mhurhangee/patent-ind-claim-en huggingface dataset:
A measuring device for phase-coherent analysis of frequency-hopping signals, the measuring device comprising: a signal acquisition unit , and an analyzing unit , wherein the signal acquisition unit is configured to obtain an In-phase/Quadrature-phase-signal, I/Q-signal, and to provide said I/Q-signal for the analyzing unit , wherein the analyzing unit is configured to detect hop occurrences at nominal hop frequencies based on the provided I/Q-signal, wherein the analyzing unit is further configured to specify at least one common reference frequency with respect to the hop occurrences, wherein the analyzing unit is further configured to specify at least one common reference phase with respect to the hop occurrences detected by the analyzing unit , and wherein the analyzing unit is further configured to calculate a coherent reference phase trajectory over time based on at least one time stamp of the hop occurrences detected by the analyzing unit , and the at least one common reference frequency specified by the analyzing unit , and the at least one common reference phase. a signal acquisition unit , and an analyzing unit ,
An expression system for systemic administration comprising a sequence encoding calpain 3 placed under the control of: - a promoter sequence allowing the expression at a therapeutically acceptable level of calpain 3 in skeletal muscles; and - at least one target sequence of miR208a. - a promoter sequence allowing the expression at a therapeutically acceptable level of calpain 3 in skeletal muscles; and - at least one target sequence of miR208a.
An NMR measurement system comprising; a bearing mechanism configured to spray gas toward a passage in which a sample unit including a sample tube is disposed, from around the passage; and a controller configured to operate the bearing mechanism in a loading process of inserting the sample unit into the passage, wherein the bearing mechanism is configured to spray gas from a plurality of openings annularly arranged around the passage toward the passage from a direction orthogonal to a center axis of the passage to align a center axis of the sample tube with the center axis of the passage. a bearing mechanism configured to spray gas toward a passage in which a sample unit including a sample tube is disposed, from around the passage; and a controller configured to operate the bearing mechanism in a loading process of inserting the sample unit into the passage, wherein the bearing mechanism is configured to spray gas from a plurality of openings annularly arranged around the passage toward the passage from a direction orthogonal to a center axis of the passage to align a center axis of the sample tube with the center axis of the passage.
A laptop computer comprising: a base ; a lid movably coupled to the base; a display carried by the lid; an arm pivotably coupled to the lid; and an accessory housing carried by the arm, the arm pivotable to move the accessory housing between a first position and a second position, characterized in that in the first position the accessory housing is disposed along a bottom edgi of the lid and in the second position the accessory housing is disposed along a top edge of the lid. a base ; a lid movably coupled to the base; a display carried by the lid; an arm pivotably coupled to the lid; and an accessory housing carried by the arm, the arm pivotable to move the accessory housing between a first position and a second position, characterized in that in the first position the accessory housing is disposed along a bottom edgi of the lid and in the second position the accessory housing is disposed along a top edge of the lid.
A time-to-digital converter for determining a time difference between two signals, comprising: a plurality of stages connected in a sequence of stages, each of the stages including first and second inputs for receiving the two signals, each stage that has a next following stage in the sequence having two outputs for outputting the two signals to the following stage, each stage having an encoder output, each stage comprising a plurality of sampling elements , each being operable to determine which of the two signals has an earlier transition edge, the stage being operable to apply a delay to the signal that has been determined to have the earlier transition edge, the determination by the stage being output from the encoder output of the respective stage as a stage value signal; and an encoder having a plurality of inputs and an output, the plurality of inputs of the encoder being connected to respective ones of the encoder outputs of the stages, the encoder being operable convert the stage value signals into a time difference signal. a plurality of stages connected in a sequence of stages, each of the stages including first and second inputs for receiving the two signals, each stage that has a next following stage in the sequence having two outputs for outputting the two signals to the following stage, each stage having an encoder output, each stage comprising a plurality of sampling elements , each being operable to determine which of the two signals has an earlier transition edge, the stage being operable to apply a delay to the signal that has been determined to have the earlier transition edge, the determination by the stage being output from the encoder output of the respective stage as a stage value signal; and an encoder having a plurality of inputs and an output, the plurality of inputs of the encoder being connected to respective ones of the encoder outputs of the stages, the encoder being operable convert the stage value signals into a time difference signal.
