Abstract: Proximity sensor, particularly for usage in an electronic mobile device, comprising at least one acoustic transducer adapted for receiving acoustic signals at least in parts of the frequency range of human audible sound and emitting and/or receiving ultrasonic signals for proximity estimation. The acoustic transducer preferably is a Micro-Electro-Mechanical-Systems (MEMS) microphone. Further, a method in an electronic device comprising an acoustic transducer is provided comprising the steps of generating at least one electric signal in the frequency range of ultrasonic sound, emitting at least one ultrasonic signal by means of the acoustic transducer; receiving at least one ultrasonic signal by means of the acoustic transducer; deducing from the at least one emitted ultrasonic signal and the at least one received ultrasonic signal at least the delay between emission of the emitted ultrasonic signal and reception of the corresponding ultrasonic signal.

Abstract: The application relates to setting color point and light intensity. By controlling the phase as well as the amplitudes of a driving voltage for a lighting device, the color point as well as the light intensity of a lighting device may be set.

Abstract: Various exemplary embodiments relate to a method and related motion estimation unit for performing motion estimation on video data comprising a plurality of frames. The method may begin by reading a current frame of the plurality of frames from a memory of a motion estimation unit. The method may then select a motion vector for each respective block of pixels in a current row of the current frame. The step of selecting the motion vector may include, for each respective block, selecting, by the motion estimation unit, a candidate vector for at least one block directly surrounding the respective block based on a determination of whether the directly surrounding block has been processed for the current frame, calculating, for each candidate vector, a difference value, and selecting, as the motion vector, the candidate vector with the lowest difference value.

Abstract: A system implements a location based service, and comprises a satellite navigation receiver implementing a position tracking function for providing the location of a user of the service. An analogue rf receiver (12) receives satellite signals and performs at least a frequency downconversion. Correlation and decoding functions are applied to the downconverted signals for deriving location information from detected specific satellite signals. The system further comprises a server (30) for receiving samples of the downconverted signals, and for verifying the samples are consistent with the expected satellite signals at that time and location. The invention provides a counter measure for detecting the counterfeiting of, or tampering with, the satellite signals at the receiver. A check can be made that the received satellite signals correspond to those which are expected at that location and time.

Abstract: In a channel zapping though multiple channels, each channel select identifies a new packet stream channel and the video coding standard of the channel is identified. Based on the video coding standard an optimal input buffer delay is identified, a packet stream for the new channel delayed by the optimal input buffer delay, and decoded by a decoding process according to video coding standard. Optionally, based on the video coding standard an optimal an optimal decoding processing delay is identified and the decoding applies an associated processing delay.

Abstract: A program is obfuscated by reordering its instructions. Original instruction addresses are mapped to target addresses. A cache efficient obfuscated program is realized by restricting target addresses of a sequence of instructions to a limited set of the disjoint ranges (33a-d) of target addresses, which are at lease half filled with instructions. Mapped address steps (34) are provided between the target addresses to which successive ones of the original instruction addresses are mapped. The address steps (34) include first address steps within at least a first one of the mutually disjoint ranges (33a-d). Between said first address steps, second address steps within at least a second one of the mutually disjoint ranges (33a-d). Thus, a deviation from successive addresses for logically successive instructions is realized.

Abstract: A multi-protocol, multi-standard, software-defined radio (SDR) includes one or more RF front ends to support each radio frequency band, and a programmable processor that replaces special-purpose hardware for the tuning and demodulation of each radio service. The programmable processor has limited peak processing capabilities, and calculations are made to see if present user terminal assignments will result in processing conflicts that could exceed the peak processing capabilities. In traffic slot applications in particular, any possible simultaneous arrival or overlap of traffic slots from the respective radio services is projected. If conflicts will result from the current user terminal assignments, then those assignments are reshuffled to obtain a non-conflicting result.

Abstract: A method for server-based managing of unique memory device identifications (MUID1, MUID2), such as serial numbers, of memory devices (MIF1, MIF2) having unique memory device identifications, like MIFARE devices, preferably emulated MIFARE devices like SmartMX cards, which memory devices are arranged in mobile communication devices (U1, U2), comprises keeping a repository (DB) of available memory device identifications (MUIDx); fetching a memory device identification from the repository (DB) and sending it to a specific mobile communication device (U1, U2); and instructing the mobile communication device (U1, U2) to change the memory device identification (MUID1, MUID2) of its associated memory device (MIF1, MIF2) from its present value to the received new value. Further, the server instructs the mobile communication device (U1, U2) to return the previous value of the memory device identification (MUID1, MUID2) of its associated memory device (MIF1, MIF2).

Abstract: A mobile communication device (1) is connectable to a memory device (MIF) that comprises a plurality of memorysectors (0-F), wherein at least one application is stored in at least one memory sector. the memory sectors are protected against unauthorized access 5 by sector keys (key A, key B, 4). The mobile communication device (1) comprises an applications manager (MAM) being adapted to disable the stored applications (TK1, AC1, AC2, TR2, TR3, CP1, TR4, AC3, TK3) when triggered by an external trigger event.

Abstract: Edge-rate control circuits and methods are implemented using a variety of arrangements and methods. Using one such method, an output signal of a bus is controlled by decoupling a feedback capacitor (116) from a gate of a transistor (108) using an isolation switch (106). The transistor (108) is used to control the output signal. A predetermined amount of charge is removed from the feedback capacitor (116) using a charge distribution capacitor (114) that is selectively coupled to the feedback capacitor (116) using a switch (112). The switch (112) is enabled in response to the output signal reaching an output voltage and disabled in response to the charge distribution capacitor (114) reaching a reference voltage.

