Entries |
Document | Title | Date |
20080203522 | Structure Incorporating Latch-Up Resistant Semiconductor Device Structures on Hybrid Substrates - Device structure embodied in a machine readable medium for designing, manufacturing, or testing a design in which the design structure includes latch-up resistant devices formed on a hybrid substrate. The hybrid substrate is characterized by first and second semiconductor regions that are formed on a bulk semiconductor region. The second semiconductor region is separated from the bulk semiconductor region by an insulating layer. The first semiconductor region is separated from the bulk semiconductor region by a conductive region of an opposite conductivity type from the bulk semiconductor region. The buried conductive region thereby the susceptibility of devices built using the first semiconductor region to latch-up. | 08-28-2008 |
20080251882 | Semiconductor device and method of fabricating the same - A semiconductor device includes a first insulating isolation film provided on a main surface of a semiconductor substrate, an active region surrounded by the first insulating isolation film, and a second insulating isolation film provided on the main surface of the semiconductor substrate, having a thickness smaller than that of the first insulating isolation film and separating the active region into a first active region and a second active region. | 10-16-2008 |
20090072344 | SEMICONDUCTOR DEVICE AND METHOD OF FABRICATING THE SAME - A method for fabricating a semiconductor device includes forming an insulating pattern over a semiconductor substrate. An epitaxial growth layer is formed over the semiconductor substrate exposed by the insulating pattern to fill the insulating pattern with the epitaxial growth layer. A recess gate having a recess channel is formed. The recess channel is disposed between two neighboring insulating patterns. | 03-19-2009 |
20090160013 | SEMICONDUCTOR DEVICE HEAT DISSIPATION STRUCTURE - A heat generating component of a semiconductor device is located between two heavily doped semiconductor regions in a semiconductor substrate. The heat generating component may be a middle portion of a diode having a light doping, a lightly doped p-n junction between a cathode and anode of a silicon controlled rectifier, or a resistive portion of a doped semiconductor resistor. At least one thermally conductive via comprising a metal or a non-metallic conductive material is place directly on the heat generating component. Alternatively, a thin dielectric layer may be formed between the heat generating component and the at least one thermally conductive via. The at least one thermally conductive via may, or may not, be connected to a back-end-of-line metal wire, which may be connected to higher level of metal wiring or to a handle substrate through a buried insulator layer. | 06-25-2009 |
20090294897 | SEAL RING STRUCTURE FOR INTEGRATED CIRCUITS - A seal ring structure for an integrated circuit includes a seal ring disposed along a periphery of the integrated circuit, wherein the seal ring is divided into at least a first portion and a second portion, and wherein the second portion is positioned facing and shielding an analog and/or RF circuit block from a noise. A P+ region is provided in a P substrate and positioned under the second portion. A shallow trench isolation (STI) structure surrounds the P+ region and laterally extends underneath a conductive rampart of the second portion. | 12-03-2009 |
20100032794 | HIGH VOLTAGE DIODE WITH REDUCED SUBSTRATE INJECTION - A high voltage diode in which the n-type cathode is surrounded by an uncontacted heavily doped n-type ring to reflect injected holes back into the cathode region for recombination or collection is disclosed. The dopant density in the heavily doped n-type ring is preferably 100 to 10,000 times the dopant density in the cathode. The heavily doped n-type region will typically connect to an n-type buried layer under the cathode. The heavily doped n-type ring is optimally positioned at least one hole diffusion length from cathode contacts. The disclosed high voltage diode may be integrated into an integrated circuit without adding process steps. | 02-11-2010 |
20100096721 | Semiconductor device production method and semiconductor device - A semiconductor device production method according to the present invention includes the steps of: forming a LOCOS oxide film in a surface of a silicon layer by a LOCOS method; forming an impurity region in the silicon layer by introducing an impurity into the silicon layer; and sequentially removing parts of the LOCOS oxide film and the silicon layer to form a trench for isolation of the impurity region after the formation of the LOCOS oxide film and the impurity region. | 04-22-2010 |
20100117189 | DEEP TRENCH BASED FAR SUBCOLLECTOR REACHTHROUGH - A far subcollector, or a buried doped semiconductor layer located at a depth that exceeds the range of conventional ion implantation, is formed by ion implantation of dopants into a region of an initial semiconductor substrate followed by an epitaxial growth of semiconductor material. A reachthrough region to the far subcollector is formed by outdiffusing a dopant from a doped material layer deposited in the at least one deep trench that adjoins the far subcollector. The reachthrough region may be formed surrounding the at least one deep trench or only on one side of the at least one deep trench. If the inside of the at least one trench is electrically connected to the reachthrough region, a metal contact may be formed on the doped fill material within the at least one trench. If not, a metal contact is formed on a secondary reachthrough region that contacts the reachthrough region. | 05-13-2010 |
20110304009 | MEMS INTEGRATED CHIP WITH CROSS-AREA INTERCONNECTION - The present invention discloses a MEMS (Micro-Electro-Mechanical System) integrated chip with cross-area interconnection, comprising: a substrate; a MEMS device area on the substrate; a microelectronic device area on the substrate; a guard ring separating the MEMS device area and the microelectronic device area; and a conductive layer on the surface of the substrate below the guard ring, or a well in the substrate below the guard ring, as a cross-area interconnection electrically connecting the MEMS device area and the microelectronic device area. | 12-15-2011 |