A computer-implemented method for aligning digital images , comprising: receiving (S300) digital images including a first digital image depicting a first region of a scene and a second digital image depicting a second region of the scene , the first and the second region being overlapping and displaced along a first direction (X); aligning (S302) the digital images using a transformation, wherein the first and the second digital image overlap; determining (S304) disparity values for an overlap between the first and the second digital image , each disparity value for the overlap being indicative of a relative displacement along a second direction (Y), which is perpendicular to the first direction (X), between a block of pixels in the first digital image and a matching block of pixels in the second digital image ; identifying (S306) misalignments between the digital images by identifying (S308) blocks of pixels in the first digital image having a same position along the second direction (Y) and having a distribution of disparity values exhibiting a variability lower than a first predetermined threshold and exhibiting an average higher than a second predetermined threshold; adjusting (S310) the transformation for the identified blocks of pixels in the first digital image and their matching blocks of pixels in the second digital image ; and realigning (S312) the digital images using the adjusted transformation to compensate for the identified misalignments. receiving (S300) digital images including a first digital image depicting a first region of a scene and a second digital image depicting a second region of the scene , the first and the second region being overlapping and displaced along a first direction (X); aligning (S302) the digital images using a transformation, wherein the first and the second digital image overlap; determining (S304) disparity values for an overlap between the first and the second digital image , each disparity value for the overlap being indicative of a relative displacement along a second direction (Y), which is perpendicular to the first direction (X), between a block of pixels in the first digital image and a matching block of pixels in the second digital image ; identifying (S306) misalignments between the digital images by identifying (S308) blocks of pixels in the first digital image having a same position along the second direction (Y) and having a distribution of disparity values exhibiting a variability lower than a first predetermined threshold and exhibiting an average higher than a second predetermined threshold; adjusting (S310) the transformation for the identified blocks of pixels in the first digital image and their matching blocks of pixels in the second digital image ; and realigning (S312) the digital images using the adjusted transformation to compensate for the identified misalignments.
Tyre for vehicle wheels comprising at least a structural element comprising a crosslinked elastomeric material obtained by crosslinking a crosslinkable elastomeric composition comprising a predispersion of natural rubber and lignin obtained by co-precipitation from latex, wherein said lignin has a concentration of phenolic groups higher than 2 mmoles per gram of lignin, and wherein said predispersion comprises an amount of said lignin such as to provide, in said crosslinkable elastomeric composition, a concentration of lignin equal to or lower than about 25 phr.
A propulsion system for an aircraft comprising: a first fuel reservoir configured for storing hydrogen (H2-1); a second fuel reservoir configured for storing a hydrocarbon fuel (HC); a gas turbine engine comprising a fuel injection unit comprising : a hydrogen pilot burner in fluid communication with the first fuel reservoir via a first flow control valve ; a dual fuel main burner in fluid communication with the first fuel reservoir via a second flow control valve and in fluid communication with the second fuel reservoir via a third flow control valve ; a control system operable to control: the first flow control valve to control the flow of hydrogen (H2-1) from the first fuel reservoir to the hydrogen pilot burner ; the second flow control valve to control the flow of hydrogen from the first fuel reservoir to the dual fuel main burner ; the third flow control valve to control the flow of the hydrocarbon fuel (HC) from the second fuel reservoir to the dual fuel main burner . a first fuel reservoir configured for storing hydrogen (H2-1); a second fuel reservoir configured for storing a hydrocarbon fuel (HC); a gas turbine engine comprising a fuel injection unit comprising : a hydrogen pilot burner in fluid communication with the first fuel reservoir via a first flow control valve ; a dual fuel main burner in fluid communication with the first fuel reservoir via a second flow control valve and in fluid communication with the second fuel reservoir via a third flow control valve ; a control system operable to control: the first flow control valve to control the flow of hydrogen (H2-1) from the first fuel reservoir to the hydrogen pilot burner ; the second flow control valve to control the flow of hydrogen from the first fuel reservoir to the dual fuel main burner ; the third flow control valve to control the flow of the hydrocarbon fuel (HC) from the second fuel reservoir to the dual fuel main burner . a hydrogen pilot burner in fluid communication with the first fuel reservoir via a first flow control valve ; a dual fuel main burner in fluid communication with the first fuel reservoir via a second flow control valve and in fluid communication with the second fuel reservoir via a third flow control valve ; a control system operable to control: the first flow control valve to control the flow of hydrogen (H2-1) from the first fuel reservoir to the hydrogen pilot burner ; the second flow control valve to control the flow of hydrogen from the first fuel reservoir to the dual fuel main burner ; the third flow control valve to control the flow of the hydrocarbon fuel (HC) from the second fuel reservoir to the dual fuel main burner . the first flow control valve to control the flow of hydrogen (H2-1) from the first fuel reservoir to the hydrogen pilot burner ; the second flow control valve to control the flow of hydrogen from the first fuel reservoir to the dual fuel main burner ; the third flow control valve to control the flow of the hydrocarbon fuel (HC) from the second fuel reservoir to the dual fuel main burner .
