Abstract: A method of forming a semiconductor structure (and the resulting structure), includes straining a free-standing semiconductor, and fixing the strained, free-standing semiconductor to a substrate.

Abstract: A method for depositing fine particles from a suspension on selected regions of a substrate is disclosed. The particles are deposited on selected regions of a clean hydrophobic semiconductor surface that are surrounded by a wetting boundary which includes a mesa formed by etching through a silicon-on-insulator (SOI) film and an underlying buried oxide of an SOI substrate. The process is well suited for the growth of semiconductor nanowires that nucleates from fine particle used as a catalyst.

Abstract: A semiconductor device (and method for making the same) includes a strained-silicon channel formed adjacent a source and a drain, a first gate formed over a first side of the channel, a second gate formed over a second side of the channel, a first gate dielectric formed between the first gate and the strained-silicon channel, and a second gate dielectric formed between the second gate and the strained-silicon channel. The strained-silicon channel is non-planar.

Abstract: A semiconductor device (and method for making the same) includes a strained-silicon channel formed adjacent a source and a drain, a first gate formed over a first side of the channel, a second gate formed over a second side of the channel, a first gate dielectric formed between the first gate and the strained-silicon channel, and a second gate dielectric formed between the second gate and the strained-silicon channel. The strained-silicon channel is non-planar.

Abstract: A method of forming a semiconductor structure (and the resulting structure), includes straining a free-standing semiconductor, and fixing the strained, free-standing semiconductor to a substrate.

Abstract: Field-effect transistors (FETs) having nanowire channels are provided. In one aspect, a FET is provided. The FET comprises a substrate having a silicon-on-insulator (SOI) layer which is divided into at least two sections electrically isolated from one another, one section included in a source region and the other section included in a drain region; a channel region connecting the source region and the drain region and including at least one nanowire; an epitaxial semiconductor material, grown from the SOI layer, covering the nanowire and attaching the nanowire to each section of the SOI layer; and a gate over the channel region.

Abstract: A method of forming a semiconductor structure (and the resulting structure), includes straining a free-standing semiconductor, and fixing the strained, free-standing semiconductor to a substrate.

Abstract: Techniques for the fabrication of field-effect transistors (FETs) having nanowire channels are provided. In one aspect, a method of fabricating a FET is provided comprising the following steps. A substrate is provided having a silicon-on-insulator (SOI) layer. At least one nanowire is deposited over the SOI layer. A sacrificial gate is formed over the SOI layer so as to cover a portion of the nanowire that forms a channel region. An epitaxial semiconductor material is selectively grown from the SOI layer that covers the nanowire and attaches the nanowire to the SOI layer in a source region and in a drain region. The sacrificial gate is removed. An oxide is formed that divides the SOI layer into at least two electrically isolated sections, one section included in the source region and the other section included in the drain region. A gate dielectric layer is formed over the channel region. A gate is formed over the channel region separated from the nanowire by the gate dielectric layer.

Abstract: A method for depositing fine particles from a suspension on selected regions of a substrate is disclosed. The particles are deposited on selected regions of a clean hydrophobic semiconductor surface that are surrounded by a wetting boundary which includes a mesa formed by etching through a silicon-on-insulator (SOI) film and an underlying buried oxide of an SOI substrate. The process is well suited for the growth of semiconductor nanowires that nucleates from fine particle used as a catalyst.

Abstract: Field-effect transistors (FETs) having nanowire channels are provided. In one aspect, a FET is provided. The FET comprises a substrate having a silicon-on-insulator (SOI) layer which is divided into at least two sections electrically isolated from one another, one section included in a source region and the other section included in a drain region; a channel region connecting the source region and the drain region and including at least one nanowire; an epitaxial semiconductor material, grown from the SOI layer, covering the nanowire and attaching the nanowire to each section of the SOI layer; and a gate over the channel region.

Abstract: Techniques for the fabrication of field-effect transistors (FETs) having nanowire channels are provided. In one aspect, a method of fabricating a FET is provided comprising the following steps. A substrate is provided having a silicon-on-insulator (SOI) layer. At least one nanowire is deposited over the SOI layer. A sacrificial gate is formed over the SOI layer so as to cover a portion of the nanowire that forms a channel region. An epitaxial semiconductor material is selectively grown from the SOI layer that covers the nanowire and attaches the nanowire to the SOI layer in a source region and in a drain region. The sacrificial gate is removed. An oxide is formed that divides the SOI layer into at least two electrically isolated sections, one section included in the source region and the other section included in the drain region. A gate dielectric layer is formed over the channel region. A gate is formed over the channel region separated from the nanowire by the gate dielectric layer.

