Abstract: Provided are methods, systems, and apparatuses for telematics navigation.

Abstract: Provided are methods, systems, and apparatuses for telematics navigation.

Abstract: An apparatus, system, and method for a capacitance change non-volatile memory device. The apparatus may include a substrate, a source region in the substrate, a drain region in the substrate, a tunnel oxide layer on the substrate substantially between the source region and the drain region, a floating gate layer on the tunnel oxide layer, a resistance changing material layer on the floating gate layer, and a control gate on the resistance changing material layer.

Abstract: A telematics method and system facilitates customizing a plurality of vehicle content files, parameters, and features based on edits and selections from a user interface. A telematics provider maintains a database comprising a table, or tables that associate(s) user identification information with a vehicle VIN and equipment/features/content installed in/on vehicle devices associated with the VIN. Database updates may occur automatically, or upon a user instruction, when a TCU wirelessly transmits current equipment, content, and feature configuration information to a TOC coupled with the database. The telematics provider's server may provide the interface that facilitates the user logging in and editing features, content, and operational and performance parameters currently configured/installed in/on the vehicle' equipment and devices.

Abstract: Provided are methods, systems, and apparatuses for telematics navigation.

Abstract: A pneumatic tool (20) for impacting a workpiece (22) is provided. The tool (20) comprises a casing (42) defining a chamber (48). A piston (54) is slidable within the chamber (48) along an operational axis (A). An exhaust valve (100) controlled by a pilot valve (200) slides the piston (54) by selectively introducing and releasing pressurized fluid into and out from the chamber (48). The pilot valve (200) includes a valve housing (202) defining a pilot chamber (204) with a plunger (206) slidable in the pilot chamber (204). The pilot valve (200) actuates the tool (20) by quickly releasing pressurized fluid from the exhaust valve (100) to atmosphere. The pilot valve (200) includes a spring-biased annular seal (214) that is releasable from a poppet seat (222) to perform this function.

Abstract: A pneumatic tool (20) for impacting a workpiece (22) is provided. The tool (20) comprises a casing (42) defining a chamber (48). A piston (54) is slidable within the chamber (48) along an operational axis (A). An exhaust valve (100) controlled by a pilot valve (200) slides the piston (54) by selectively introducing and releasing pressurized fluid into and out from the chamber (48). The pilot valve (200) includes a valve housing (202) defining a pilot chamber (204) with a plunger (206) slidable in the pilot chamber (204). The pilot valve (200) actuates the tool (20) by quickly releasing pressurized fluid from the exhaust valve (100) to atmosphere. The pilot valve (200) includes a spring-biased annular seal (214) that is releasable from a poppet seat (222) to perform this function.

Abstract: A trench device and method for fabricating same are provided. The trench device has a collar with a first portion that is doped and a second portion that is undoped. Fabrication of the partially doped collar can be done by deposition of a doped insulator in the trench, removal of a portion of the doped deposition, deposition of an undoped insulator in the trench and removal of a portion of the doped and undoped insulators.

Abstract: A pneumatic tool (20) for impacting a workpiece (22) is provided. The tool (20) comprises a casing (42) defining a chamber (48). A piston (54) is slidable within the chamber (48) along an operational axis (A). An exhaust valve (100) controlled by a pilot valve (200) slides the piston (54) by selectively introducing and releasing pressurized fluid into and out from the chamber (48). The pilot valve (200) includes a valve housing (202) defining a pilot chamber (204) with a plunger (206) slidable in the pilot chamber (204). The pilot valve (200) actuates the tool (20) by quickly releasing pressurized fluid from the exhaust valve (100) to atmosphere. The pilot valve (200) includes a spring-biased annular seal (214) that is releasable from a poppet seat (222) to perform this function.

Abstract: A pneumatic tool (20) for impacting a workpiece (22) is provided. The tool (20) comprises a casing (42) defining a chamber (48). A piston (54) is slidable within the chamber (48) along an operational axis (A). An exhaust valve (100), controlled by a pilot valve (200), slides the piston (54) by selectively introducing and releasing pressurized fluid into and out from the chamber (48). A tool bit (24) is slidable within the chamber (48) to impact the workpiece (22). Kinetic energy is transferred to the tool bit (24) from the piston (54) via an impact from the piston (54) as the piston (54) slides within the chamber (48). A shock absorbing valve (500) includes a floating collar (502) that is slidable along the casing (42) between two seal rings (504). A handle (34) is mounted to the floating collar (502).

