Abstract: The present invention generally relates to a vertical CVD system having a processing chamber that is capable of processing multiple substrates. The multiple substrates are disposed on opposite sides of the processing source within the processing chamber, yet the processing environments are not isolated from each other. The processing source is a horizontally centered vertical plasma generator that permits multiple substrates to be processed simultaneously on either side of the plasma generator, yet independent of each other. The system is arranged as a twin system whereby two identical processing lines, each with their own processing chamber, are arranged adjacent to each other. Multiple robots are used to load and unload the substrates from the processing system. Each robot can access both processing lines within the system.

Abstract: The present invention generally relates to a vertical CVD system having a processing chamber that is capable of processing multiple substrates. The multiple substrates are disposed on opposite sides of the processing source within the processing chamber, yet the processing environments are not isolated from each other. The processing source is a horizontally centered vertical plasma generator that permits multiple substrates to be processed simultaneously on either side of the plasma generator, yet independent of each other. The system is arranged as a twin system whereby two identical processing lines, each with their own processing chamber, are arranged adjacent to each other. Multiple robots are used to load and unload the substrates from the processing system. Each robot can access both processing lines within the system.

Abstract: An apparatus for determining and/or monitoring at least one process variable. The apparatus comprises at least one housing, which has at least a housing lower part and a housing lid. The housing lower part and the housing lid are connected together by at least one connecting element.

Abstract: A device for representing and/or displaying various process and/or controlled variables for selectable application cases on a display unit, with bar graphs being arranged in respective, predetermined surface elements (A, B, C), with each bar graph, respectively each surface element (A, B, C), having a defined form and/or a defined position on the display. A control unit assembles bar graphs, respectively corresponding surface elements (A, B, C), mosaic-like in a display in such a manner that the resulting bar graph display is matched to a selected application case.

Abstract: A rocker pendulum for a motor vehicle has an oblong basic body via at least one fastening element, wherein the basic body is a hollow extruded section.

Abstract: A rocker pendulum for a motor vehicle, has an elongated, especially hollow basic body (1). The basic body (1, 11, 21, 31) has at least one section (1a, 11a, 21a, 31a), which forms or has a bearing shell of a ball and socket joint.

Abstract: A device for representing and/or displaying various process and/or controlled variables for selectable application cases on a display unit, with bar graphs being arranged in respective, predetermined surface elements (A, B, C), with each bar graph, respectively each surface element (A, B, C), having a defined form and/or a defined position on the display. A control unit assembles bar graphs, respectively corresponding surface elements (A, B, C), mosaic-like in a display in such a manner that the resulting bar graph display is matched to a selected application case.

Abstract: A method and apparatus for combining pressure information from pressure sensors, motion information from dead reckoning or other motion sensors, such as accelerometers, gyroscopes, and geomagnetic sensors, and temperature information from temperature sensors, to separate a change in altitude from a change in environmental pressure or temperature. A change in measured pressure without any motion or change in temperature must be a weather-related barometric pressure change. If there is an associated temperature change, but no motion, and the rate of change is too fast for a normal weather change, the measured change represents a change in sensitivity of the pressure sensor with temperature, and the sensor calibration can be adjusted. A rapid change in pressure, associated with horizontal motion, but no measurable vertical motion represents a movement into a different pressure environment. Only changes in pressure that are associated with measurable vertical motion are true changes in altitude.

Abstract: A method of manufacturing plastic containers. The method may comprise the steps of (1) forming a plastic container from a preform in a blow-molder, where the blow-molder comprises a plurality of molds and spindles; and (2) inspecting the plastic container after formation in the blow-molder. The containers are inspected by impinging infrared light thereon and detecting the portion of the infrared light that passes through the container and converting the same into corresponding electrical signals which are delivered to a microprocessor. The microprocessor receives signals from sensors associated with the blow-molder relating to the position of the molds, the identity of the molds and the identity of the spindles in order that the information that is determined by inspection can be associated with specific molds and spindles. The information may be visually displayed so as to provide feedback regarding the inspection process.

Abstract: An apparatus (10) is used in a vehicle having a vehicle seat (2) for a vehicle occupant and a vehicle floor pan (4) for supporting the vehicle seat (2). The apparatus (10) includes a vehicle seat frame (20), a sensor (99), and a member (60). The vehicle seat frame (20) supports a load of the vehicle occupant in the vehicle seat (2). The vehicle seat frame (20) is movable vertically upon application of a vertical load to the vehicle seat frame (20). The sensor (99) transfers the load of the vehicle occupant in the vehicle seat (2) from the vehicle seat frame (20) to the vehicle floor pan (4). The sensor (99) detects a part of the load of the vehicle occupant and provides an output signal indicative of the amount of the part of the load transferred. The member (60) damps force transferred by the vehicle seat (2) and the vehicle seat frame (20) to the vehicle floor pan (4). The member (60) is interposed between the vehicle floor pan (4) and the sensor (99).

Abstract: An apparatus (10) is used in a vehicle having a seat (2) for a vehicle occupant and a vehicle floor pan (4) for supporting the vehicle seat (2). The apparatus (10) includes a vehicle seat frame (20), a bracket (30), a spring element (240, 340 or 340, 350), a lever (90), and a sensor (992). The spring element (240, 340 or 340, 350) compresses to allow the vehicle seat frame (20) to move vertically when the load of the vehicle occupant acts on the vehicle seat (2). The lever (90) has a first end portion (100) and a second end portion (110) opposite the first end portion (100). The first end portion (100) is movable with the vehicle seat frame (20). The second end portion (110) is movable with the vehicle seat frame (20). The lever (90) has a middle portion (120) interposed between the first end portion (100) and the second end portion (110). The lever (90) bends as the vehicle seat frame (20) moves vertically relative to the bracket (30).

