mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor package apparatus for input/output, I/O, access to a persistent storage media, comprising: one or more substrates ; and logic configured to be coupled to the one or more substrates, wherein the logic is at least partly implemented in one or more of configurable logic and fixed-functionality hardware logic, and the logic is configured to: determine a stream classification for an access request to the persistent storage media, wherein the determination is based on logical region information for the persistent storage media, the logical region information determined based on one or more of namespace information, address range information, and partition information; separate a workload associated with the access request into different streams, based on a workload characteristics; and create the different streams based on the workload characteristics, wherein the logic is further configured to: tag the access request with a stream ID, based on the determined stream classification, to assign the access request to a stream based on a workload characteristic of the access request, wherein the stream ID is configured to correspond to a logical region ID of a logical region of the persistent storage media. one or more substrates ; and logic configured to be coupled to the one or more substrates, wherein the logic is at least partly implemented in one or more of configurable logic and fixed-functionality hardware logic, and the logic is configured to: determine a stream classification for an access request to the persistent storage media, wherein the determination is based on logical region information for the persistent storage media, the logical region information determined based on one or more of namespace information, address range information, and partition information; separate a workload associated with the access request into different streams, based on a workload characteristics; and create the different streams based on the workload characteristics, determine a stream classification for an access request to the persistent storage media, wherein the determination is based on logical region information for the persistent storage media, the logical region information determined based on one or more of namespace information, address range information, and partition information; separate a workload associated with the access request into different streams, based on a workload characteristics; and create the different streams based on the workload characteristics, wherein the logic is further configured to: tag the access request with a stream ID, based on the determined stream classification, to assign the access request to a stream based on a workload characteristic of the access request, wherein the stream ID is configured to correspond to a logical region ID of a logical region of the persistent storage media.
A method for controlling a power amplifier operating in a non-linear state, comprising: inputting (S21) a signal to be amplified (x(n)) to a pre-distorter provided for compensating for non-linearity of the power amplifier; forwarding (S22) the pre-distorted output signal (y(n)) from the pre-distorter to the power amplifier; adapting (S23) parameters of the pre-distorter based on an error between the linearized signal (z(n)) output from the power amplifier and the signal to be amplified (x(n)) using an adaptive direct learning algorithm; and solving (S24) the linear system of equations formed by the direct learning algorithm using a conjugate gradient algorithm, wherein, once per direct learning algorithm adaptation, at least one of the initial residual and the initial direction of the conjugate gradient algorithm are set based on the result of the previous adaptation, characterized in that an error scaling factor is introduced in the adaptive direct learning algorithm, so as to fulfill the following equation: y n = x n − μ ∗ e n wherein y is the pre-distorted signal vector, x is a vector of the signal to be amplified (x(n)), e is the error vector, μ is the error scaling factor, and indicates the adaptation number, and wherein the error scaling factor is set to a value smaller than 1.0. inputting (S21) a signal to be amplified (x(n)) to a pre-distorter provided for compensating for non-linearity of the power amplifier; forwarding (S22) the pre-distorted output signal (y(n)) from the pre-distorter to the power amplifier; adapting (S23) parameters of the pre-distorter based on an error between the linearized signal (z(n)) output from the power amplifier and the signal to be amplified (x(n)) using an adaptive direct learning algorithm; and solving (S24) the linear system of equations formed by the direct learning algorithm using a conjugate gradient algorithm, wherein, once per direct learning algorithm adaptation, at least one of the initial residual and the initial direction of the conjugate gradient algorithm are set based on the result of the previous adaptation, characterized in that an error scaling factor is introduced in the adaptive direct learning algorithm, so as to fulfill the following equation: y n = x n − μ ∗ e n wherein y is the pre-distorted signal vector, x is a vector of the signal to be amplified (x(n)), e is the error vector, μ is the error scaling factor, and indicates the adaptation number, and wherein the error scaling factor is set to a value smaller than 1.0. wherein y is the pre-distorted signal vector, x is a vector of the signal to be amplified (x(n)), e is the error vector, μ is the error scaling factor, and indicates the adaptation number, and wherein the error scaling factor is set to a value smaller than 1.0.
