Abstract: The present invention relates to a radiation imaging sensor with at least one detection element, which is implemented on a substrate as a micromechanical resonator and which absorbs the radiation to be detected. The resonator is set into a resonant oscillation with an excitation device and a shift in the resonance frequency of the detection element under exposure to radiation is detected with a detection device. The radiation sensor is characterized by the fact that it comprises a scanning device with a single-axis or multi-axis tiltable scanning element. The facility to tilt the device means that the detection element can be used to detect radiation from different directions. The imaging sensor can be realized in a compact manner and be economically produced.

Abstract: A method for activating a deflection device comprising at least one deflection unit, for a projection device for projecting trajectories upon a projection surface, wherein the deflection device deflects electromagnetic radiation which is directed upon it, for producing trajectories, and the at least one deflection unit is activated by way of an activation signal delivered from a control device, for producing oscillations in each case with a turning amplitude at a direction change of the oscillation, about at least one deflection axis, wherein in the case of resonance, the oscillations have a maximal amplitude, at which the produced trajectories reach an edge of the projection surface.

Abstract: In a method for planning a power distribution network for an installation having a multiplicity of power consumers, time-dependent load profiles for the power consumers are created as a function of a change, over time, in inertial masses to be speeded up, slowed down and/or kept in motion using the power consumers, and time-dependent power profiles are created for the power consumers. A network plan is created for the power distribution network, and a time-dependent power profile is computed for the installation. Network components of the power distribution network are dimensioned as a function of the computed time-dependent power demands on the network components.

Abstract: A method for activating a deflection device comprising at least one deflection unit, for a projection device for projecting trajectories upon a projection surface, wherein the deflection device deflects electromagnetic radiation which is directed upon it, for producing trajectories, and the at least one deflection unit is activated by way of an activation signal delivered from a control device, for producing oscillations in each case with a turning amplitude at a direction change of the oscillation, about at least one deflection axis, wherein in the case of resonance, the oscillations have a maximal amplitude, at which the produced trajectories reach an edge of the projection surface.

Abstract: The invention relates to a deflection device for a projection apparatus for projecting Lissajous figures onto an observation field which is made to deflect a light beam about at least one first and one second deflection axis for generating Lissajous figures having a deflection unit for producing oscillations about the deflection axes and having a control apparatus for producing control signals for the deflection unit having a first and second control frequency which substantially corresponds to the resonant frequencies of the deflection unit, wherein the deflection unit has a quality factor of >3,000 and the control apparatus includes a feedback loop which is configured to regulate the first and/or second control frequencies in dependence on a measured phasing of the oscillations of the deflection unit so that the maximum amplitude of the oscillations remains in the resonant range of the deflection unit.

Abstract: The present invention relates to a radiation imaging sensor with at least one detection element, which is implemented on a substrate as a micromechanical resonator and which absorbs the radiation to be detected. The resonator is set into a resonant oscillation with an excitation device and a shift in the resonance frequency of the detection element under exposure to radiation is detected with a detection device. The radiation sensor is characterized by the fact that it comprises a scanning device with a single-axis or multi-axis tiltable scanning element. The facility to tilt the device means that the detection element can be used to detect radiation from different directions. The imaging sensor can be realized in a compact manner and be economically produced.

Abstract: The invention relates to a micromechanical Coriolis rate of rotation sensor for detecting rates of rotation with components around measuring axes in three spatial directions which are orthogonal to one another. The Coriolis rate of rotation sensor has a substrate, a detection mass and at least two drive masses, wherein the drive masses can each be driven to perform a primary movement relative to the substrate. The direction of the primary movement of one of the at least two drive masses is perpendicular to the direction of the primary movement of another of the at least two drive masses. The detection mass is coupled to the drive masses. The invention also relates to an Inertial Measurement Unit (IMU) and to a method for detecting rates of rotation in three spatial directions which are orthogonal to one another.

Abstract: A deflection device for a scanner with Lissajous scanning includes a micromirror that oscillates in at least two deflection axes and that includes a frame and a mirror plate that is movably arranged via a suspension mount. The deflection device also includes a control device for generating control signals for a resonant operation of the micromirror in the at least two deflection axes. The suspension mount includes at least one spring connected at one end to the mirror plate and at the other end to the frame. The frequencies of the control signals for the resonant operation of the micromirror are substantially equal in the at least two deflection axes, but differ at least in terms of the predefined scanning repetition rate. The levels of the resonance frequencies of the deflection axes and control signals are determined by a predefined scanning resolution and a predefined scanning repetition rate.

Abstract: Exemplary embodiments relate to a sensor for detecting an acceleration acting on the sensor, having: a substrate, a mass unit, which acts as an inert mass in the event of the presence of an acceleration, a fixing structure, wherein the mass unit is articulated on the substrate in such a way that at least one pivot axis is defined, about which the mass unit can perform a rotation relative to the substrate as a result of an acceleration acting on the sensor, and the mass unit has an interial center of gravity, which is at a distance from the respective pivot axis, and at least one detection unit, with which a change in position between the mass unit and the substrate may be detected. The detection unit is arranged with respect to the mass unit in such a way that a deformation of the mass unit cannot be transferred to the detection unit.

Abstract: A deflection device for a scanner with Lissajous scanning includes a micromirror that oscillates in at least two deflection axes and that includes a frame and a mirror plate that is movably arranged via a suspension mount. The deflection device also includes a control device for generating control signals for a resonant operation of the micromirror in the at least two deflection axes. The suspension mount includes at least one spring connected at one end to the mirror plate and at the other end to the frame. The frequencies of the control signals for the resonant operation of the micromirror are substantially equal in the at least two deflection axes, but differ at least in terms of the predefined scanning repetition rate. The levels of the resonance frequencies of the deflection axes and control signals are determined by a predefined scanning resolution and a predefined scanning repetition rate.

