semiconductor substrate to expose the hardmask layer. The method further includes implanting a p-type dopant into the fin array area and portions of the FinFET area, and implanting an n-type dopant into the isolated fin area, a portion of the of fin array area surrounding the p-well and portions of the FinFET area. The method further includes annealing the semiconductor substrate.

Abstract: The present disclosure provides methods to fabricate a semiconductor structure that includes a semiconductor substrate having a first region and a second region; a shallow trench isolation (STI) feature formed in the semiconductor substrate. The STI feature includes a first portion disposed in the first region and having a first thickness T1 and a second portion disposed in the second region and having a second thickness T2 greater than the first depth, the first portion of the STI feature being recessed from the second portion of the STI feature. The semiconductor structure also includes a plurality of fin active regions on the semiconductor substrate; and a plurality of conductive features disposed on the fin active regions and the STI feature, wherein one of the conductive features covers the first portion of the STI feature in the first region.

Abstract: The present disclosure provides one embodiment of a semiconductor structure that includes a semiconductor substrate having a first region and a second region; a shallow trench isolation (STI) feature formed in the semiconductor substrate. The STI feature includes a first portion disposed in the first region and having a first thickness T1 and a second portion disposed in the second region and having a second thickness T2 greater than the first depth, the first portion of the STI feature being recessed from the second portion of the STI feature. The semiconductor structure also includes a plurality of fin active regions on the semiconductor substrate; and a plurality of conductive features disposed on the fin active regions and the STI feature, wherein one of the conductive features covers the first portion of the STI feature in the first region.