Abstract: An apparatus (10) is used with a vehicle seat (2) and a vehicle floor pan (4) for supporting the vehicle seat. A sensor lever (100) transmits the load of the vehicle occupant from the vehicle seat (2) to the vehicle floor pan (4). The sensor lever (100) has a first end portion (102), a second end portion (112), and a middle portion (122) interposed between the first end portion and the second end portion. The middle portion (122) of the sensor lever (100) is movable with the vehicle seat (2). The sensor lever (100) has a first sensor portion (107) disposed between the middle portion (122) and the first end portion (102). The sensor lever (100) has a second sensor portion (109) disposed between the middle portion (122) and the second end portion (112). The first and second sensor portions (107, 109) bend as the vehicle seat (2) moves vertically relative to the vehicle floor pan (4).

Abstract: A microreactor (10) for investigation of material reactions and properties includes a core body (12) defining a chamber (22) adapted to contain one or more sample materials and having a fluid passageway (52) from the chamber to the exterior of the core body. The chamber is in fluid communication with an external manifold (50) whereby gases, liquids or fluids can be injected and their activities can be controlled externally from ambient conditions to 400 degrees Celsius and 4,500 psi. Transparent windows (30a, 30b) in the core body permit continuous visual access to the chamber, allow direct probe beam interaction with sample during a reaction or observation, and external detection of the probe beam to investigate in situ reaction processes.

Abstract: A tool for the rotation of sockets, screws, nuts, or other fasteners or the like and a method for securing a fastener are provided. The tool may have a body having an interior area wherein the interior area has walls which are parallel and have sections having different widths between the sections. Further, the tool may have a first portion which may have widths sized to receive fasteners based on, for example, a metric system. A second portion may have widths sized to receive fasteners based on, for example, English units of measurement. The tool may be placed around a fastener wherein the fastener contacts sections which are separated by a width sufficient to fit around the fastener. The tool may then be rotated to secure or remove the fastener.

Abstract: A method of inspecting wall thickness of blow-molded plastic containers includes providing a blow-molder having a plurality of molds and a plurality of associated spindles. The containers are inspected by impinging infrared light thereon and detecting the portion of the infrared light that passes through the container and converting the same into corresponding electrical signals which are delivered to a microprocessor. The microprocessor compares the electrical signals with stored information regarding desired wall thickness of the container and emits output thickness information. The microprocessor receives signals from sensors associated with the blow-molder relating to the position of the molds, the identity of the molds and the identity of the spindles in order that the wall thickness information that is determined by inspection can be associated with specific molds and spindles. The wall thickness information may be averaged over a period of time or a number of containers.

Abstract: A rocker pendulum for a motor vehicle has an oblong basic body (1, 101, 201, 301, 401, 501, 601, 701). The basic body (1, 101, 201, 301, 401, 501, 601, 701), which can be connected to a motor vehicle component (B) via at least one said fastening element (2, 102, 202, 302, 402, 502, 602, 702). The basic body (1, 101, 201, 301, 401, 501, 601, 701) is a hollow extruded section.

Abstract: A rocker pendulum for a motor vehicle, has an elongated, especially hollow basic body (1). The basic body (1, 11, 21, 31) has at least one section (1a, 11a, 21a, 31a), which forms or has a bearing shell of a ball and socket joint.

Abstract: The invention relates to a modularly expandable housing, of the type referred to as a top-hat rail housing, which is used in the process measurement/process control technologies. The housing exhibits a predetermined number of receiving slots. A corresponding number of insertion modules is provided, which are insertable into the receiving slots. Each insertion module has a releasable locking device, by way of which each insertion module is lockable in a receiving slot or removable from the receiving slot.

Abstract: A method of delivering oxygen to a biological entity comprising of dissolving oxygen into a perfusate and forcing the perfusate through the biological entity whereby substantially high levels of oxygen are available to satisfy the biological demand of the biological entity. An apparatus for supplying oxygen to a biological entity whereby substantially high levels of oxygen are available to satisfy the metabolic demand of said biological entity. An apparatus for supplying metabolic supplements to a biological entity whereby the effect of said metabolic supplement on said biological entity can be monitored. The method and apparatus keeps a biological entity such as an organ viable at a range of temperatures while in an aerobic state. This allows the study of said organ from a physiological or experimental standpoint. It allows said organ to be transplanted with little or no reperfusion injury, thus increased survivability over the prior art.

Abstract: A method of delivering oxygen to a biological entity comprising of dissolving oxygen into a perfusate and forcing the perfusate through the biological entity whereby substantially high levels of oxygen are available to satisfy the biological demand of the biological entity. An apparatus for supplying oxygen to a biological entity whereby substantially high levels of oxygen are available to satisfy the metabolic demand of said biological entity. An apparatus for supplying metabolic supplements to a biological entity whereby the effect of said metabolic supplement on said biological entity can be monitored. The method and apparatus keeps a biological entity such as an organ viable at a range of temperatures while in an aerobic state. This allows the study of said organ from a physiological or experimental standpoint. It allows said organ to be transplanted with little or no reperfusion injury, thus increased survivability over the prior art.