Abstract: A universal headrest mounting collar which is engaged with the rods of a headrest on a vehicle seat back and supports a video monitor thereon for viewing by a passenger in a rear seat. The bracket can be secured at a fixed vertical position on the headrest rods and collar assemblies surrounding the rods are horizontally slidable in grooves formed in the base of the bracket assembly to accommodate different spacing between headrest rods by different vehicle manufacturers. The monitor mounting element is universally adjustable to modify the viewing angle of the monitor screen.

Abstract: A circuit for measuring distances and which has at least two inputs (1, 2), at least one measuring coil (3), and at least one signal source, wherein at least two input signals (epos, eneg) are generated by means of the signal source, and the inputs (1, 2) are activatable by means of the input signals (epos, eneg). The input signals (epos, eneg) are applied, preferably preprocessed, to the inputs of the measuring coil (3). The circuit is designed for use where little space is available for the circuit, with the input signals (epos, eneg) being applied to a preferably timed SC network, which generates a measuring output signal that is dependent on temperature. A corresponding method is also described.

Abstract: A portable survey instrument and methodology yield intensity of neutron radiation, intensity of gamma radiation, and a direction of impinging gamma radiation. The instrument uses a neutron detector surrounded by an essentially rectangular moderator with preferably four gamma ray detectors disposed symmetrically about the neutron detector and within the moderator. Material and dimensions of the moderator are selected so that the neutron measurement is equally sensitive to fast and thermal neutrons. The moderator also induces angular responses to the gamma ray detectors. Responses of the gamma ray detectors are combined to yield a parameter indicative of the angular position of a source. The survey instrument is portable and suited for hand held use.

Abstract: A monitor-housing assembly designed to removably mount a video monitor to facilitate disengaging of the monitor from the vehicle backrest for storage or use in a different location thereby minimizing theft and maximizing monitor utility.

Abstract: A circuit and method for demodulating at least one modulated signal (e), such as a measuring signal of a sensor. The circuit comprises at least one input (1), with the signal (e) being applied to the input (1), and the input is connected to at least one switched-capacitor network which is configured to demodulate the signal. The circuit permits use even in a small available space.

Abstract: A circuit arrangement (10) for activating a sensor and evaluating its signals, in particular for parametric sensors with complex impedances. The circuit arrangement comprises at least one sensor (2) for acquiring mechanical data. In order to minimize or largely prevent temperature caused disturbances in a constructionally simple layout, the measuring signal, the absolute temperature, and the gradient temperature of the sensor (2) are acquired simultaneously, preferably by means of a microprocessor or microcomputer (3). A corresponding method for activating sensors and evaluating their signals is also described.

Abstract: A circuit (1) for compensating for temperature with a sensor operating by the eddy current principle for measuring physical conditions of an object. The circuit includes an evaluation unit (3) for evaluating a measuring signal (100) of the sensor (2). The sensor (2) and the evaluation unit (3) are interconnected via a connection cable (4). For the purpose of minimizing or preventing to the greatest extent temperature caused interferences, an additional compensation line (5) is provided which compensates for the temperature of the connection cable (4). A corresponding method for compensating for temperature is described.

Abstract: A sensor arrangement with a first sensor (1) which comprises a measuring coil (2) that operates by the eddy current principle, and which detects the distance from a target (6), and a second sensor (3), the two sensors (1, 3) being arranged in a housing (4). To reduce the interaction of the sensors with each other, a panel (7) is positioned on the measuring side of the housing, with the panel being an active component of the second sensor (3). The second sensor is preferably a capacitive sensor, with the panel (7) being the active measuring surface of the capacitive sensor.

Abstract: A circuit for measuring distances comprising at least two inputs (1, 2), at least one measuring coil (3), and at least one signal source, wherein at least two input signals (epos, eneg) are generated by means of the signal source, and the inputs (1, 2) are activatable by means of the input signals (epos, eneg) The input signals (epos, eneg) are applied, preferably preprocessed, to the inputs of the measuring coil (3). The circuit is designed for use where little space is available for the circuit, with the input signals (epos, eneg) being applied to a preferably timed SC network, which generates a measuring signal and/or an output signal that is dependent on temperature. A corresponding method is also described.

Abstract: A device and a method for detecting the position of an object (1), such as an armature (2) of an inlet or outlet valve (3), with the device comprising at least two coils (4, 5), preferably two magnet coils, which can be energized for moving the object (1) between the two coils (4, 5), or used with an evaluation circuit for detecting the position of the object (1). The two coils (4, 5) are alternately used for moving the object (1) between the coils (4, 5) and for detecting the position of the object (1).

Abstract: A circuit (1) for compensating for temperature with a sensor operating by the eddy current principle for measuring physical conditions of an object. The circuit includes an evaluation unit (3) for evaluating a measuring signal (100) of the sensor (2). The sensor (2) and the evaluation unit (3) are interconnected via a connection cable (4). For the purpose of minimizing or preventing to the greatest extent temperature caused interferences, an additional compensation line (5) is provided which compensates for the temperature of the connection cable (4). A corresponding method for compensating for temperature is described.

