mhurhangee/patent-ind-claim-en huggingface dataset:
A hearing device , comprising - a housing , which surrounds a housing interior, - a loudspeaker for generating acoustic signals, and - a damping element formed by a damping mat, which is mounted between the loudspeaker and a wall of the housing or a loudspeaker box , wherein the damping mat has at least one fluid-filled damper chamber , wherein the damping mat comprises a support layer formed from a first elastomer, which forms at least one damper chamber filled with a fluid between the loudspeaker and the loudspeaker box , characterized in that the damping mat comprises a cover layer , and the support layer comprises a number of column-like support elements , which support the damper chamber against the cover layer . - a housing , which surrounds a housing interior, - a loudspeaker for generating acoustic signals, and - a damping element formed by a damping mat, which is mounted between the loudspeaker and a wall of the housing or a loudspeaker box , wherein the damping mat has at least one fluid-filled damper chamber , wherein the damping mat comprises a support layer formed from a first elastomer, which forms at least one damper chamber filled with a fluid between the loudspeaker and the loudspeaker box , characterized in that the damping mat comprises a cover layer , and the support layer comprises a number of column-like support elements , which support the damper chamber against the cover layer .
Method for processing a request (R, R100) sent by a first device (T1, T101) registered with a first multimedia IP core network (CN1, CN101) to a public identity allocated to at least one second device (T2-1, T2-2, T2-3, T102-1, T102-2) and known to the first multimedia IP core network, said method being intended to be implemented by a server of the first multimedia IP core network and comprising: o a step (E50, F110) of replicating said request in a first request (R1, R101) and in at least one second request (R2, R102); o a step (E60, F120) of triggering a routing of the first request within the first multimedia IP core network, characterized by o a step (E80, F130) of triggering a routing of said at least one second request along at least one predetermined route to at least one entity for interconnecting the first multimedia IP core network to at least one second core network distinct from the first multimedia IP core network. o a step (E50, F110) of replicating said request in a first request (R1, R101) and in at least one second request (R2, R102); o a step (E60, F120) of triggering a routing of the first request within the first multimedia IP core network, characterized by o a step (E80, F130) of triggering a routing of said at least one second request along at least one predetermined route to at least one entity for interconnecting the first multimedia IP core network to at least one second core network distinct from the first multimedia IP core network.
A method for testing the operation of an aircraft braking system comprising: at least partially actuating an electromechanical brake actuator attached to a brake assembly, wherein the brake assembly comprises a brake stack and the brake actuator comprises a ram ; discontinuing actuating the brake actuator ; and characterized by determining an actuation level of the brake actuator by determining a position of the ram relative to the brake stack after discontinuing actuation of the brake actuator by measuring voltage from a motor of the electromechanical actuator operating as a generator; and evaluating braking performance comprises comparing the position of the ram after discontinuing actuation to a predetermined desired position of the ram. at least partially actuating an electromechanical brake actuator attached to a brake assembly, wherein the brake assembly comprises a brake stack and the brake actuator comprises a ram ; discontinuing actuating the brake actuator ; and characterized by determining an actuation level of the brake actuator by determining a position of the ram relative to the brake stack after discontinuing actuation of the brake actuator by measuring voltage from a motor of the electromechanical actuator operating as a generator; and evaluating braking performance comprises comparing the position of the ram after discontinuing actuation to a predetermined desired position of the ram.
A method of uniquely identifying a user equipment, UE, connected to a radio access network, RAN, comprising: providing a radio access network intelligent controller, RIC, component associated with the RAN; the method further characterized by comprising: configuring, by a packet data convergence protocol, PDCP, layer, a default data radio bearer, DRB, for the UE to maintain Internet Protocol, I, Protocol Data Unit, PDU, connectivity with the RAN; and using, by the RIC, one of NG uplink, UL, user plane, UP, Transport Layer Information or S1 UL UP Transport Layer Information of the default DRB for uniquely identifying the UE for the entire time the UE is connected to the RAN. configuring, by a packet data convergence protocol, PDCP, layer, a default data radio bearer, DRB, for the UE to maintain Internet Protocol, I, Protocol Data Unit, PDU, connectivity with the RAN; and using, by the RIC, one of NG uplink, UL, user plane, UP, Transport Layer Information or S1 UL UP Transport Layer Information of the default DRB for uniquely identifying the UE for the entire time the UE is connected to the RAN.
