Abstract: A circuit arrangement may include an analog-to-digital-converter (ADC) configured to convert an analog signal into a digitized signal having an ADC frequency, a decimation circuit configured to provide a first signal having a sampling frequency based on the digitized radio signal having the ADC frequency. The sampling frequency is smaller than the ADC frequency. The circuit arrangement may further include a timer circuit providing a second signal having a timer frequency and a timing control signal to control the timing of the decimation circuit, and a difference determination circuit configured to determine a phase difference between the second signal and the first signal.

Abstract: In one embodiment, an encoder is to receive a symbol word and encode the symbol word into a line code word. The encoder may include: a control block generator to generate at least one control block when the symbol word includes at least one control symbol; a symbol word generator to generate an updated symbol word including the at least one control block, when generated, and one or more data blocks; and a combiner to form the line code word from the updated symbol word and a preamble. Other embodiments are described and claimed.

Abstract: A circuit arrangement may include an analog-to-digital-converter (ADC) configured to convert an analog signal into a digitized signal having an ADC frequency, a decimation circuit configured to provide a first signal having a sampling frequency based on the digitized radio signal having the ADC frequency. The sampling frequency is smaller than the ADC frequency. The circuit arrangement may further include a timer circuit providing a second signal having a timer frequency and a timing control signal to control the timing of the decimation circuit, and a difference determination circuit configured to determine a phase difference between the second signal and the first signal.

Abstract: A technique for controlling a receiver to enter a micro sleep mode during which at least one receiver component is temporarily switched off is described. The receiver is configured to process sub-frames each having a first sub-frame portion followed by a second sub-frame portion, the first sub-frame portion carrying information indicative of whether or not the second sub-frame portion needs to be decoded.

Abstract: A system for controlling a plurality of electronic components arbitrarily assignable to a plurality of integrated circuits of a mobile communications device is provided. The integrated circuits are capable of processing a radio frequency signal. The system includes a control module configured to allocate a subset of the plurality of electronic components constituting at least one signal path between an integrated circuit of the plurality of integrated circuits and an antenna element of the mobile communications device. The control module is further configured to assign the at least one signal path to the integrated circuit, and to transfer control of at least a part of the subset of the plurality of electronic components constituting the at least one signal path to the integrated circuit.

Abstract: A system for controlling a plurality of electronic components arbitrarily assignable to a plurality of integrated circuits of a mobile communications device is provided. The integrated circuits are capable of processing a radio frequency signal. The system includes a control module configured to allocate a subset of the plurality of electronic components constituting at least one signal path between an integrated circuit of the plurality of integrated circuits and an antenna element of the mobile communications device. The control module is further configured to assign the at least one signal path to the integrated circuit, and to transfer control of at least a part of the subset of the plurality of electronic components constituting the at least one signal path to the integrated circuit.

Abstract: The invention relates to a current regulator (1A) for an inductive load (ZL) in a vehicle, comprising an analyzing and control unit (22); at least one circuit breaker (T2) which is looped-in serially to the inductive load (ZL) and which is closed off from the magnetization of the inductive load (ZL); a freewheel arrangement (10A) which causes a demagnetization of the inductive load (ZL) when the circuit breaker (T2) is open; and a measuring device (24) which ascertains a current value of a current (IL) flowing through the inductive load (ZL).

Abstract: A method is provided for controlling the current intensity of the electric current flowing through an inductive consumer, the consumer being connected in series to a switching device and a current measuring unit, and in parallel to a free-wheeling element, and the switching device being activated for adjusting the current intensity during a pulse width modulation period.

Abstract: A communication device (100) for communicating in accordance with a hybrid automatic repeat request protocol, the communication device (100) comprising a receiving unit (102) adapted for receiving a communication message including soft-bit values, the soft-bit values representing reliability information for received verification data verifying proper transmission of the communication message, a storage unit (104) adapted for storing the soft-bit values, and a storage management unit (106) adapted for dynamically managing storage of the soft-bit values in the storage unit (104) so that soft-bit values failing to fulfill at least one relevance criteria are not maintained in the storage unit (104).

Abstract: The invention refers to generating a digital signal from an analog signal, wherein the analog signal is amplified according to a gain control value before being converted to a digital value by means of an analog-to-digital converter, wherein a DC offset value of the analog signal is determined, and the gain control value is generated as a function of the dynamic range of the analog-to-digital converter and the DC offset value. The invention further refers to a corresponding circuit and a computer program.

Abstract: A method is provided for controlling the current intensity of the electric current flowing through an inductive consumer, the consumer being connected in series to a switching device and a current measuring unit, and in parallel to a free-wheeling element, and the switching device being activated for adjusting the current intensity during a pulse width modulation period.