20120007212 | SEMICONDUCTOR DEVICE HAVING A DIODE - Provided is a semiconductor device. The semiconductor device includes a lower active region on a semiconductor substrate. A plurality of upper active regions protruding from a top surface of the lower active region and having a narrower width than the lower active region are provided. A lower isolation region surrounding a sidewall of the lower active region is provided. An upper isolation region formed on the lower isolation region, surrounding sidewalls of the upper active regions, and having a narrower width than the lower isolation region is provided. A first impurity region formed in the lower active region and extending into the upper active regions is provided. Second impurity regions formed in the upper active regions and constituting a diode together with the first impurity region are provided. A method of fabricating the same is provided as well. | 01-12-2012 |
20120187526 | METHOD OF FORMING A SEMICONDUCTOR DEVICE TERMINATION AND STRUCTURE THEREFOR - At least one exemplary embodiment is directed to a semiconductor edge termination structure, where the edge termination structure comprises several conductivity layers and a buffer layer. | 07-26-2012 |
20120187527 | METHOD OF FORMING A SEMICONDUCTOR DEVICE TERMINATION AND STRUCTURE THEREFOR - At least one embodiment is directed to a semiconductor edge termination structure, where the edge termination structure comprises several doped layers and a buffer layer. | 07-26-2012 |
20120280356 | UNIFORMLY ALIGNED WELL AND ISOLATION REGIONS IN A SUBSTRATE AND RESULTING STRUCTURE - A solution for alleviating variable parasitic bipolar leakages in scaled semiconductor technologies is described herein. Placement variation is eliminated for edges of implants under shallow trench isolation (STI) areas by creating a barrier to shield areas from implantation more precisely than with only a standard photolithographic mask. An annealing process expands the implanted regions such their boundaries align within a predetermined distance from the edge of a trench. The distances are proportionate for each trench and each adjacent isolation region. | 11-08-2012 |
20130285196 | ESD PROTECTION CIRCUIT PROVIDING MULTIPLE PROTECTION LEVELS - An electrostatic discharge (ESD) protection circuit includes a substrate having a semiconductor surface. A plurality of stacked ESD protection cells are in the semiconductor surface each having a surrounding isolation structure, wherein the ESD protection cells are connected in series by an interconnect and include a first ESD protection cell in series with at least a second ESD protection cell. A plurality of protection pins include a first protection pin across the first ESD protection cell but not across the second ESD protection cell to provide a first voltage rating and a second protection pin across both the first and second ESD protection cell to provide a second voltage rating which is higher than the first voltage rating. | 10-31-2013 |
20130307112 | SUBSTRATE DIODE FORMED BY ANGLED ION IMPLANTATION PROCESSES - A substrate diode device having an anode and a cathode includes a doped well positioned in a bulk layer of an SOI substrate. A first doped region is positioned in the doped well, the first doped region being for one of the anode or the cathode, the first doped region having a first long axis and a second doped region positioned in the doped well. The second doped region is separate from the first doped region, the second doped region being for the other of the anode or the cathode, the second doped region having a second long axis that is oriented at an orientation angle with respect to the first long axis. | 11-21-2013 |
20130320487 | Semiconductor Device with Trench Structures - A semiconductor body of a semiconductor device includes a doped layer of a first conductivity type and one or more doped zones of a second conductivity type. The one or more doped zones are formed between the doped layer and the first surface of a semiconductor body. Trench structures extend from one of the first and the second opposing surface into the semiconductor body. The trench structures are arranged between portions of the semiconductor body which are electrically connected to each other. The trench structures may be arranged for mitigating mechanical stress, locally controlling charge carrier mobility, locally controlling a charge carrier recombination rate and/or shaping buried diffusion zones. | 12-05-2013 |
20140042587 | SEMICONDUCTOR-ON-INSULATOR DEVICE WITH ASYMMETRIC STRUCTURE - Device structures with a reduced junction area in an SOI process, methods of making the device structures, and design structures for a lateral diode. The device structure includes one or more dielectric regions, such as STI regions, positioned in the device region and intersecting the p-n junction between an anode and cathode. The dielectric regions, which may be formed using shallow trench isolation techniques, function to reduce the width of a p-n junction with respect to the width area of the cathode at a location spaced laterally from the p-n junction and the anode. The width difference and presence of the dielectric regions creates an asymmetrical diode structure. The volume of the device region occupied by the dielectric regions is minimized to preserve the volume of the cathode and anode. | 02-13-2014 |
20140070361 | DIFFUSION RESISTOR WITH REDUCED VOLTAGE COEFFICIENT OF RESISTANCE AND INCREASED BREAKDOWN VOLTAGE USING CMOS WELLS - Integrated circuits and manufacturing methods are presented for creating diffusion resistors ( | 03-13-2014 |
20160172314 | STRUCTURE TO PREVENT DEEP TRENCH MOAT CHARGING AND MOAT ISOLATION FAILS | 06-16-2016 |
20160197004 | ELECTRICALLY INSULATED FIN STRUCTURE(S) WITH ALTERNATIVE CHANNEL MATERIALS AND FABRICATION METHODS | 07-07-2016 |