Abstract: A pneumatic tool (20) for impacting a workpiece (22) is provided. The tool (20) comprises a casing (42) defining a chamber (48). A piston (54) is slidable within the chamber (48) along an operational axis (A). An exhaust valve (100), controlled by a pilot valve (200), slides the piston (54) by selectively introducing and releasing pressurized fluid into and out from the chamber (48). A tool bit (24) is slidable within the chamber (48) to impact the workpiece (22). Kinetic energy is transferred to the tool bit (24) from the piston (54) via an impact from the piston (54) as the piston (54) slides within the chamber (48). A shock absorbing valve (500) includes a floating collar (502) that is slidable along the casing (42) between two seal rings (504). A handle (34) is mounted to the floating collar (502).

Abstract: A pneumatic tool (20) for impacting a workpiece (22) is provided. The tool (20) comprises a casing (42) defining a chamber (48). A piston (54) is slidable within the chamber (48) along an operational axis (A). An exhaust valve (100) controlled by a pilot valve (200) slides the piston (54) by selectively introducing and releasing pressurized fluid into and out from the chamber (48). A tool bit (24) is slidable within the chamber (48) to impact the workpiece (22). Kinetic energy is transferred to the tool bit (24) from the piston (54) via an impact from the piston (54) as the piston (54) slides within the chamber (48). An energy absorbing mechanism (402) reduces the kinetic energy of the tool bit (24) after impact by the piston (54). The energy absorbing mechanism comprises a sleeve (404) that slides along the casing (42) and first (412) and second (414) pressure chambers that dissipate the kinetic energy of the tool bit (24) in multiple stages.

Abstract: A method for monitoring a nitridation process, including: (a) providing a semiconductor substrate; (b) forming a first dielectric layer on a top surface of the substrate; (c) introducing a quantity of interfacial species into the substrate; (d) removing the first dielectric layer; (e) forming a second dielectric layer on the top surface of the substrate; (f) measuring the density of interface traps between the substrate and the second dielectric layer; (g) providing a predetermined relationship between the quantity of the interfacial species and the density of the interface traps; and (h) determining the quantity of the interfacial species introduced based on the relationship.

Abstract: Gate oxides having different thicknesses are formed on a semiconductor substrate by forming a first gate oxide on the top surface of the substrate, forming a sacrificial hard mask over a selected area of the first gate oxide; and then forming a second gate oxide. A first poly layer may be formed on the first gate oxide, under the hard mask. After the hard mask is removed, a second poly layer may be formed over the second gate oxide and over the first poly layer. This enables the use of high-k dielectric materials, and the first gate oxide can be thinner than the second gate oxide.

Abstract: A method for monitoring a nitridation process, including: (a) providing a semiconductor substrate; (b) forming a first dielectric layer on a top surface of the substrate; (c) introducing a quantity of interfacial species into the substrate; (d) removing the first dielectric layer; (e) forming a second dielectric layer on the top surface of the substrate; (f) measuring the density of interface traps between the substrate and the second dielectric layer; (g) providing a predetermined relationship between the quantity of the interfacial species and the density of the interface traps; and (h) determining the quantity of the interfacial species introduced based on the relationship.

Abstract: A method of fabricating a capacitor including an ultra-high vacuum chemical vapor deposition (UHVCVD) step to generate a top-side barrier film layer including silicon nitride at monolayer quantities, and a capacitor so formed, are disclosed. The UHVCVD step allows silicon nitride to be deposited with monolayer level control, and is more successful at placing the nitrogen near the top surface independent of the base film thickness. The resulting capacitor exhibits thermal stability and meets leakage targets after, for example, an approximately 1050° C. thermal treatment. In addition, the UHVCVD nitride step allows for an in situ thermal clean and simpler process control because the reaction is thermally driven.

Abstract: A device for stirring molten metal in a continuous casting operation in which the molten metal flows in a controlled manner from a reservior, via a spout, to an ingot mold is presented. The stirring device comprises an electro-magnetic inductor which is displaceable transversely in relation to the metal casting line with its magnetic core consisting of a unitary part with several arms arranged around the casting line at a distance from the latter and directed radially inwardly towards the casting line. In accordance with a first embodiment of the present invention, the core has three arms which are each provided with an electromagnetic winding and which form, between them, angles of 120.degree.. The inductor is preferably arranged around the spout, but similar inductors may be arranged around the casting line in the secondary cooling zone.

Abstract: A solar reflector panel includes a glass reflector element held by a thermoset plastic backing. The backing is molded around the reflector element to provide lips to lock the element in place on the backing.