mhurhangee/patent-ind-claim-en huggingface dataset:
A clock generator comprising: a signal input , configured to receive a high-frequency clock signal (HFCK); a variable-modulus frequency divider , coupled to the signal input and having a control input and an output , the control input of the variable-modulus frequency divider being configured to receive a modulus-control signal (MC) and the output of the variable-modulus frequency divider being configured to supply a divided clock signal (DIV) having a jitter; a temperature-compensation circuit , configured to generate the modulus-control signal (MC) and a quantization-error signal (SUM/QE); and a jitter filter , coupled to the variable-modulus frequency divider and to the temperature-compensation circuit , the jitter filter being configured to receive the divided clock signal (DIV) and the quantization-error signal (SUM/QE) and to generate a compensated clock signal (OUT) having switching edges that are delayed, with respect to the divided clock signal (DIV), by a time correlated to the quantization-error signal (SUM/QE), wherein the jitter filter comprises a delay generator (37; 50; 80), configured to receive the divided clock signal (DIV) and to generate a plurality of delayed clock signals (Φ , ..., Φ[i], ..., Φ[k]), having each the frequency of the divided clock signal and a different delay with respect to the divided clock signal (DIV), and a selection circuit (38; 81) configured to receive the plurality of delayed clock signals and the quantization-error signal (SUM/QE) and to periodically select one of the delayed clock signals. a signal input , configured to receive a high-frequency clock signal (HFCK); a variable-modulus frequency divider , coupled to the signal input and having a control input and an output , the control input of the variable-modulus frequency divider being configured to receive a modulus-control signal (MC) and the output of the variable-modulus frequency divider being configured to supply a divided clock signal (DIV) having a jitter; a temperature-compensation circuit , configured to generate the modulus-control signal (MC) and a quantization-error signal (SUM/QE); and a jitter filter , coupled to the variable-modulus frequency divider and to the temperature-compensation circuit , the jitter filter being configured to receive the divided clock signal (DIV) and the quantization-error signal (SUM/QE) and to generate a compensated clock signal (OUT) having switching edges that are delayed, with respect to the divided clock signal (DIV), by a time correlated to the quantization-error signal (SUM/QE), wherein the jitter filter comprises a delay generator (37; 50; 80), configured to receive the divided clock signal (DIV) and to generate a plurality of delayed clock signals (Φ , ..., Φ[i], ..., Φ[k]), having each the frequency of the divided clock signal and a different delay with respect to the divided clock signal (DIV), and a selection circuit (38; 81) configured to receive the plurality of delayed clock signals and the quantization-error signal (SUM/QE) and to periodically select one of the delayed clock signals.
A method of performing a Random Access Channel, RACH, procedure on an unlicensed band by a user equipment, the method comprising: transmitting (S701), to a base station, a first message A via a Physical Random Access Channel, PRACH, and a Physical Uplink Shared Channel, PUSCH; and retransmitting the message A via the PRACH and the PUSCH, based on a message responding to the first message A not being received from the base station; receiving (S703), from the base station, a message B related to contention resolution in response to the second message A, wherein, based on the PRACH and the PUSCH being continuous in a time domain, a transmission power of the second message A is determined based on a single power ramping counter configured for a message A, and wherein, based on a inclusion of a time gap between the PRACH and the PUSCH, the transmission power of the second message A is determined based on both a first power ramping counter configured for the PRACH and a second power ramping counter configured for the PUSCH. transmitting (S701), to a base station, a first message A via a Physical Random Access Channel, PRACH, and a Physical Uplink Shared Channel, PUSCH; and retransmitting the message A via the PRACH and the PUSCH, based on a message responding to the first message A not being received from the base station; receiving (S703), from the base station, a message B related to contention resolution in response to the second message A, wherein, based on the PRACH and the PUSCH being continuous in a time domain, a transmission power of the second message A is determined based on a single power ramping counter configured for a message A, and wherein, based on a inclusion of a time gap between the PRACH and the PUSCH, the transmission power of the second message A is determined based on both a first power ramping counter configured for the PRACH and a second power ramping counter configured for the PUSCH.
