Patent application number | Description | Published |
20110156223 | STRUCTURE AND METHOD TO CREATE STRESS TRENCH - An integrated circuit (IC) chip is provided comprising at least one trench including a stress-inducing material which imparts a stress on a channel region of a device, such as a junction gate field-effect transistor (JFET) or a metal-oxide-semiconductor field-effect transistor (MOSFET). A related method is also disclosed. | 06-30-2011 |
20130105941 | SEMICONDUCTOR DEVICE INCLUDING IN WAFER INDUCTORS, RELATED METHOD AND DESIGN STRUCTURE | 05-02-2013 |
20130256758 | INTEGRATED CIRCUIT STRUCTURE HAVING AIR-GAP TRENCH ISOLATION AND RELATED DESIGN STRUCTURE - A method of forming an integrated circuit structure includes: forming a vent via extending through a shallow trench isolation (STI) and into a substrate; selectively removing an exposed portion of the substrate at a bottom of the vent via to form an opening within the substrate, wherein the opening within the substrate abuts at least one of a bottom surface or a sidewall of the STI; and sealing the vent via to form an air gap in the opening within the substrate. | 10-03-2013 |
20140061727 | INTEGRATED CIRCUIT STRUCTURE HAVING AIR-GAP TRENCH ISOLATION AND RELATED DESIGN STRUCTURE - A method of forming an integrated circuit structure includes: forming a vent via extending through a shallow trench isolation (STI) and into a substrate; selectively removing an exposed portion of the substrate at a bottom of the vent via to form an opening within the substrate, wherein the opening within the substrate abuts at least one of a bottom surface or a sidewall of the STI; and sealing the vent via to form an air gap in the opening within the substrate. | 03-06-2014 |
20140151750 | HETEROJUNCTION BIPOLAR TRANSISTOR - Structures and methods of making a heterojunction bipolar transistor (HBT) device that include: an n-type collector region disposed within a crystalline silicon layer; a p-type intrinsic base comprising a boron-doped silicon germanium crystal that is disposed on a top surface of an underlying crystalline Si layer, which is bounded by shallow trench isolators (STIs), and that forms angled facets on interfaces of the underlying crystalline Si layer with the shallow trench isolators (STIs); a Ge-rich, crystalline silicon germanium layer that is disposed on the angled facets and not on a top surface of the p-type intrinsic base; and an n-type crystalline emitter disposed on a top surface and not on the angled lateral facets of the p-type intrinsic base. | 06-05-2014 |
20140246676 | BIPOLAR DEVICE HAVING A MONOCRYSTALLINE SEMICONDUCTOR INTRINSIC BASE TO EXTRINSIC BASE LINK-UP REGION - A bipolar device with an entirely monocrystalline intrinsic base to extrinsic base link-up region. To form the device, a first extrinsic base layer, which is amorphous or polycrystalline, is deposited such that it contacts an edge portion of a monocrystalline section of an intrinsic base layer through an opening in a dielectric layer. A second extrinsic base layer is deposited on the first. An anneal is performed, either before or after deposition of the second extrinsic base layer, so that the extrinsic base layers are monocrystalline. An opening is formed through the extrinsic base layers to a dielectric landing pad aligned above a center portion of the monocrystalline section of the intrinsic base layer. The dielectric landing pad is removed and a semiconductor layer is grown epitaxially on exposed monocrystalline surfaces of the extrinsic and intrinsic base layers, thereby forming the entirely monocrystalline intrinsic base to extrinsic base link-up region. | 09-04-2014 |
20140361300 | BIPOLAR DEVICE HAVING A MONOCRYSTALLINE SEMICONDUCTOR INTRINSIC BASE TO EXTRINSIC BASE LINK-UP REGION - Disclosed are bipolar devices, which incorporate an entirely monocrystalline link-up region between the intrinsic and extrinsic base layers, and methods of forming the devices. In the methods, a selective epitaxial deposition process grows monocrystalline semiconductor material for the extrinsic base layer on an exposed edge portion of a monocrystalline section of an intrinsic base layer. This deposition process is continued to intentionally overgrow the monocrystalline semiconductor material until it grows laterally and essentially covers a dielectric landing pad on a center portion of that same monocrystalline section of the intrinsic base layer. Subsequently, an opening is formed through the extrinsic base layer to the dielectric landing pad and the dielectric landing pad is selectively removed, thereby exposing monocrystalline surfaces only of the intrinsic and extrinsic base layers. A semiconductor layer is then formed by epitaxial deposition on the exposed monocrystalline surfaces, thereby forming the entirely monocrystalline link-up region. | 12-11-2014 |