mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a wireless network component for packet relaying, the method comprising: transmitting, by the wireless network component, a first data packet to a relay station , wherein the first data packet comprising a first receiver identification, ID of the relay station identifying the relay station as a recipient of the first data packet, data that is intended for a target wireless device, and an identification of the target wireless device; receiving, by the wireless network component, from the relay station, a second data packet within a predetermined time after transmitting the first data packet, characterized in that the second data packet comprises a second receiver ID identifying a recipient of the second data packet, and wherein the first data packet is re-encoded by the relay station in the second data packet; and determining, by the wireless network component, whether the receiver ID in the second data packet corresponds to the identification of the target wireless device, wherein the wireless network component considers the transmission of the first data packet to the relay station is successful if the receiver ID in the second data packet corresponds to the identification of the target wireless device. transmitting, by the wireless network component, a first data packet to a relay station , wherein the first data packet comprising a first receiver identification, ID of the relay station identifying the relay station as a recipient of the first data packet, data that is intended for a target wireless device, and an identification of the target wireless device; receiving, by the wireless network component, from the relay station, a second data packet within a predetermined time after transmitting the first data packet, characterized in that the second data packet comprises a second receiver ID identifying a recipient of the second data packet, and wherein the first data packet is re-encoded by the relay station in the second data packet; and determining, by the wireless network component, whether the receiver ID in the second data packet corresponds to the identification of the target wireless device, wherein the wireless network component considers the transmission of the first data packet to the relay station is successful if the receiver ID in the second data packet corresponds to the identification of the target wireless device.
Process for separation and immobilization of carbon dioxide and/or carbon monoxide from an offgas , wherein the offgas is obtained by combustion of fossil fuels in a power plant, as a byproduct in an industrial process or as an extraction gas in the extraction of fossil fuels, comprising the steps of: a) establishing a stoichiometric ratio of carbon dioxide to hydrogen and/or of carbon monoxide and hydrogen which is suitable for a methanization reaction by supplying the offgas with a corresponding amount of hydrogen or alternatively carbon dioxide and/or carbon monoxide by means of an additive gas , b) performing a catalytic reaction in which the reactants carbon dioxide and/or carbon monoxide and also hydrogen are converted into methane and water, c) separating the methane from the product of the catalytic reaction, d) cracking the methane into carbon and hydrogen, wherein the carbon is generated as a solid, e) collecting the cracked carbon and f) landfilling the collected carbon wherein the offgas is a mixture of at least two components, wherein the offgas comprises at least carbon dioxide or carbon monoxide as one component and the offgas comprises at least one inert gas as further component which remains in the offgas after the separation according to step c), and wherein the carbon obtained as a solid is mixed with a carrier before the landfilling of step f) in order to ensure permanent immobilization of the carbon. a) establishing a stoichiometric ratio of carbon dioxide to hydrogen and/or of carbon monoxide and hydrogen which is suitable for a methanization reaction by supplying the offgas with a corresponding amount of hydrogen or alternatively carbon dioxide and/or carbon monoxide by means of an additive gas , b) performing a catalytic reaction in which the reactants carbon dioxide and/or carbon monoxide and also hydrogen are converted into methane and water, c) separating the methane from the product of the catalytic reaction, d) cracking the methane into carbon and hydrogen, wherein the carbon is generated as a solid, e) collecting the cracked carbon and f) landfilling the collected carbon wherein the offgas is a mixture of at least two components, wherein the offgas comprises at least carbon dioxide or carbon monoxide as one component and the offgas comprises at least one inert gas as further component which remains in the offgas after the separation according to step c), and wherein the carbon obtained as a solid is mixed with a carrier before the landfilling of step f) in order to ensure permanent immobilization of the carbon.
A pharmaceutical composition comprising an antibody at a concentration of at least 70 mg/mL, and an excipient selected from the group consisting of n-acetyl arginine, n-acetyl lysine, n-acetyl histidine, n-acetyl proline and mixtures thereof at a viscosity-reducing concentration, wherein viscosity is reduced by at least 5% versus a control formulation.