A hybrid multiplexing apparatus for multiplexing a digital communication signal from an electrical domain with one or more analog subcarrier communication signals from the electrical domain into a multiplexed optical signal for transmission over a common optical communication link, the apparatus comprising: a laser module configured to modulate a laser source with the one or more analog subcarrier communication signals to be multiplexed, and output an intermediate optical modulated signal ; and an electro-optical modulator coupled to receive the intermediate optical modulated signal and the digital communication signal to be multiplexed, and configured to modulate the intermediate optical modulated signal with the digital communication signal to form the multiplexed optical signal ; the apparatus further comprising an up-converting module configured to up-convert the one or more analog subcarrier communication signals prior to modulating the laser source, wherein the up-converting comprises converting a frequency of the one or more analog subcarrier signals to correspond with the frequency spectrum of one or more low amplitude windows of the digital communication signal . wherein the up-converting module is configured to select an intermediate frequency used to up convert the analog subcarrier communication signals such that the intermediate frequency matches a periodicity of the low amplitude windows of the digital communication signal .
Electrical installation module having a housing containing electrical/electronic components, having a supporting plate covering the electrical/electronic components on the operating side and a circuit arrangement for detecting the resistance of a sensor element which is sensitive to a measured variable, the resistance value of which sensor element changes as the measured variable changes, which sensor element is connected in a sensor circuit in series with a capacitive resistor (C1, C1.1, C1. 2), characterised in that the astable flip-flop comprises a comparator (K) with a comparator circuit provided by resistors, which comparator circuit comprises a voltage divider , of which a partial voltage is applied to the non-inverting input of the comparator (K) and is also applied to the output of the comparator (K) with the interposition of a resistor (R5), and a capacitive circuit branch with the capacitive resistor (C1, C1. 1, C1.2) connected to the inverting input of the comparator (K) and a resistor (R1) connecting the inverting input of the comparator (K) to its output , wherein the resistor (R3) of the voltage divider upstream of the node at which the partial current is tapped and the resistor (R5) connected into the connection of the voltage divider to the output of the comparator (K) each have the same resistance value.
System for estimating the individual water consumption of a plurality of apparatuses supplied by the secondary fluid distribution network of a user, characterized in that the system comprises a sleeve suitable for being mounted around the supply pipe of said secondary network, said sleeve consisting of two tubular half-shells , one of which comprises a passive electromechanical sensor applied against the outer wall of said supply pipe in order to acquire intrinsic signals emitted by the interaction of a fluid with a duct in which said fluid circulates, said half-shells being interconnected by a joint which allows the sleeve to open in order to be inserted around the duct and to close in order to apply said electromechanical sensor against the wall of said duct, and a computer for analyzing signals delivered by said passive electromechanical sensor in order to extract information characterizing the individual consumption of at least some of the apparatuses supplied by said secondary network.
A method for bonding a first substrate with a second substrate at contact surfaces of the substrates facing one another, wherein the first substrate is mounted on a first mounting device and the second substrate is mounted on a second mounting device , wherein the second mounting device comprises a plate and wherein the plate is arranged between the second substrate and a surface of the second mounting device , characterised in that the second substrate with the plate is deformed with respect to the second mounting device before and/or during the bonding, wherein the second substrate is deformed by a deformation of the plate , wherein the plate is fixed by a fixing means arranged at the periphery of the mounting device .
A product container , in particular for a food product, wherein the product container includes a product discharge device (2; 202) for releasing product from the container , the discharge device comprising: - a spout unit (3; 203) for product discharge, wherein the spout unit is rotatable, about a spout rotation axis (K), from a first position to an operational position, wherein the spout unit (3; 203) preferably includes a handle for rotating the spout unit (3; 203) from the first position to the operational position, wherein the handle preferably extends substantially radially outwardly from the spout rotation axis (K); and - a seal unit (5; 205) which is configured to enter an opened state, from a sealed state, wherein, in the sealed state, the seal unit (5; 205) is configured to substantially airtightly close off a first product flowthrough channel (6; 206) of the discharge device (2; 202), wherein, in the opened state, the seal unit (5; 205) is configured to allow a flow of product through the first product flowthrough channel (6; 206), wherein the discharge device (2; 202) is configured such that the seal unit (5; 205) can be brought from the sealed state to the opened state by rotating the spout unit (3; 203) from the first position to the operational position. - a spout unit (3; 203) for product discharge, wherein the spout unit is rotatable, about a spout rotation axis (K), from a first position to an operational position, wherein the spout unit (3; 203) preferably includes a handle for rotating the spout unit (3; 203) from the first position to the operational position, wherein the handle preferably extends substantially radially outwardly from the spout rotation axis (K); and - a seal unit (5; 205) which is configured to enter an opened state, from a sealed state, wherein, in the sealed state, the seal unit (5; 205) is configured to substantially airtightly close off a first product flowthrough channel (6; 206) of the discharge device (2; 202), wherein, in the opened state, the seal unit (5; 205) is configured to allow a flow of product through the first product flowthrough channel (6; 206),
An aircraft comprising: a fuselage extending along a longitudinal axis (L); forward swept wings extending from the fuselage ; at least one horizontal stabilizer secured to the fuselage ; a distributed electrical propulsion system operatively connected to an electrical power source (S), the distributed electrical propulsion system having an air intake located rearward of an intersection between the forward swept wings and the fuselage and open to a boundary layer region (B1) on a surface of the fuselage ; at least one combustion engine in driving engagement with at least one generator , the electrical power source (S) being the at least one generator ; and wherein the fuselage defines an air inlet fluidly connected to an inlet of the combustion engine , the air inlet opening to the boundary layer region (B1). a fuselage extending along a longitudinal axis (L); forward swept wings extending from the fuselage ; at least one horizontal stabilizer secured to the fuselage ; a distributed electrical propulsion system operatively connected to an electrical power source (S), the distributed electrical propulsion system having an air intake located rearward of an intersection between the forward swept wings and the fuselage and open to a boundary layer region (B1) on a surface of the fuselage ; at least one combustion engine in driving engagement with at least one generator , the electrical power source (S) being the at least one generator ; and wherein the fuselage defines an air inlet fluidly connected to an inlet of the combustion engine , the air inlet opening to the boundary layer region (B1).
A method of marine seismic exploration or surveillance, comprising: selecting a first seismic source , said first seismic source comprising a swept frequency source and having a first bandwidth associated therewith; selecting a second seismic source , said second seismic source comprising a swept frequency source and having a second bandwidth associated therewith, said second bandwidth being adjacent and higher in frequency to said first bandwidth; using said first bandwidth to determine a first source depth such that substantially all of said first bandwidth falls between a zero frequency notch and a first ghost notch , said first ghost notch being the closer notch at a higher frequency to said zero frequency notch; using said second bandwidth to determine a second source depth such that substantially all of said second bandwidth falls between said first ghost notch and a second ghost notch, said second ghost notch being the closer notch at a higher frequency to said first ghost notch , thereby creating a two-source survey plan; and, collecting at least one seismic trace by activating said first seismic source at said first source depth and said second seismic source at said second source depth according to said survey plan. selecting a first seismic source , said first seismic source comprising a swept frequency source and having a first bandwidth associated therewith; selecting a second seismic source , said second seismic source comprising a swept frequency source and having a second bandwidth associated therewith, said second bandwidth being adjacent and higher in frequency to said first bandwidth; using said first bandwidth to determine a first source depth such that substantially all of said first bandwidth falls between a zero frequency notch and a first ghost notch , said first ghost notch being the closer notch at a higher frequency to said zero frequency notch; using said second bandwidth to determine a second source depth such that substantially all of said second bandwidth falls between said first ghost notch and a second ghost notch, said second ghost notch being the closer notch at a higher frequency to said first ghost notch , thereby creating a two-source survey plan; and, collecting at least one seismic trace by activating said first seismic source at said first source depth and said second seismic source at said second source depth according to said survey plan.
An alkaline protease mutant having improved stability to a chelating agent in comparison to the parent alkaline protease KSM-KP43 (FERM BP-6532), consisting of an amino acid sequence obtained by substituting an amino acid residue at a position corresponding to position 294 in the amino acid sequence as shown in SEQ ID NO:2 with threonine or an amino acid sequence having an identity of at least 95% thereto, wherein the amino acid residue at position 6 of the amino acid sequence as shown in SEQ ID NO: 2 or at a position corresponding thereto is selected from the group consisting of S, T, C, Q, Y, R, K, H, A, V, L, I, M, W and F.