Abstract: The invention relates to a deflection device for a projection apparatus for projecting Lissajous figures onto an observation field which is made to deflect a light beam about at least one first and one second deflection axis for generating Lissajous figures having a deflection unit for producing oscillations about the deflection axes and having a control apparatus for producing control signals for the deflection unit having a first and second control frequency which substantially corresponds to the resonant frequencies of the deflection unit, wherein the deflection unit has a quality factor of >3,000 and the control apparatus includes a feedback loop which is configured to regulate the first and/or second control frequencies in dependence on a measured phasing of the oscillations of the deflection unit so that the maximum amplitude of the oscillations remains in the resonant range of the deflection unit.

Abstract: A rotation rate sensor for sensing a rotation ? by which the sensor is rotated has a substrate and a driving and sensing arrangement located substantially flat in an X-Y plane above a substrate surface of the substrate and having a center. The driving and sensing arrangement has a drive mass and a sense mass that are arranged at different spacings from the center of the driving and sensing arrangement symmetrically about the center. The oscillation modes of the drive mass and the sense mass are partially transmittable onto one another and are partially decoupled. The rotation ? is sensed in that a tilting of the sense mass out of a surface plane of the driving and sensing arrangement is sensed.

Abstract: The invention relates to a micromechanical Coriolis rate of rotation sensor for detecting rates of rotation with components around measuring axes in three spatial directions which are orthogonal to one another. The Coriolis rate of rotation sensor has a substrate, a detection mass and at least two drive masses, wherein the drive masses can each be driven to perform a primary movement relative to the substrate. The direction of the primary movement of one of the at least two drive masses is perpendicular to the direction of the primary movement of another of the at least two drive masses. The detection mass is coupled to the drive masses. The invention also relates to an Inertial Measurement Unit (IMU) and to a method for detecting rates of rotation in three spatial directions which are orthogonal to one another.

Abstract: A bearing device comprising: an at least partially hollow structural element having a first wall region provided with an opening and a second wall region, the first and second wall regions being located opposite one another; and a punching bushing provided for bearing at least one separate component, the punching bushing comprising a punching blade being in jam contact with a punched out opening of the second wall region such that the punching bushing connects the first and second wall regions.

Abstract: Exemplary embodiments relate to a sensor for detecting an acceleration acting on the sensor, having: a substrate, a mass unit, which acts as an inert mass in the event of the presence of an acceleration, a fixing structure, wherein the mass unit is articulated on the substrate in such a way that at least one pivot axis is defined, about which the mass unit can perform a rotation relative to the substrate as a result of an acceleration acting on the sensor, and the mass unit has an interial center of gravity, which is at a distance from the respective pivot axis, and at least one detection unit, with which a change in position between the mass unit and the substrate may be detected. The detection unit is arranged with respect to the mass unit in such a way that a deformation of the mass unit cannot be transferred to the detection unit.

Abstract: The invention concerns a method of providing a client (21, 22, 23, 24) transparent access to storage space administrated by a storage service, as well as a client (21, 22, 23, 24) and a storage system for performing this method. Data are exchanged between the client (21, 22, 23, 24) and the storage system (5) providing the storage service via a communication network (1). A client (24) invokes the storage service for providing the storage space. The storage space associated with the client (24) is located within the storage system (5). A secure connection is established between the client (24) and a storage device (51) of the storage system (5) dedicated to store data assigned to said storage space. Data assigned to the storage space is stored in encrypted form in said storage device (51).

Abstract: A rotation rate sensor for sensing a rotation ? by which the sensor is rotated has a substrate and a driving and sensing arrangement located substantially flat in an X-Y plane above a substrate surface of the substrate and having a center. The driving and sensing arrangement has a drive mass and a sense mass that are arranged at different spacings from the center of the driving and sensing arrangement symmetrically about the center. The oscillation modes of the drive mass and the sense mass are partially transmittable onto one another and are partially decoupled. The rotation ? is sensed in that a tilting of the sense mass out of a surface plane of the driving and sensing arrangement is sensed.

Abstract: The invention concerns a method of providing a Push-to-Talk (=PTT) based communication service to subscribers of the PTT service by means of a PTT server which dynamically creates a PTT group. A requesting subscriber sends a call request message to a PTT server. The call request message is analyzed by a request processing unit and the data gathered from the analysis are correlated with profiles of subscribers of the PTT service. Based on the correlation results, the PTT server dynamically creates a PTT group comprising the requesting subscriber and one or more subscribers selected from the other subscribers of the PTT service. The PTT server sends an invitation message to the selected subscribers for establishing a PTT call and establishes a PTT communication connection among the terminal of the requesting subscriber and terminals of selected subscribers an approval message was received from.

Abstract: A bearing device comprising: an at least partially hollow structural element having a first wall region provided with an opening and a second wall region, the first and second wall regions being located opposite one another; and a punching bushing provided for bearing at least one separate component, the punching bushing comprising a punching blade being in jam contact with a punched out opening of the second wall region such that the punching bushing connects the first and second wall regions.

Abstract: A transmitter 2 comprises a power amplifier 3 and power controller 4. The power amplifier 3 is capable of both linear and non-linear operation, and is controlled by a controller 20 and first and second control loops 21,22. The second control loop 22 is used with the transmission of GMSK modulated signals, which have no amplitude modulation, operating the power amplifier 3 in a non-linear mode. The first control loop 21 is used for the transmission of EDGE modulated signals, which have a substantial amount of amplitude modulation, operating the power amplifier 3 in a linear mode. The first control loop 21 is also used with GMSK time slots if the output power to be produced by the power amplifier 3 is low and the power of an immediately preceding time slot is high.