A conformable tank , comprising: a body with a plurality of composite walls formed around a cavity, wherein the plurality of composite walls includes a flat side wall disposed opposite a curved side wall ; and an internal support connected to one of the plurality of composite walls and positioned in the cavity; wherein a first section of one of the plurality of composite walls includes an exterior facing, an interior facing, and a core positioned between the exterior facing and the interior facing; and characterised in that the internal support extends through the interior facing and the core of the first section of one of the plurality of composite walls and is integrally formed with the exterior facing. a body with a plurality of composite walls formed around a cavity, wherein the plurality of composite walls includes a flat side wall disposed opposite a curved side wall ; and an internal support connected to one of the plurality of composite walls and positioned in the cavity; wherein a first section of one of the plurality of composite walls includes an exterior facing, an interior facing, and a core positioned between the exterior facing and the interior facing; and characterised in that the internal support extends through the interior facing and the core of the first section of one of the plurality of composite walls and is integrally formed with the exterior facing.
A vehicle unit comprising a vehicle control unit, VCU, an electrical energy storage system, EESS, , and at least one electric machine arranged for regenerative braking, wherein the electric machine is arranged to generate an electrical output current during regenerative braking of the vehicle unit, wherein the control unit is arranged to obtain a desired energy absorption capability value of the vehicle unit and to control an energy dissipation from the EESS to maintain an energy absorption capability of the EESS above the desired energy absorption capability value, characterized in that the control unit is arranged to control the energy dissipation from the EESS by feeding electrical current to a brake resistance device .
A vapor therapy system , comprising: a shaft adapted to be inserted into a male urethra; a vapor delivery needle in the shaft, the needle comprising a vapor exit port ; a water vapor source ; a vapor delivery actuator adapted to deliver water vapor from the water vapor source into the vapor delivery needle and out of the vapor exit port; characterized by a vapor needle deployment mechanism adapted to move a tip of the needle transverse to the shaft no more than 15 mm from the shaft and by a scope bore in the shaft sized to accommodate an endoscope , the bore having an opening oriented to permit a user to view a distal end of the vapor delivery needle through the endoscope. a shaft adapted to be inserted into a male urethra; a vapor delivery needle in the shaft, the needle comprising a vapor exit port ; a water vapor source ; a vapor delivery actuator adapted to deliver water vapor from the water vapor source into the vapor delivery needle and out of the vapor exit port; characterized by a vapor needle deployment mechanism adapted to move a tip of the needle transverse to the shaft no more than 15 mm from the shaft and by a scope bore in the shaft sized to accommodate an endoscope , the bore having an opening oriented to permit a user to view a distal end of the vapor delivery needle through the endoscope.
A method of operating a hearing aid system comprising the steps of: - providing a first input signal that is at least derived from the output from a first microphone; - providing a second input signal that is at least derived from the output from a second microphone; - providing a third input signal that is at least derived from the output from at least one of the first, the second and a third microphone; - determining a mean resultant length R based on samples of inter-microphone phase differences between the first and the second input signals; - determining, based on the mean resultant length R, a frequency dependent gain adapted to provide noise suppression; and - applying said frequency dependent gain to the third input signal in order to provide a noise suppressed signal; wherein the step of determining, based on the mean resultant length R, a frequency dependent gain adapted to provide noise suppression comprises the further steps of: - determining, based on the mean resultant length R, a measure of at least one sound environment characteristic, wherein the at least one sound environment characteristic is selected from a group comprising a signal-to-noise ratio SNR, a speech presence probability, a speech absence probability, a power spectral density noise estimate, and a power spectral density target signal estimate; and - using said measure to provide said frequency dependent gain. - providing a first input signal that is at least derived from the output from a first microphone; - providing a second input signal that is at least derived from the output from a second microphone; - providing a third input signal that is at least derived from the output from at least one of the first, the second and a third microphone; - determining a mean resultant length R based on samples of inter-microphone phase differences between the first and the second input signals; - determining, based on the mean resultant length R, a frequency dependent gain adapted to provide noise suppression; and - applying said frequency dependent gain to the third input signal in order to provide a noise suppressed signal; wherein the step of determining, based on the mean resultant length R, a frequency dependent gain adapted to provide noise suppression comprises the further steps of: - determining, based on the mean resultant length R, a measure of at least one sound environment characteristic, wherein the at least one sound environment characteristic is selected from a group comprising a signal-to-noise ratio SNR, a speech presence probability, a speech absence probability, a power spectral density noise estimate, and a power spectral density target signal estimate; and - using said measure to provide said frequency dependent gain.