Elevator system consisting of: an elevator car which can be moved between floors (L1, L2, L3) of a building , the elevator car having an elevator door and a door control device for controlling the elevator door ; a control device , which is communicatively connected to the door control device and is designed to evaluate at least one registered destination call that defines a desired trip of a passenger from a boarding floor to an exit floor, it being possible for a number of boarding passengers and a number of exiting passengers for each stopping floor (L1, L2, L3) to be planned by the destination call evaluation, and it being possible for a corresponding door hold-open time of the elevator door for each stopping floor (L1, L2, L3) to be set in order to allow a registered passenger to board or exit on a stopping floor; and a sensor system which is communicatively connected to the control device and which can be used to determine a number of passengers exiting the elevator car on the stopping floor and a number of passengers boarding the elevator car on the stopping floor; characterized in that the control device is designed in such a way that it causes the elevator door to close regardless of the set door hold-open time if the number of passengers, determined by the sensor system , exiting on the stopping floor and the number of boarding passengers corresponds to the number of boarding passengers and the number of exiting passengers planned for the stopping floor. an elevator car which can be moved between floors (L1, L2, L3) of a building , the elevator car having an elevator door and a door control device for controlling the elevator door ; a control device , which is communicatively connected to the door control device and is designed to evaluate at least one registered destination call that defines a desired trip of a passenger from a boarding floor to an exit floor, it being possible for a number of boarding passengers and a number of exiting passengers for each stopping floor (L1, L2, L3) to be planned by the destination call evaluation, and it being possible for a corresponding door hold-open time of the elevator door for each stopping floor (L1, L2, L3) to be set in order to allow a registered passenger to board or exit on a stopping floor; and a sensor system which is communicatively connected to the control device and which can be used to determine a number of passengers exiting the elevator car on the stopping floor and a number of passengers boarding the elevator car on the stopping floor; characterized in that the control device is designed in such a way that it causes the elevator door to close regardless of the set door hold-open time if the number of passengers, determined by the sensor system , exiting on the stopping floor and the number of boarding passengers corresponds to the number of boarding passengers and the number of exiting passengers planned for the stopping floor.
A baseband processing method , comprising: receiving a downlink, DL, baseband, BB, signal in a transmission time interval, TTI , wherein the DL BB signal comprises a time-frequency resource comprising a control section and a data section ; decoding at least part of the control section to detect a DL grant information indicating granted Physical Downlink Shared Channel DL resource blocks; characterized in that if the DL grant information is detected, determine a number of granted data resource blocks from the DL grant information; and adjust at least one of a clock rate and supply voltage of the baseband processing based on the number of granted resource blocks. receiving a downlink, DL, baseband, BB, signal in a transmission time interval, TTI , wherein the DL BB signal comprises a time-frequency resource comprising a control section and a data section ; decoding at least part of the control section to detect a DL grant information indicating granted Physical Downlink Shared Channel DL resource blocks; characterized in that if the DL grant information is detected, determine a number of granted data resource blocks from the DL grant information; and adjust at least one of a clock rate and supply voltage of the baseband processing based on the number of granted resource blocks.
A dual limb circuit comprising: an inspiratory limb configured to deliver respiratory gases to a patient, the inspiratory limb comprising a first segment having a first heater wire circuit and a second segment having a second heater wire circuit , the second segment being closer to the patient than the first segment ; and, an expiratory limb configured to transport exhaled gases away from the patient and comprising an expiratory heater wire circuit ; characterized in that , the first heater wire circuit , the second heater wire circuit , and the expiratory heater wire circuit are connected in use to at least one controller controlling power provided to the heater wire circuits such that, in a first mode, power is provided to the first heater wire circuit and to an entire length of heater wire of the expiratory heater wire circuit , and no power is provided to the second heater wire circuit . an inspiratory limb configured to deliver respiratory gases to a patient, the inspiratory limb comprising a first segment having a first heater wire circuit and a second segment having a second heater wire circuit , the second segment being closer to the patient than the first segment ; and, an expiratory limb configured to transport exhaled gases away from the patient and comprising an expiratory heater wire circuit ; characterized in that , the first heater wire circuit , the second heater wire circuit , and the expiratory heater wire circuit are connected in use to at least one controller controlling power provided to the heater wire circuits such that, in a first mode, power is provided to the first heater wire circuit and to an entire length of heater wire of the expiratory heater wire circuit , and no power is provided to the second heater wire circuit .