A planter or pot irrigation system, the system comprising: a planter or pot configured to receive a plant with a root base embedded in plant bedding material ; a fluid tank arrangement configured to be embedded in the plant bedding material , and the fluid tank arrangement being configured to contain irrigation fluid ; at least one irrigation pipe with a continuous wick ; at least one irrigation stake comprising a tipped end configured to be embedded in the bedding material in proximity to the root base of the plant , said at least one irrigation stake being coupled to the fluid tank arrangement by the at least one irrigation pipe ; and wherein the continuous wick of the at least one irrigation pipe is configured to originate from inside the fluid tank arrangement and to extend through the at least one irrigation stake to a fluid outlet location in proximity to the tipped end of the at least one irrigation stake , whereby fluid inside the fluid tank arrangement is configured to be conveyed by the continuous wick through a fluid outlet in the irrigation stake to the plant root base by capillary action. a planter or pot configured to receive a plant with a root base embedded in plant bedding material ; a fluid tank arrangement configured to be embedded in the plant bedding material , and the fluid tank arrangement being configured to contain irrigation fluid ; at least one irrigation pipe with a continuous wick ; at least one irrigation stake comprising a tipped end configured to be embedded in the bedding material in proximity to the root base of the plant , said at least one irrigation stake being coupled to the fluid tank arrangement by the at least one irrigation pipe ; and wherein the continuous wick of the at least one irrigation pipe is configured to originate from inside the fluid tank arrangement and to extend through the at least one irrigation stake to a fluid outlet location in proximity to the tipped end of the at least one irrigation stake , whereby fluid inside the fluid tank arrangement is configured to be conveyed by the continuous wick through a fluid outlet in the irrigation stake to the plant root base by capillary action.
A separator for a rechargeable lithium battery , comprising a porous substrate , and a coating layer disposed on at least one surface of the porous substrate , wherein the coating layer comprises a heat resistant binder including a (meth)acryl-based copolymer including a first structural unit and a second structural unit, the first structural unit being a (meth)acrylamide and the second structural unit being a structural unit of a (meth)acrylic acid, a (meth)acrylate, a (meth)acrylonitrile, a (meth)acrylamido sulfonic acid, a (meth)acrylamido sulfonate salt, or a combination thereof; polyethylene particles ; and first inorganic particles , and a particle size of the first inorganic particles is larger than a particle size of the polyethylene particles . a porous substrate , and a coating layer disposed on at least one surface of the porous substrate , wherein the coating layer comprises a heat resistant binder including a (meth)acryl-based copolymer including a first structural unit and a second structural unit, the first structural unit being a (meth)acrylamide and the second structural unit being a structural unit of a (meth)acrylic acid, a (meth)acrylate, a (meth)acrylonitrile, a (meth)acrylamido sulfonic acid, a (meth)acrylamido sulfonate salt, or a combination thereof; polyethylene particles ; and first inorganic particles , and a particle size of the first inorganic particles is larger than a particle size of the polyethylene particles .
An allowable value setting device for setting an allowable value (TR) of a deviation amount between a target pickup position and an actual pickup position in a component when the component is picked up by a suction nozzle, the device comprising: a first setting section configured to set a first allowable value (TR1), which is the allowable value for each component type of the component to be mounted on a board; and a second setting section configured to set a second allowable value (TR2), which is the allowable value that is set for each mounting coordinate of the component and smaller than the first allowable value (TR1) of the component of the same component type set by the first setting section , the second allowable value (TR2) being preferentially adopted over the first allowable value (TR1) in a suction process of the component; characterized in that the second setting section is further configured to set or not to set the second allowable value (TR2) for each mounting coordinate. a first setting section configured to set a first allowable value (TR1), which is the allowable value for each component type of the component to be mounted on a board; and a second setting section configured to set a second allowable value (TR2), which is the allowable value that is set for each mounting coordinate of the component and smaller than the first allowable value (TR1) of the component of the same component type set by the first setting section , the second allowable value (TR2) being preferentially adopted over the first allowable value (TR1) in a suction process of the component; characterized in that the second setting section is further configured to set or not to set the second allowable value (TR2) for each mounting coordinate.
An mRNA-mannose conjugate, comprising an mRNA encoding a polypeptide with at least one 5' cap structure, a 5' UTR with at least one Kozak sequence, a 3' UTR, and a polyA tail, and at least one mannose attached to the mRNA via an amine at a 3' terminus of the mRNA, and wherein the mRNA comprises uridine, cytidine, adenosine, guanosine and/or chemically modified nucleosides thereof, wherein the amine is a secondary amine, and wherein the amine is formed on a last adenine of the polyA tail of the mRNA.