Abstract: A control entity (100) for a communication device (110) and for communicating in accordance with a Digital Radio Frequency interface using a sequence of layers including a physical layer (102), a protocol layer (104) and a programming model layer (106), the control entity (100) comprising an interface control unit (108) implementing an interface control sub layer of the programming model layer (106) and adapted for controlling the protocol layer (104) and the physical layer (106), and a configuration interface (112) communicatively coupled to the interface control unit (108) and adapted for enabling an operator to configure a timing of control commands for controlling the control entity (100).

Abstract: An embodiment of the invention provides a communication device (100) for processing data samples and comprises a communication entity (102) and a further communication entity (104) communicatively coupled to the communication entity (102) with a digital interface. The communication entity (102) comprises a timing generation unit (106) adapted for generating real-time related timing information for operating hardware components of the communication entity (102) when processing data samples. The further communication entity (104) is adapted for operating hardware components of the further communication entity (104) in a sample-driven way when processing data samples.

Abstract: A communication device (100) for communicating in accordance with a hybrid automatic repeat request protocol, the communication device (100) comprising a receiving unit (102) adapted for receiving a communication message including soft-bit values, the soft-bit values representing reliability information for received verification data verifying proper transmission of the communication message, a storage unit (104) adapted for storing the soft-bit values, and a storage management unit (106) adapted for dynamically managing storage of the soft-bit values in the storage unit (104) so that soft-bit values failing to fulfill at least one relevance criteria are not maintained in the storage unit (104).

Abstract: A communication device (100) for communicating in accordance with a hybrid automatic repeat request protocol, the communication device (100) comprising a receiving unit (102) adapted for receiving a communication message including soft-bit values, the soft-bit values representing reliability information for received verification data verifying proper transmission of the communication message, a storage unit (104) adapted for storing the soft-bit values, and a storage management unit (106) adapted for dynamically managing storage of the soft-bit values in the storage unit (104) so that soft-bit values failing to fulfill at least one relevance criteria are not maintained in the storage unit (104).

Abstract: The invention relates to a technique for controlling a synchronization of a terminal device (10) with a wireless network, e.g. an LTE network, wherein data are transmitted as a continuous data signal on a radio interface (11, 12) while being processed block-wise in the terminal (10). A method embodiment of the technique for achieving at least a downlink (11) synchronization comprises establishing a time-address mapping (TAM, 36) indicative of an association of a reference time value of an internal clock (32) with a reference address in the reception data buffer (16); determining an address of data samples representing the received data block in the reception data buffer (16) based on the time-address mapping; and initiating a block-wise reading of the data block from the reception data buffer (16) based on the determined address.

Abstract: The invention refers to generating a digital signal from an analog signal, wherein the analog signal is amplified according to a gain control value before being converted to a digital value by means of an analog-to-digital converter, wherein a DC offset value of the analog signal is determined, and the gain control value is generated as a function of the dynamic range of the analog-to-digital converter and the DC offset value. The invention further refers to a corresponding circuit and a computer program.

Abstract: A technique for controlling a receiver to enter a micro sleep mode during which at least one receiver component is temporarily switched off is described. The receiver is configured to process sub-frames each having a first sub-frame portion followed by a second sub-frame portion, the first sub-frame portion carrying information indicative of whether or not the second sub-frame portion needs to be decoded.

Abstract: A technique for rate matching a bit stream (c(0-2)(k)) output from a channel encoder (102) to a data transmission rate on a physical transmission channel is described. A method embodiment of the technique comprises the steps of determining, at a beginning of a transmission time interval for a transmission of one or more code blocks on the transmission channel, bit positions of interleaver padding bits (dummy and/or filler bits) in an output buffer for buffering the output bits before transmission on the physical transmission channel; storing the determined padding bit positions (114); and determining, based on the stored padding bit positions, positions (d(0-2)(k)) of the output bits from the channel encoding stage (102) in the output buffer, wherein the stored padding bit positions are re-used for each of the one or more code blocks.

Abstract: A technique for generating a single carrier frequency division multiple access (SC-FDMA) signal is described, in which from a set of M input symbols a set of N output symbols (M<N) is generated. A method implementation of this technique comprises receiving a set of M input symbols in a time domain representation, subjecting the set of M input symbols to an interpolation operation in the time domain to obtain L interpolated samples (L?N), mapping the interpolated symbols, or symbols derived from the interpolated symbols, to N orthogonal sub-carriers, and outputting N output symbols in a time domain representation.