Abstract: A method for producing deep trench structures in an STI structure of a semiconductor substrate is provided, with the following successive process steps: subsequent to a full-area filling of STI recesses introduced into a semiconductor substrate with a first filler material, a first surface of a semiconductor structure is subjected to a CMP process to level the applied filler material and produce the STI structure; the leveled STI structure thus produced is structured; using the structured, leveled STI structure as a hard mask, at least one deep trench is etched in the area of this STI structure to create the deep trench structures.

Abstract: The invention relates to a method for determining the filling time for filling at least one material separator (1) provided with a fill level sensor (12) and a requirement sensor (11) in delivery systems made of at least one reservoir (4) with bulk material. In the beginning, with empty lines (3, 6) and an empty material separator (1), the bulk material is delivered out of the reservoir (4) from the time the requirement sensor (11) is triggered until the fill level sensor (12) is triggered, and said delivery time (TREF1) is measured and stored. If the requirement sensor (11) is triggered again, the delivery is carried out again until the fill level sensor (12) is triggered, and said delivery time (TREF2), which corresponds to the delivery time for filling the material separator (1), is measured and stored, whereby bulk material is present in the lines (3, 6) from the first delivery.

Abstract: An electrostatic discharge (ESD) protection structure is disclosed. The ESD protection structure includes an active device. The active device includes a plurality of drains. Each of the drains has a contact row and at least one body contact row. The at least one body contact row is located on the active device in a manner to reduce the amount of voltage required for triggering the ESD protection structure.

Abstract: A method of forming a thin film on a substrate is described. The method comprises depositing a first material layer on a substrate using a first gas cluster ion beam (GCIB), the first material layer comprising a first atomic constituent, and growing a second material layer from at least a surface portion of the first material layer by introducing a second atomic constituent using a second GCIB, the second material layer comprising a reaction product of the first and second atomic constituents.

Abstract: Disclosed is a multi-nozzle and skimmer assembly for introducing a process gas mixture, or multiple process gases mixtures, in a gas cluster ion beam (GCIB) system, and associated methods of operation to grow, modify, deposit, or dope a layer upon a substrate. The multiple nozzle and skimmer assembly includes at least two nozzles arranged in mutual close proximity to at least partially coalesce the gas cluster beams emitted therefrom into a single gas cluster beam and/or angled to converge each beam toward a single intersecting point to form a set of intersecting gas cluster beams, and to direct the single and/or intersecting gas cluster beam into a gas skimmer.

Abstract: A gas cluster ion beam (GCIB) processing system using multiple nozzles for forming and emitting at least one GCIB and methods of operating thereof are described. The GCIB processing system may be configured to treat a substrate, including, but not limited to, doping, growing, depositing, etching, smoothing, amorphizing, or modifying a layer thereupon. Furthermore, the GCIB processing system may be operated to produce a first GCIB and a second GCIB, and to irradiate a substrate simultaneously and/or sequentially with the first GCIB and second GCIB.

Abstract: Disclosed are methods of operation to grow, modify, deposit, or dope a layer upon a substrate using a multi-nozzle and skimmer assembly for introducing a process gas mixture, or multiple process gases mixtures, in a gas cluster ion beam (GCIB) system. Also disclosed is a method of forming a shallow trench isolation (STI) structure on a substrate, for example, an SiO2 STI structure, using a multiple nozzle system with two separate gas supplies, for example providing a silicon-containing gas and an oxygen-containing gas.

Abstract: A workpiece or semiconductor wafer is tilted as a ribbon beam is swept up and/or down the workpiece. In so doing, the implant angle or the angle of the ion beam relative to the workpiece remains substantially constant across the wafer. This allows devices to be formed substantially consistently on the wafer. Resolving plates move with the beam as the beam is scanned up and/or down. This allows desired ions to impinge on the wafer, but blocks undesirable contaminants.

Abstract: One embodiment of the invention relates to an apparatus for profiling an ion beam. The apparatus includes a current measuring device having a measurement region, wherein a cross-sectional area of the ion beam enters the measurement region. The apparatus also includes a controller configured to periodically take beam current measurements of the ion beam and to determine a two dimensional profile of the ion beam by relating the beam current measurements to sub-regions within the current measuring device. Other apparatus and methods are also disclosed.

Abstract: A deflection component suitable for use in an ion implantation system comprises multiple electrodes that can be selectively biased to cause an ion beam passing therethrough to bend, deflect, focus, converge, diverge, accelerate, decelerate, and/or decontaminate. Since the electrodes can be selectively biased, and thus one or more of them can remain unbiased or off, the effective length of the beam path can be selectively adjusted as desired (e.g., based upon beam properties, such as energy, dose, species, etc.).

Abstract: A console is provided, in particular a central console for a vehicle, having a rail pair for the essentially horizontally displaceable accommodation of inserts of the console between the rails of the rail pair in guides of the rails, as well as a storage space between the inserts and the floor of the vehicle. For such a console, it is provided that the rails are implemented as freestanding brackets, the brackets at least being mounted in the floor of the vehicle, an essentially horizontally situated section of the particular bracket, which is distal from the floor, having at least one guide. Such a console offers high flexibility in regard to the storage space usable in this area with structurally simple design and may be advantageously used both with and also without the inserts in this aspect.