An auto exposure method (4000; 2200) for an image sensor, wherein the image sensor is a spatially-multiplexed-exposure high-dynamic-range image sensor having at least two different exposure times, the method comprising: evaluating variance, for each of a plurality of histograms of the pixel values from a respective plurality of individual exposures of the image sensor at respective exposure time settings, of entropy contribution from individual bins of the histogram to total entropy of the histogram, to determine an optimal exposure time for the image sensor corresponding to at least a minimum value of the variance, wherein the minimum value of the variance is calculated by collectively minimizing the variance and a noise discrepancy between the pixel values from at least two different exposure times; synthesizing the histogram from a plurality of exposure-time-specific histograms associated with a respective plurality of pixel subsets of the spatially-multiplexed-exposure high-dynamic-range image sensor operating at a respective plurality of different exposure times; setting a first time exposure to an initial value; setting a second time exposure to a minimum value shorter than the first time exposure; estimating a target value of the first time exposure from an histogram generated by setting the first time exposure to the initial value and the second time exposure to the minimum value, for scaling at least part of the histogram; outputting the target value as the optimal exposure time if the target value is equal or exceeds the initial value. evaluating variance, for each of a plurality of histograms of the pixel values from a respective plurality of individual exposures of the image sensor at respective exposure time settings, of entropy contribution from individual bins of the histogram to total entropy of the histogram, to determine an optimal exposure time for the image sensor corresponding to at least a minimum value of the variance, wherein the minimum value of the variance is calculated by collectively minimizing the variance and a noise discrepancy between the pixel values from at least two different exposure times; synthesizing the histogram from a plurality of exposure-time-specific histograms associated with a respective plurality of pixel subsets of the spatially-multiplexed-exposure high-dynamic-range image sensor operating at a respective plurality of different exposure times; setting a first time exposure to an initial value; setting a second time exposure to a minimum value shorter than the first time exposure; estimating a target value of the first time exposure from an histogram generated by setting the first time exposure to the initial value and the second time exposure to the minimum value, for scaling at least part of the histogram; outputting the target value as the optimal exposure time if the target value is equal or exceeds the initial value.
A method for production of a compound with anti-carcinogenic effect affecting cancer cell lines and selectively causing apoptosis in these cell, and thus preventing the tumours in the patient's body from growing, characterised by; - Mixing of 4-dihydroxiboryl-DL-phenylalanine and 1,10-phenanthrolin-5,6-dion compounds , - Dissolution of this binary mixture in methanol and hydrochloric acid (HC1) , - Precipitation of prepared quaternary mixture by leaving it to rest in room temperature , - Filtering of precipitated mixture to obtain solid material , - Washing of the solid material , - Drying the solid material to obtain (4-(2-amino-2-(10,11-dioxo-10,11-dihydro-5H-imidazo[1,3,4,5-lmn] phenanthrolin-5-yl)ethyl)phenyl)boronic acid . - Mixing of 4-dihydroxiboryl-DL-phenylalanine and 1,10-phenanthrolin-5,6-dion compounds , - Dissolution of this binary mixture in methanol and hydrochloric acid (HC1) , - Precipitation of prepared quaternary mixture by leaving it to rest in room temperature , - Filtering of precipitated mixture to obtain solid material , - Washing of the solid material , - Drying the solid material to obtain (4-(2-amino-2-(10,11-dioxo-10,11-dihydro-5H-imidazo[1,3,4,5-lmn] phenanthrolin-5-yl)ethyl)phenyl)boronic acid .
A method carried out by a computer of analyzing a biological sample of an organism to estimate a first severity of systemic lupus erythematosus (SLE), the biological sample including nucleic acid molecules, wherein at least some of the nucleic acid molecules are circulating nucleic acid molecules, the method comprising: analyzing a plurality of circulating DNA molecules from the biological sample, wherein analyzing a DNA molecule comprises: determining a size of the circulating DNA molecules, and comparing the size of the circulating DNA molecules with a threshold value, the threshold value in a range from 90 bp to 125 bp; determining, with a computer system, an amount of the circulating DNA molecules having sizes below the threshold value; comparing the amount to a cutoff; and estimating the first severity of SLE in the organism based upon comparing the amount to the cutoff, wherein: the cutoff corresponding to a same severity of SLE, if the amount exceeds the cutoff, the first severity of SLE in the organism is estimated to correspond to a more severe form of SLE than if the amount does not exceed the cutoff. analyzing a plurality of circulating DNA molecules from the biological sample, wherein analyzing a DNA molecule comprises: determining a size of the circulating DNA molecules, and comparing the size of the circulating DNA molecules with a threshold value, the threshold value in a range from 90 bp to 125 bp; determining a size of the circulating DNA molecules, and comparing the size of the circulating DNA molecules with a threshold value, the threshold value in a range from 90 bp to 125 bp; determining, with a computer system, an amount of the circulating DNA molecules having sizes below the threshold value; comparing the amount to a cutoff; and estimating the first severity of SLE in the organism based upon comparing the amount to the cutoff, wherein: the cutoff corresponding to a same severity of SLE, if the amount exceeds the cutoff, the first severity of SLE in the organism is estimated to correspond to a more severe form of SLE than if the amount does not exceed the cutoff. the cutoff corresponding to a same severity of SLE, if the amount exceeds the cutoff, the first severity of SLE in the organism is estimated to correspond to a more severe form of SLE than if the amount does not exceed the cutoff.