A drug delivery system, characterized in that the drug delivery system comprises: a biologically active material in the form of an antibiotic selected from the group of a tetracycline, a quinolone or a ciprofloxacin; the biologically active material chemically bonded to a substrate with a chemical bond to form a chelated complex with ions of the substrate and the biologically active material, wherein the biologically active material is inactive for pharmaceutical purposes while bonded to the substrate; the substrate adapted for insertion into a patient during a medical procedure; wherein the biologically active material is permanently bound to the substrate until it is released from the substrate by breakage of the chemical bond upon the occurrence of a local infection near the substrate to activate the biologically active material and fight the local infection. a biologically active material in the form of an antibiotic selected from the group of a tetracycline, a quinolone or a ciprofloxacin; the biologically active material chemically bonded to a substrate with a chemical bond to form a chelated complex with ions of the substrate and the biologically active material,
Container image which, when executed in an associated container execution environment of a hardware platform , forms a security module container ; wherein the security module container is a software container that is configured so as to perform at least one cryptographic security function of a hardware security module, wherein the at least one cryptographic security function comprises: authenticating the hardware platform on which the security module container is executed.
A method performed by an encoder of a base station system of a wireless communication network, for handling a data stream comprising a number of consecutive IQ samples for transmission over a transmission network between a remote unit and a base unit of the base station system, the remote unit being arranged to transmit wireless signals to and receive from mobile stations , each of the number of IQ samples comprising a first number of bits, the method comprising: quantizing , by a quantizer , the IQ samples or IQ prediction errors of the IQ samples with a second number of bits, wherein an amplitude range of the quantizer for the second number of bits is variable and set based on an acceptable signal quality value; entropy encoding the quantized IQ samples or IQ prediction errors applying a first entropy encoding dictionary out of a plurality of entropy encoding dictionaries, based on the set amplitude range of the quantizer; transmitting , to a decoder, the entropy encoded and quantized IQ samples or IQ prediction errors over the transmission network. quantizing , by a quantizer , the IQ samples or IQ prediction errors of the IQ samples with a second number of bits, wherein an amplitude range of the quantizer for the second number of bits is variable and set based on an acceptable signal quality value; entropy encoding the quantized IQ samples or IQ prediction errors applying a first entropy encoding dictionary out of a plurality of entropy encoding dictionaries, based on the set amplitude range of the quantizer; transmitting , to a decoder, the entropy encoded and quantized IQ samples or IQ prediction errors over the transmission network.
A temperature measurement device for measuring a body temperature of an animal (C) in a non-contact manner apart from a body of the animal (C), the temperature measurement device comprising: a first temperature measurement portion for measuring a temperature distribution of a predetermined range in a non-contact manner; a calibrator including at least one heater able to generate heat to a preset temperature; second temperature measurement portions provided on installation points on the calibrator , and measuring temperatures at the installation points, the installation points having different temperatures; and a controller arranged to calibrate a first temperature measurement result obtained from temperature distribution of a range covering an object measured by the first temperature measurement portion , by comparing a second temperature measurement result obtained from a temperature distribution of a range covering the calibrator measured by the first temperature measurement portion with temperatures of respective points of a third temperature measurement result obtained from a temperature distribution of the calibrator measured by the second temperature measurement portions , characterized in that : the temperature measurement device comprises a feed provider for providing the animal (C) with feed; the feed provider triggers the controller to start the temperature measurement when the animal is eating the feed provided by the feed provider. a first temperature measurement portion for measuring a temperature distribution of a predetermined range in a non-contact manner; a calibrator including at least one heater able to generate heat to a preset temperature; second temperature measurement portions provided on installation points on the calibrator , and measuring temperatures at the installation points, the installation points having different temperatures; and a controller arranged to calibrate a first temperature measurement result obtained from temperature distribution of a range covering an object measured by the first temperature measurement portion , by comparing a second temperature measurement result obtained from a temperature distribution of a range covering the calibrator measured by the first temperature measurement portion with temperatures of respective points of a third temperature measurement result obtained from a temperature distribution of the calibrator measured by the second temperature measurement portions , a second temperature measurement result obtained from a temperature distribution of a range covering the calibrator measured by the first temperature measurement portion with temperatures of respective points of a third temperature measurement result obtained from a temperature distribution of the calibrator measured by the second temperature measurement portions , the temperature measurement device comprises a feed provider for providing the animal (C) with feed; the feed provider triggers the controller to start the temperature measurement when the animal is eating the feed provided by the feed provider.