Abstract: A method of forming a thin film on a substrate is described. The method comprises providing a substrate in a reduced-pressure environment, and generating a gas cluster ion beam (GCIB) in the reduced-pressure environment from a pressurized gas mixture. A beam acceleration potential and a beam dose are set to achieve a thickness of the thin film ranging up to about 300 angstroms and to achieve a surface roughness of an upper surface of the thin film that is less than about 20 angstroms. The GCIB is accelerated according to the beam acceleration potential, and the accelerated GCIB is irradiated onto at least a portion of the substrate according to the beam dose. By doing so, the thin film is grown on the at least a portion of the substrate to achieve the thickness and the surface roughness.

Abstract: A method and system for fabricating a stacked capacitor and a DMOS transistor are disclosed. In one aspect, the method and system include providing a bottom plate, an insulator, and an additional layer including first and second plates. The insulator covers at least a portion of the bottom plate and resides between the first and second top plates and the bottom plate. The first and second top plates are electrically coupled through the bottom plate. In another aspect, the method and system include forming a gate oxide. The method and system also include providing SV well(s) after the gate oxide is provided. A portion of the SV well(s) resides under a field oxide region of the device. Each SV well includes first, second, and third implants having a sufficient energy to provide the portion of the SV well at a desired depth under the field oxide region without significant additional thermal processing. A gate, source, and drain are also provided.

Abstract: An ion implanter system including an ion source for use in creating a stream or beam of ions. The ion source has an ion source chamber housing that at least partially bounds an ionization region for creating a high density concentration of ions within the chamber housing. An ion extraction aperture of desired characteristics covers an ionization region of the chamber. In one embodiment, a movable ion extraction aperture plate is moved with respect to the housing for modifying an ion beam profile. One embodiment includes an aperture plate having at least elongated apertures and is moved between at least first and second positions that define different ion beam profiles. A drive or actuator coupled to the aperture plate moves the aperture plate between the first and second positions. An alternate embodiment has two moving plate portions that bound an adjustable aperture.

Abstract: Method for manufacturing a semiconductor array, in which a conductive substrate (100), a component region (400), and an insulation layer (200), isolating the component region (400) from the conductive substrate (100), are formed, a trench (700) is etched in the component region (400) as far as the insulation layer (200), then the trench (700) is etched further as far as the conductive substrate (100), the walls (701) of the trench (700) are formed with an insulation material (710), and an electrical conductor (750, 755, 760) is introduced into the trench (700) and connected conductively to the conductive substrate (100), wherein before the trench (700) is etched, a layer sequence comprising a first oxide layer (510), a polysilicon layer (520) on top of the first oxide layer (510), and a second oxide layer (530) on top of the polysilicon layer (520) is applied to the component region (400).

Abstract: A focusing particle trap system for ion implantation comprising an ion beam source that generates an ion beam, a beam line assembly that receives the ion beam from the ion beam source comprising a mass analyzer that selectively passes selected ions, a focusing electrostatic particle trap that receives the ion beam and removes particles from the ion beam comprising an entrance electrode comprising an entrance aperture and biased to a first base voltage, wherein the first surface of the entrance electrode is facing away from a center electrode and is approximately flat, wherein the second surface of the entrance electrode is facing toward the center electrode and is concave, wherein the center electrode is positioned a distance downstream from the entrance electrode comprising a center aperture and biased to a center voltage, wherein the center voltage is less than the first base voltage, wherein the first surface of the center electrode is facing toward the entrance electrode and is convex, wherein the second

Abstract: An ion beam is rapidly switched off during ion implantation on detecting a beam instability. The ion beam is generated or provided by a non-arc discharge based ion source, such as an electron gun ion source or an RF ion source. The ion beam is scanned across a workpiece from a starting location toward an ending location. During the scanning, one or more beam characteristics are monitored, such as beam current, beam flux, shape, and the like. An instability is detected when one or more of the beam characteristics deviate from acceptable values or levels. The ion beam is rapidly turned off on the detected instability.

Abstract: A mounting of a container in a rail pair is provided, which is disposed in a passenger compartment of a motor vehicle, and the rails of the rail pair have substantially horizontally extending guide grooves on the mutually facing sides and a projection is mounted in the container on its side facing the respective rail, and the respective guide groove has a cross section which expands from the groove base and the respective projection has a corresponding cross section which is expanded toward the container.

Abstract: A method and system for fabricating a stacked capacitor and a DMOS transistor are disclosed. In one aspect, the method and system include providing a bottom plate, an insulator, and an additional layer including first and second plates. The insulator covers at least a portion of the bottom plate and resides between the first and second top plates and the bottom plate. The first and second top plates are electrically coupled through the bottom plate. In another aspect, the method and system include forming a gate oxide. The method and system also include providing SV well(s) after the gate oxide is provided. A portion of the SV well(s) resides under a field oxide region of the device. Each SV well includes first, second, and third implants having a sufficient energy to provide the portion of the SV well at a desired depth under the field oxide region without significant additional thermal processing. A gate, source, and drain are also provided.

Abstract: A method derives a terminal return current or upstream current to adjust and/or compensate for variations in beam current during ion implantation. One or more individual upstream current measurements are obtained from a region of an ion implantation system. A terminal return current, or composite upstream current, is derived from the one or more current measurements. The terminal return current is then employed to adjust scanning or dose of an ion beam in order to facilitate beam current uniformity at a target wafer.