A method of identifying complementary strands in a nucleic acid sample comprising a plurality of double-stranded polynucleotides, each double-stranded polynucleotide of the plurality comprising a first complementary strand and a second complementary strand, each having a 5' end and a 3' end, the method comprising: (a) modifying a polynucleotide sequence of at least one of a first complementary strand and a second complementary strand of individual double-stranded polynucleotides, wherein subsequent to the modifying, a first complementary strand and a second complementary strand originating from a common double-stranded polynucleotide are not perfectly complementary, wherein modifying the polynucleotide sequence comprises extending the 3' end of at least one of the first complementary strand and the second complementary strand by adding one or more pre-determined nucleotides; (b) sequencing a plurality of first complementary strands and a plurality of second complementary strands, or amplification products thereof, to yield a plurality of sequencing reads; and (c) identifying from the plurality of sequencing reads, a given first complementary strand and a given second complementary strand as originating from a common double-stranded polynucleotide based on (i) sequences of the respective 3' ends and 5' ends and (ii) polynucleotide sequences of the corresponding complementary strands which are not perfectly complementary. (a) modifying a polynucleotide sequence of at least one of a first complementary strand and a second complementary strand of individual double-stranded polynucleotides, wherein subsequent to the modifying, a first complementary strand and a second complementary strand originating from a common double-stranded polynucleotide are not perfectly complementary, wherein modifying the polynucleotide sequence comprises extending the 3' end of at least one of the first complementary strand and the second complementary strand by adding one or more pre-determined nucleotides; (b) sequencing a plurality of first complementary strands and a plurality of second complementary strands, or amplification products thereof, to yield a plurality of sequencing reads; and (c) identifying from the plurality of sequencing reads, a given first complementary strand and a given second complementary strand as originating from a common double-stranded polynucleotide based on (i) sequences of the respective 3' ends and 5' ends and (ii) polynucleotide sequences of the corresponding complementary strands which are not perfectly complementary.
Method for producing a catheter having a proximal segment, a distal segment, and an expandable element arranged in the distal segment, it being possible to bring the expandable element from a contracted state into an expanded state by supply of a fluid and there being arranged around the expandable element in the contracted state a removable protector in the form of a tube , the tube being pulled over the expandable element , characterized in that the tube is guided with the catheter through one or more nozzles , stretching the tube and reducing the inner diameter of the tube .
A multi-sensor-based under-screen fingerprint capturing method, applied to an under-screen fingerprint capturing system comprising multiple fingerprint sensors, wherein the method comprises: acquiring (S210) fingerprint information of a user captured by the multiple fingerprint sensors, wherein each fingerprint sensor corresponds to a sensing region, and sensing regions corresponding to the multiple fingerprint sensors form a fingerprint capturing region of the under-screen fingerprint capturing system; determining (S220) a variance of sampling values of each pixel point in the fingerprint information of the user; determining (S220) a region formed by pixel points with a variance greater than a first variance threshold in the each fingerprint sensor as a pressing region for the user on the sensing region of the each fingerprint sensor; and determining (S220) a fingerprint sensor corresponding to a pressing region having an area larger than a first threshold in the pressing regions on the sensing regions of the fingerprint sensors as the effectively pressed fingerprint sensor, wherein the fingerprint information of the user captured by the effectively pressed fingerprint sensor is used for fingerprint authentication of the user. acquiring (S210) fingerprint information of a user captured by the multiple fingerprint sensors, wherein each fingerprint sensor corresponds to a sensing region, and sensing regions corresponding to the multiple fingerprint sensors form a fingerprint capturing region of the under-screen fingerprint capturing system; determining (S220) a variance of sampling values of each pixel point in the fingerprint information of the user; determining (S220) a region formed by pixel points with a variance greater than a first variance threshold in the each fingerprint sensor as a pressing region for the user on the sensing region of the each fingerprint sensor; and determining (S220) a fingerprint sensor corresponding to a pressing region having an area larger than a first threshold in the pressing regions on the sensing regions of the fingerprint sensors as the effectively pressed fingerprint sensor, wherein the fingerprint information of the user captured by the effectively pressed fingerprint sensor is used for fingerprint authentication of the user.