A process for making a curable resin composition comprising the steps of: reacting a) an isocyanate; and b) a polyol mixture with a bimodal distribution of i) a first polyol mixture comprising polyols having an average equivalent weight of from 50 to 400; and ii) a second polyol mixture comprising polyols having an average equivalent weight of from 2000 to 5000; to form a urethane prepolymer; and adding a capping agent to the urethane prepolymer to form the curable resin composition. reacting a) an isocyanate; and b) a polyol mixture with a bimodal distribution of i) a first polyol mixture comprising polyols having an average equivalent weight of from 50 to 400; and ii) a second polyol mixture comprising polyols having an average equivalent weight of from 2000 to 5000; to form a urethane prepolymer; and a) an isocyanate; and b) a polyol mixture with a bimodal distribution of i) a first polyol mixture comprising polyols having an average equivalent weight of from 50 to 400; and ii) a second polyol mixture comprising polyols having an average equivalent weight of from 2000 to 5000; i) a first polyol mixture comprising polyols having an average equivalent weight of from 50 to 400; and ii) a second polyol mixture comprising polyols having an average equivalent weight of from 2000 to 5000; adding a capping agent to the urethane prepolymer to form the curable resin composition.
Device for determining at least one condition of an elevator having - at least one sensor configured to detect at least one parameter resulting from the relative movements of an elevator car during operation; - a data processing unit configured to obtain data relating to said parameter over a certain period of time and comprising at least one estimator configured to - determine, using at least one stochastic method, stopping probabilities of the elevator car per stopping point (HP), and - determine the travel history of the elevator car from the stopping probabilities. - at least one sensor configured to detect at least one parameter resulting from the relative movements of an elevator car during operation; - a data processing unit configured to obtain data relating to said parameter over a certain period of time and comprising at least one estimator configured to - determine, using at least one stochastic method, stopping probabilities of the elevator car per stopping point (HP), and - determine the travel history of the elevator car from the stopping probabilities. - determine, using at least one stochastic method, stopping probabilities of the elevator car per stopping point (HP), and - determine the travel history of the elevator car from the stopping probabilities.
A fixed-focus camera module, comprising: a photosensing component ; an optical lens ; a lens base , wherein the optical lens is packaged at a top end of the lens base such that the optical lens protrudes outward from the lens base , and the optical lens is kept in a photosensing path of the photosensing component ; an optical filtering element ; and a glue layer , wherein the glue layer is located between the optical lens and the lens base , to directly package the optical lens at the lens base through the glue layer , and the glue layer is used to seal a joint between the optical lens and the lens base , characterized in that the top end of the lens base has an outer groove , and the optical lens is directly packaged in the outer groove of the lens base through the glue layer , wherein the optical filtering element and the glue layer are disposed in the outer groove . a photosensing component ; an optical lens ; a lens base , wherein the optical lens is packaged at a top end of the lens base such that the optical lens protrudes outward from the lens base , and the optical lens is kept in a photosensing path of the photosensing component ; an optical filtering element ; and a glue layer , wherein the glue layer is located between the optical lens and the lens base , to directly package the optical lens at the lens base through the glue layer , and the glue layer is used to seal a joint between the optical lens and the lens base , characterized in that the top end of the lens base has an outer groove , and the optical lens is directly packaged in the outer groove of the lens base through the glue layer , wherein the optical filtering element and the glue layer are disposed in the outer groove .
A water fitting , in particular for a camper, caravan, motor caravan or a boat, with a fitting body , in which at least one first channel capable of being flown through by water extends, and with a water outlet pipe pivotably retained on the fitting body , which is pivotable relative to the fitting body around at least one pivot axis between at least two pivot positions (S1, S2) different from each other and comprises at least one second channel , which can be supplied with the water from the first channel , wherein the channels are fluidically connected to each other in a first one of the pivot positions (S1, S2) formed as a use position (G) and are separated from each other by means of at least one element of the water fitting pivotable together with the water outlet pipe in the second pivot position (S2) formed as a stowage position (V), characterized in that at least one recess is formed in the fitting body , wherein at least a part of the water outlet pipe is arranged in the recess in the stowage position (V) and outside of the recess in the use position (G).