A disposable wearing article having a longitudinal direction (Y) and a lateral direction (X), the article comprising a chassis including a body facing surface, a non-body facing surface, a first waist region which is one of front and rear waist regions , a second waist region which is another of the front and rear waist regions and a crotch region extending between the first and second waist regions, an absorbent panel disposed on a side of the body facing surface of the chassis, and side seams respectively coupling both side edges of the first waist region and both side edges of the second waist region, respectively, wherein: the absorbent panel includes an absorbent core extending to the front and rear waist regions centering on the crotch region , and a pair of outer flaps extending longitudinally along both side edges of the absorbent core , at least the first waist region of the first and second waist regions includes a waist elastic area which is elastically contractible in the lateral direction (X), and a pair of elastic strips which are elastically contractible in the lateral direction, each of the pair of elastic strips has an inner fixing end fixed to the outer flap of the absorbent panel and an outer fixing end fixed to the body facing surface of the chassis , and the absorbent panel includes a pair of barrier cuffs , and the barrier cuffs are each positioned more inside in the lateral direction (X) than the inner fixing end of the elastic strip. the absorbent panel includes an absorbent core extending to the front and rear waist regions centering on the crotch region , and a pair of outer flaps extending longitudinally along both side edges of the absorbent core , at least the first waist region of the first and second waist regions includes a waist elastic area which is elastically contractible in the lateral direction (X), and a pair of elastic strips which are elastically contractible in the lateral direction, each of the pair of elastic strips has an inner fixing end fixed to the outer flap of the absorbent panel and an outer fixing end fixed to the body facing surface of the chassis , and the absorbent panel includes a pair of barrier cuffs , and the barrier cuffs are each positioned more inside in the lateral direction (X) than the inner fixing end of the elastic strip.
Warp knitting machine with a knitting area in which the warp knitting machine produces a warp knit during a knitting process, with a yarn feed area in which warp yarns run during operation of the warp knitting machine before they are subjected to the knitting process in the knitting area , and with a system for monitoring a fabric quality of the produced warp knit , wherein the system for monitoring the fabric quality of the produced warp knit has an optical scanning device and a data processing unit, and wherein the data processing unit is configured to produce an evaluation signal relating to the fabric quality of the warp knit , characterised in that the optical scanning device is arranged in such a way that it can capture a moving image of at least one warp yarn in the yarn feed area , the data processing unit being configured to determine a yarn running speed of the at least one warp yarn from the moving image, to evaluate the yarn running speed in an evaluation step and to produce the evaluation signal as a function of an evaluation result of the evaluation step.
A method for manufacturing a dental structure from an individual raw body that is transformed into a dental piece for the subsequent placement thereof by screwing on one or several osseointegrated dental implants with an axis, characterised in that it comprises the following stages: - Drilling the body , through its lower portion that is to be placed on the dental implant , along a first axis (a), coinciding with the axis of the dental implant, creating a first channel with a first diameter, - Inserting a milling tool from below into said first channel , with the shape according to a seat of a screw to be inserted in the first channel, to machine the first channel and the seat of the screw, - Machining the inside of the first channel , widening a first diameter thereof in at least a second section , determining a first section with the first diameter and the second section with a second diameter, which is greater than the first diameter, and - Drilling of said body , creating a second channel , performed before or after the first channel ,along a second axis (b) that forms an angle greater than 0° and less than or equal to 45° with the first axis (a) of the first channel , connecting said second channel with said first channel . - Drilling the body , through its lower portion that is to be placed on the dental implant , along a first axis (a), coinciding with the axis of the dental implant, creating a first channel with a first diameter, - Inserting a milling tool from below into said first channel , with the shape according to a seat of a screw to be inserted in the first channel, to machine the first channel and the seat of the screw, - Machining the inside of the first channel , widening a first diameter thereof in at least a second section , determining a first section with the first diameter and the second section with a second diameter, which is greater than the first diameter, and - Drilling of said body , creating a second channel , performed before or after the first channel ,along a second axis (b) that forms an angle greater than 0° and less than or equal to 45° with the first axis (a) of the first channel , connecting said second channel with said first channel .