A process for the manufacturing of a compound comprising a (meth)acryloyl group, wherein the process comprises the steps of: a) providing a multi-screw extruder comprising a reaction chamber; b) providing reactants and reagents comprising: i. an alcohol or a primary or secondary amine; ii. a base; and iii. a (meth)acryloyl halide or a 3-halopropionyl halide; and c) incorporating the reactants and reagents into the reaction chamber of the multi-screw extruder, thereby forming a reaction product stream comprising the compound comprising a (meth)acryloyl group. a) providing a multi-screw extruder comprising a reaction chamber; b) providing reactants and reagents comprising: i. an alcohol or a primary or secondary amine; ii. a base; and iii. a (meth)acryloyl halide or a 3-halopropionyl halide; and i. an alcohol or a primary or secondary amine; ii. a base; and iii. a (meth)acryloyl halide or a 3-halopropionyl halide; and c) incorporating the reactants and reagents into the reaction chamber of the multi-screw extruder, thereby forming a reaction product stream comprising the compound comprising a (meth)acryloyl group.
Assembly for adjustable attachment of a pole, beam or similar to a fundament intended to be inserted into the ground, characterized in that the assembly includes: - a lower mainly elliptic plate fixable at the upper end of the fundament , which mainly elliptic plate is provided with through holes at ends thereof, - a mainly square, rectangular or circular adjustment plate provided with longitudinal recesses at two of its opposite sides, and that at least two of its corners are provided with through holes , - an upper mainly elliptic plate provided with through mounting holes at ends thereof, where the two elliptic plates are fixed to each other by means of through fixing bolts extending through the corresponding holes , and where the adjustment plate is arranged adjustable in the horizontal plane between the two elliptic plates by that the recesses of the adjustment plate coincide with the through fixing bolts with nuts arranged to the fixing bolts at upper side of the upper elliptic plate and at lower side of the lower elliptic plate being tightened. - a lower mainly elliptic plate fixable at the upper end of the fundament , which mainly elliptic plate is provided with through holes at ends thereof, - a mainly square, rectangular or circular adjustment plate provided with longitudinal recesses at two of its opposite sides, and that at least two of its corners are provided with through holes , - an upper mainly elliptic plate provided with through mounting holes at ends thereof, where the two elliptic plates are fixed to each other by means of through fixing bolts extending through the corresponding holes , and where the adjustment plate is arranged adjustable in the horizontal plane between the two elliptic plates by that the recesses of the adjustment plate coincide with the through fixing bolts with nuts arranged to the fixing bolts at upper side of the upper elliptic plate and at lower side of the lower elliptic plate being tightened.
A self-propelled apparatus for measuring geometric and/or structural parameters of a railway track and/or switch , the apparatus comprising a motor-driven carriage (2; 54) designed to be coupled, in use, to the railway track and/or switch, and a measuring module mounted on the carriage (2; 54) to measure at least one of said geometric and/or structural parameters of the railway track and/or switch ; the carriage (2; 54) comprising a central supporting frame or structure extending in a substantially horizontal direction transverse to the direction of the track and two trains of wheels , which are carried by the central supporting frame and are each coupleable to a respective rail of the railway track and/or switch ; the apparatus being characterized in that each train of wheels comprises a lateral supporting frame or structure and a plurality of wheels for advance of the carriage, which are rotatably mounted on the lateral supporting frame , and an engagement device for releasably engaging the lateral supporting frame to the central supporting frame .
A compound of the formula (la) wherein A represents an aromatic bicyclic ring selected from and being optionally substituted by one or more substituents selected from halo; B represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member; C represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member and optionally substituted by an alkyl-sulfonyl, the radical RR'N-SO 2 -O being in meta or para position; R and R' represent, independently, hydrogen or alkyl; L is a linker selected from -CH 2 -, -NH-, -N(alkyl)- and -N(cycloalkyl-methyl)-; or any pharmaceutically acceptable salt thereof. A represents an aromatic bicyclic ring selected from and being optionally substituted by one or more substituents selected from halo; B represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member; C represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member and optionally substituted by an alkyl-sulfonyl, the radical RR'N-SO 2 -O being in meta or para position; R and R' represent, independently, hydrogen or alkyl; L is a linker selected from -CH 2 -, -NH-, -N(alkyl)- and -N(cycloalkyl-methyl)-; or any pharmaceutically acceptable salt thereof.