Method for applying, to an inorganic surface, a self-adhesive PVC composition comprising a composition (C) comprising: - an optionally protected aminosilane; and - at least one compound selected from among a titanium complex, zirconium complex and/or an optionally protected isocyanate compound; said method comprising an activation step of said surface, selected from among heat treatment, a shot peening step, plasma treatment step, solvent cleaning and a silicification step. - an optionally protected aminosilane; and - at least one compound selected from among a titanium complex, zirconium complex and/or an optionally protected isocyanate compound;
An extremely high frequency, EHF, communication system, comprising: an EHF communication chip , including: an EHF communication circuit , wherein the EHF communication circuit comprises at least one controllable parameter-based module having a testable and controllable operating parameter; and a test and trim circuit coupled to the EHF communication circuit, wherein the test and trim circuit includes a logic circuit having one or more memory elements ; wherein the logic circuit is coupled to the at least one controllable parameter-based module having an associated testable and controllable operating parameter; and wherein the test and trim circuit further comprises an interface configured to operatively connect an external control circuit to the logic circuit, wherein the external control circuit is configured to control operation of the test and trim circuit. an EHF communication circuit , wherein the EHF communication circuit comprises at least one controllable parameter-based module having a testable and controllable operating parameter; and a test and trim circuit coupled to the EHF communication circuit, wherein the test and trim circuit includes a logic circuit having one or more memory elements ; wherein the logic circuit is coupled to the at least one controllable parameter-based module having an associated testable and controllable operating parameter; and wherein the test and trim circuit further comprises an interface configured to operatively connect an external control circuit to the logic circuit, wherein the external control circuit is configured to control operation of the test and trim circuit.
Method for operating a battery system of an electric drive of a vehicle comprising the following steps: - initiating a driving application of the vehicle , wherein the driving application is a trip, series of trips or a part of a trip, - heating at least one battery module of a traction battery of the vehicle using energy provided by a starting battery , - receiving operation data related to the initiated driving application, wherein the operation data comprises user data of a driving history and/or navigation data of the initiated driving application - determining of at least one future charging interval for a charging of the starting battery from a recuperation of energy during the initiated driving application and/or the traction battery , wherein the determining of the at least one future charging interval is based on the operation data , wherein the determining of the future charging interval for charging the starting battery takes into account a main charging strategy, wherein the main charging strategy is a charging strategy for the at least one battery module of the traction battery and has a higher priority than the charging of the starting battery in case of a recuperation of energy during the initiated driving application. - initiating a driving application of the vehicle , wherein the driving application is a trip, series of trips or a part of a trip, - heating at least one battery module of a traction battery of the vehicle using energy provided by a starting battery , - receiving operation data related to the initiated driving application, wherein the operation data comprises user data of a driving history and/or navigation data of the initiated driving application - determining of at least one future charging interval for a charging of the starting battery from a recuperation of energy during the initiated driving application and/or the traction battery , wherein the determining of the at least one future charging interval is based on the operation data ,
A method for identifying an extremum value, comprising: determining a location of an extremum value of a set of N data values stored as vectors in a memory array , wherein each of the set of N data values is stored in memory cells coupled to a corresponding sense line , and the location of the extremum value is determined by: determining if the sensed data includes a target binary value by: transferring data stored in a group of memory cells coupled to a particular access line to an input/output (I/O) line in parallel; and determining that the sensed data includes a target binary value based on whether a level of the I/O line changes responsive to transferring the sense data in parallel such that a number of operations to determine the location of the extremum value remains constant with respect to a value of N ; comparing, responsive to the sensed data including the target binary value, the data stored in the group of memory cells coupled to the particular access line to data stored in a group of the memory cells coupled to another access line , wherein the another access line corresponds to a lower index of the vectors than the particular access line ; and repeating the determination and the comparison for each access line corresponding to a lower index of the vectors than the particular access line . determining if the sensed data includes a target binary value by: transferring data stored in a group of memory cells coupled to a particular access line to an input/output (I/O) line in parallel; and determining that the sensed data includes a target binary value based on whether a level of the I/O line changes responsive to transferring the sense data in parallel such that a number of operations to determine the location of the extremum value remains constant with respect to a value of N ; transferring data stored in a group of memory cells coupled to a particular access line to an input/output (I/O) line in parallel; and determining that the sensed data includes a target binary value based on whether a level of the I/O line changes responsive to transferring the sense data in parallel such that a number of operations to determine the location of the extremum value remains constant with respect to a value of N ; comparing, responsive to the sensed data including the target binary value, the data stored in the group of memory cells coupled to the particular access line to data stored in a group of the memory cells coupled to another access line , wherein the another access line corresponds to a lower index of the vectors than the particular access line ; and repeating the determination and the comparison for each access line corresponding to a lower index of the vectors than the particular access line .