Abstract: A method (and structure formed thereby) of forming a metal silicide contact on a non-planar silicon containing region having controlled consumption of the silicon containing region, includes forming a blanket metal layer over the silicon containing region, forming a silicon layer over the metal layer, etching anisotropically and selectively with respect to the metal the silicon layer, reacting the metal with silicon at a first temperature to form a metal silicon alloy, etching unreacted portions of the metal layer, annealing at a second temperature to form an alloy of metal-Si2, and selectively etching the unreacted silicon layer.

Abstract: Apparatus and methods for packaging optical communication devices include optical bench structures, such as silicon-optical benches (SiOB). An optical communications apparatus includes an optical bench comprising a substrate having an electrical turning via formed therein. An optoelectronic (OE) chip and integrated circuit (IC) chip are mounted on the optical bench and electrically connected using the electrical turning via. The electrical turning via extends in directions both perpendicular and transverse to a surface of the substrate such that the OE chip and IC chip can be mounted on perpendicular surfaces of the optical bench in close proximity and electrically connected using the electrical turning via.

Abstract: A method for bonding microstructures to a semiconductor substrate using attractive forces, such as, hydrophobic, van der Waals, and covalent bonding is provided. The microstructures maintain their absolute position with respect to each other and translate vertically onto a wafer surface during the bonding process. The vertical translation of the micro-slabs is also referred to herein as “in-place bonding”. Semiconductor structures which include the attractively bonded microstructures and substrate are also disclosed.

Abstract: A method for depositing fine particles from a suspension on selected regions of a substrate is disclosed. The particles are deposited on selected regions of a clean hydrophobic semiconductor surface that are surrounded by a wetting boundary which includes a mesa formed by etching through a silicon-on-insulator (SOI) film and an underlying buried oxide of an SOI substrate. The process is well suited for the growth of semiconductor nanowires that nucleates from fine particle used as a catalyst.

Abstract: A vertical FET structure with nanowire forming the FET channels is disclosed. The nanowires are formed over a conductive silicide layer. The nanowires are gated by a surrounding gate. Top and bottom insulator plugs function as gate spacers and reduce the gate-source and gate-drain capacitance.

Abstract: Disclosed herein is a method of forming a nanostructure having nanowires by forming a mask with at least one opening on a surface of a substrate, to expose a portion of the surface of the substrate; depositing particles of a metal capable of catalyzing semiconductor nanowire growth on the exposed surface of the substrate by electroplating or electroless plating; and growing nanowires on the plated substrate with a precursor gas by a vapor-liquid-solid (VLS) process. Also disclosed is a nanostructure including nanowires prepared by the above method.

Abstract: A semiconductor device (and method for making the same) includes a strained-silicon channel formed adjacent a source and a drain, a first gate formed over a first side of the channel, a second gate formed over a second side of the channel, a first gate dielectric formed between the first gate and the strained-silicon channel, and a second gate dielectric formed between the second gate and the strained-silicon channel. The strained-silicon channel is non-planar.

Abstract: A semiconductor device (and method for making the same) includes a strained-silicon channel formed adjacent a source and a drain, a first gate formed over a first side of the channel, a second gate formed over a second side of the channel, a first gate dielectric formed between the first gate and the strained-silicon channel, and a second gate dielectric formed between the second gate and the strained-silicon channel. The strained-silicon channel is non-planar.

Abstract: Apparatus and methods for packaging optical communication devices include optical bench structures, such as silicon-optical benches (SiOB). An optical communications apparatus includes an optical bench comprising a substrate having an electrical turning via formed therein. An optoelectronic (OE) chip and integrated circuit (IC) chip are mounted on the optical bench and electrically connected using the electrical turning via. The electrical turning via extends in directions both perpendicular and transverse to a surface of the substrate such that the OE chip and IC chip can be mounted on perpendicular surfaces of the optical bench in close proximity and electrically connected using the electrical turning via.