Abstract: A method for linearizing a nonlinear curve with a linearization circuit (1), wherein the curve represents the relationship between input signals and output signals of a sensor. An output signal (100, 110, 120) of the sensor, which is respectively associated with an input signal, is displayed with respect to a simple and costfavorable linearization such that the adjustment of the linearization circuit (1) essentially occurs in an automated way by means of a sequence controller (2). A corresponding circuit is also described for practicing the method.

Abstract: A circuit and method for demodulating at least one modulated signal (e), such as a measuring signal of a sensor. The circuit comprises at least one input (1), with the signal (e) being applied to the input (1), and the input is connected to at least one switched-capacitor network which is configured to demodulate the signal. The circuit permits use even in a small available space.

Abstract: A sensor arrangement with a first sensor (1) which comprises a measuring coil (2) that operates by the eddy current principle, and which detects the distance from a target (6), and a second sensor (3), the two sensors (1, 3) being arranged in a housing (4). To reduce the interaction of the sensors with each other, a panel (7) is positioned on the measuring side of the housing, with the panel being an active component of the second sensor (3). The second sensor is preferably a capacitive sensor, with the panel (7) being the active measuring surface of the capacitive sensor.

Abstract: A circuit arrangement (10) for activating a sensor and evaluating its signals, in particular for parametric sensors with complex impedances. The circuit arrangement comprises at least one sensor (2) for acquiring mechanical data. In order to minimize or largely prevent temperature caused disturbances in a constructionally simple layout, the measuring signal, the absolute temperature, and the gradient temperature of the sensor (2) are acquired simultaneously, preferably by means of a microprocessor or microcomputer (3). A corresponding method for activating sensors and evaluating their signals is also described.

Abstract: A surgically implantable radioactive wrap is positioned around the wall of a body vessel, duct or passageway to maintain patency of these structures by mitigating overexuberant cellular proliferation. Such excessive cellular growth may occur as the result of a disease process or following a trauma or an intentional surgical or intravascular intervention. The device provides for delivery of ionizing radiation to a localized target tissue site. Integral design features provide for the shielding of non-targeted tissues and for the attachment of the device to the target tissue structure. A radiation attenuation element serves to absorb extraneous low-energy electrons incidentally emitted by the treatment source and provides for a more uniform radiation dose distribution through the full thickness of the target tissues. The wrap can be easily applied with minimal handling and with limited radiation exposure to operating personnel.

Abstract: A device and a method for detecting the position of an object (1), such as an armature (2) of an inlet or outlet valve (3), with the device comprising at least two coils (4, 5), preferably two magnet coils, which can be energized for moving the object (1) between the two coils (4, 5), or used with an evaluation circuit for detecting the position of the object (1). The two coils (4, 5) are alternately used for moving the object (1) between the coils (4, 5) and for detecting the position of the object (1).

Abstract: A method, in particular for monitoring, controlling and adjusting a process, wherein a signal processing instruction is synthesized on a computer-assisted user interface by arranging and connecting icons (6, 7), and generated by the computer from base modules containing individual instructions, one base module being allocated to each icon (6, 7), and the individual instructions of the selected base modules being linked to one another according to the graphic integration of the symbols (6, 7) for transmitting and/or processing data.

Abstract: A method for operating an eddy current sensor (10) with a measuring coil (2) and an evaluation circuit (4) for determining material or geometric parameters of a test object (5), in which the test object (5) is arranged at a distance (d) from the measuring coil (2). The impedance of the measuring coil (2) is evaluated, while the measuring coil (2) is being supplied with an alternating voltage of a predetermined frequency, and the evaluation circuit (4) determines the material and geometric parameters of the test object (5) based on the impedance of the measuring coil (2). The impedance of the measuring coil (2) is determined at an alternating voltage of a first frequency, and the impedance of the measuring coil (2) is determined at an alternating voltage of a second frequency, and the evaluation circuit (4) computes the material and geometric parameters of the test object (5) on the basis of the impedances of the measuring coil (2) at the first and the second frequencies.

Abstract: Eddy current sensor with an exploring coil (2) wound on a coil form (32), with two terminals (6, 7), a source of ac voltage, an electrically conductive measuring probe (3), and an evaluation circuit, wherein the measuring probe (3) is displaceable relative to the exploring coil (2), and the evaluation circuit generates an evaluation signal as a function of the position of the measuring probe (3), wherein the eddy current sensor comprises an electrode (4) with a tap (8) for enabling electrical contact, the electrode forming together with the windings of the exploring coil (2) and an intermediate layer (33) a component with distributed electromagnetic parameters, whose output signals are used to determine the position of the measuring probe (3).