A module connector , in particular for batteries of vehicles with an electric drive, with two connection parts which can be connected to one another in an electrically conductive manner and to each of which a conductor element can be attached at a conductor point , and which each have a mutually compatible affixing element , wherein each connection part , at its connection side oriented towards the respective other connection part , is provided with a touch protection having an outer, electrically insulated collar and an electrically insulated protection pin which is surrounded by the collar, wherein a current bridge which electrically connects the two conductor points and which the collar and protection pin project beyond is located at at least one connection part between the collar and protection pin , characterized in that the protection pins are formed by the peaks of the affixing elements .
Method, which comprises: - obtaining a measured value for a terminal voltage of a battery (91-96, 201), which is coupled with a load via a DC/AC inverter , - determining a corrected value of the terminal voltage based on the measured value for the terminal voltage and furthermore based on a correction term which depends on one or more operating parameters of the DC/AC inverter , and - determining a state value of the battery (91-96, 201) based on the corrected value of the terminal voltage, characterized in that the method further comprises: - obtaining a measured value for a switching voltage and/or a switching frequency of one or more switching elements of the DC/AC inverter , wherein the one or more operating parameters of the DC/AC inverter include the switching voltage and/or the switching frequency. - obtaining a measured value for a terminal voltage of a battery (91-96, 201), which is coupled with a load via a DC/AC inverter , - determining a corrected value of the terminal voltage based on the measured value for the terminal voltage and furthermore based on a correction term which depends on one or more operating parameters of the DC/AC inverter , and - determining a state value of the battery (91-96, 201) based on the corrected value of the terminal voltage, characterized in that the method further comprises: - obtaining a measured value for a switching voltage and/or a switching frequency of one or more switching elements of the DC/AC inverter , wherein the one or more operating parameters of the DC/AC inverter include the switching voltage and/or the switching frequency. characterized in that the method further comprises: - obtaining a measured value for a switching voltage and/or a switching frequency of one or more switching elements of the DC/AC inverter , - obtaining a measured value for a switching voltage and/or a switching frequency of one or more switching elements of the DC/AC inverter , wherein the one or more operating parameters of the DC/AC inverter include the switching voltage and/or the switching frequency.
Heat exchanger for a refrigerant fluid loop , the heat exchanger comprising at least one inlet configured to allow a refrigerant fluid (R) to enter in the heat exchanger , at least one outlet configured to allow the refrigerant fluid (R) to exit the heat exchanger , and an integrated receiver drier comprising filtering means located therein, the heat exchanger comprising a filter configured to filter the refrigerant fluid (R), characterized in that the filter is arranged at the outlet of the heat exchanger , wherein the filter is separated from any filtering means located in the integrated receiver drier.
A seat element including a support plate having at least one hole and at least one vibrating device arranged at least partly in the hole, the vibrating device including at least one vibrating element movable in a direction perpendicular to the support plate, characterized in that the support plate includes a support part and at least one blocking part shaped to block the transmission of vibrations of the at least one vibrating device, said blocking part surrounds at least part of an edge of the hole of the support plate, said blocking part including a lower quantity of material per unit area of the support plate so as to reduce the stiffness of the plate.
A positive electrode, comprising: a current collector; and a positive electrode active material layer disposed on the current collector, wherein the positive electrode active material layer comprises granules in which a positive electrode active material, a dry conductive material and a dry binder are aggregated, the dry conductive material is at least one of a carbon nanotube and a carbon fiber, and the positive electrode has a thickness deviation of 5 μm or less, wherein the carbon nanotube is a bundle shape carbon nanotube in which a plurality of carbon nanotube unit bodies are aggregated, and average diameters of the carbon nanotube unit bodies are 5 nm to 100 nm, wherein the average length of the carbon fiber is 1 um to 50 μm. a current collector; and a positive electrode active material layer disposed on the current collector, wherein the positive electrode active material layer comprises granules in which a positive electrode active material, a dry conductive material and a dry binder are aggregated, the dry conductive material is at least one of a carbon nanotube and a carbon fiber, and the positive electrode has a thickness deviation of 5 μm or less,