Abstract: An overall SIR estimate is based on a weighted-average of different SIR estimates, wherein the weights are chosen to minimize the mean-square-error (MSE) of the overall SIR estimate. Alternatively, the overall SIR estimate is based on a selection from among the different SIR estimates, based on the expected reliability of each SIR estimate. The expected reliability of each SIR estimate may be based on the current format of the transmitted signal and/or a prior estimated SIR level.

Abstract: The device has a carrier and an electric element. The carrier has a first and an opposed side and is provided with an connection layer, an intermediate layer and contact pads. The element is present at the first side and coupled to the connection layer. It is at least partially encapsulated by an encapsulation that extends into isolation areas between patterns in the intermediate layer. A protective layer is present at the second side of the carrier, which covers an interface between the contact pads and the intermediate layer.

Abstract: A semiconductor device has active region (30) and edge termination region (32) which includes a plurality of floating field regions (46). Field plates (54) extend in the edge termination region (32) inwards from contact holes (56) towards the active region (30) over a plurality of floating field regions (46). Pillars (40) may be provided.

Abstract: Apparatus (40) comprising a multistage charge pump (10) having an output (41) for connecting a load (Cout, KL). The charge pump (10) comprises m gain stages for charging and discharging m external stage capacitors (C) in order to provide an output voltage (Vout) at the output (41) that is about m times higher than a supply voltage (Vdd) of the charge pump (10). The charging and discharging is influenced by switches inside said charge pump (10) that are controlled by a switching signal having a switching frequency (fosc). A monitoring circuit (20) is provided that monitors temperature-induced changes of the value of an external reference capacitor (Cref). Furthermore, means (30) for adjusting the switching frequency (fosc) are employed in order to compensate variations of the gain of said charge pump (10) that are caused by the changes of the value of the m external stage capacitors (C).

Abstract: A transceiving circuit (1) for contactless communication comprises transmitter means (3) to generate an electromagnetic carrier signal, to modulate the carrier signal according to transmitting data and to drive an antenna (5) with the modulated carrier signal, and receiver means (4) to sense response signals being received at the antenna (5) and to demodulate the response signals. The transmitter means (3) are connected to the antenna (5) by at least a first transmitting path (TX1), wherein a first DC decoupling capacitor (C1b) is switched into the first transmitting path (TX1). A receiving path (RX) branches off from the first transmitting path (TX1) to the receiver means (4). A second DC decoupling capacitor (C1c) is switched into the first transmitting path (TX1) in series to the first DC decoupling capacitor (C1b). The receiving path (RX) branches off from the first transmitting path (TX1) at a branching point (C) between the first and second DC decoupling capacitors (C1b, C1c).

Abstract: A frequency synthesiser (100) has a first variable frequency oscillator (10) for generating a first oscillator signal having a frequency responsive to a first control signal, a second variable frequency oscillator (50) for generating a second oscillator signal having a frequency responsive to a second control signal, and a phase reference generator (40) for generating a phase reference signal. There is a phase difference generator (30) for generating a phase difference signal indicative of the phase difference between the sum of the phases of the first and second oscillator signals and the phase of the phase reference signal. A controller (60) responsive to the phase difference signal generates the first and second control signals.

Abstract: The present invention relates to a LED lighting system (100) comprising at least a central controller (40) for just controlling a communication databus (50) in broadcast mode, and a distribution of LED controllers (30R, 30G, 30B) for individually controlling each LED (10R, 10G, 10B) through a respective driver (20R, 20G, 20B). The central controller (40) broadcasts targeted setting values from an external user (60) to all the distributed LED controllers (30R, 30G, 30B) through the databus (50). The LED controllers (30R, 30G, 30B) convert the values using a shared calibration matrix into transformed values for each LED color (R, G, B). In the case that some of these transformed values cannot be rendered by the LED lighting system (100), the targeted setting values can be properly adjusted either externally through a feedback signal sent over a link (70) back to the user (60), or internally through a notification signal broadcast over the databus (50) back to the central controller (40).

Abstract: A method for reconstructing a color image from a sensor which comprises a plurality of pixels arranged in a matrix of rows and columns is provided. The sensor is provided with a color filter array such that each pixel corresponds to one of three basic colors. The three basic colors are provided on the sensor in a predetermined pattern. The sensor outputs a detected value for each of the plurality of pixels. The method comprises the steps: for each of the plurality of pixels: accepting a detected value obtained for the corresponding one of the three basic colors and, for each of the respective two other basic colors, calculating a vertical interpolation value and a horizontal interpolation value and selecting either the vertical interpolation value or the horizontal interpolation value; outputting the accepted detected value and the selected interpolation values.

Abstract: The invention refers to a power amplifier comprising a first transistor (MH) having a first main channel coupled between a positive power supply terminal (Vdd) and an output terminal (Vout), said first transistor having a control terminal driven by a first gate signal (Vgatehigh) provided by a high driver circuit, which is biased from a first voltage terminal (Vboot). The power amplifier further comprises a second transistor (ML) having a second main channel coupled between the output terminal and a negative power supply terminal (Vss), said second transistor having a second control terminal driven by a second gate signal (Vgatelow) provided by a low driver circuit, which is biased from a second voltage terminal (Vreg), and a switch circuit (10) coupled between the first voltage terminal (Vboot) and the second voltage terminal (Vreg), said switch circuit being controlled by the second gate Signal (Vgatelow).

Abstract: A mobile communication device (1) comprises a MIFARE memory (MM) being configured as a MIFARE Classic card or an emulated MIFARE Classic memory, a swap memory(SM) and a MIFARE applications manager (MAM) being adapted to swap MIFARE 5 applications between the MIFARE memory (MM) and the swap memory (SM).