A compressed natural gas, CNG, engine, comprising: a cylinder having a cylinder bore ; an intake valve configured to introduce an air and a fuel into the cylinder bore ; a piston slidably arranged in the cylinder bore to convert an explosive force, which is generated by combusting the fuel, into a linear driving force; an exhaust valve configured to exhaust an exhaust gas from the cylinder bore ; and a crankshaft connected with the piston to convert the linear driving force into a rotational driving force, a camshaft configured to operate the intake valve and the exhaust valve ; an intake cam combined with the camshaft to open/close the intake valve ; and an exhaust cam combined with the camshaft to open/close the exhaust valve , wherein the intake valve and the exhaust valve are simultaneously opened within a rotation angle of 3° to 12° of the crankshaft , and the intake valve is opened within the rotation angle of 1° to 2° of the crankshaft before a top dead point of the piston , and the exhaust valve is closed within the rotation angle of 2° to 10°of the crankshaft after a top dead point of the piston , and wherein a phase difference between a nose of the intake cam and a nose of the exhaust cam is 107.75° to 112.25°. a cylinder having a cylinder bore ; an intake valve configured to introduce an air and a fuel into the cylinder bore ; a piston slidably arranged in the cylinder bore to convert an explosive force, which is generated by combusting the fuel, into a linear driving force; an exhaust valve configured to exhaust an exhaust gas from the cylinder bore ; and a crankshaft connected with the piston to convert the linear driving force into a rotational driving force, a camshaft configured to operate the intake valve and the exhaust valve ; an intake cam combined with the camshaft to open/close the intake valve ; and an exhaust cam combined with the camshaft to open/close the exhaust valve , wherein the intake valve and the exhaust valve are simultaneously opened within a rotation angle of 3° to 12° of the crankshaft , and the intake valve is opened within the rotation angle of 1° to 2° of the crankshaft before a top dead point of the piston , and the exhaust valve is closed within the rotation angle of 2° to 10°of the crankshaft after a top dead point of the piston , and wherein a phase difference between a nose of the intake cam and a nose of the exhaust cam is 107.75° to 112.25°.
Method for operating a drive train , having at least one drive motor and at least one transmission , of a motor vehicle which is able to be driven by the drive motor via the transmission , in which heat is transferred in a targeted manner to the transmission from the drive motor , whereby the transmission is heated in a targeted manner, wherein the heat is transferred in a targeted manner to the transmission from the drive motor according to predictive data that characterize at least one future state of the motor vehicle, characterized in that the heat is transferred in a targeted manner to the transmission from the drive motor also according to at least one efficiency value that is stored in a memory device of an electronic computing device of the drive train and that characterizes an efficiency or a power loss of the transmission .
Wireless communication device (DC_2) having a hybrid analogue-digital architecture configured to transmit and receive transmission beams via an array of antenna elements (A_1, ..., A_N) and comprising an analogue processing unit (ANA) comprising passive phase shifters (DP_1, ..., DP_N), each passive phase shifter comprising a first port (PO_1_1, ..., PO_N_1) and a second port (PO_1_2, ..., PO_N_2), said communication device comprising a control module (MOD_CO) configured to control switching means (110_1, 110_2, 110_3, 110_4, 111) of said communication device, so that the communication device is able to alternate between three distinct modes: - a first/second mode in which each passive phase shifter is integrated into a transmission/reception chain connected to an antenna element, - a third mode in which each passive phase shifter is integrated into a transmission line distinct from the transmission and reception chains, said transmission line comprising a first portion connecting the first port of said passive phase shifter to the antenna element to which it may also be connected in said first/second mode and configured so that substantially all the electromagnetic energy associated with a transmission beam received by said antenna element is transmitted to the passive phase shifter, said transmission line further comprising a second portion connecting the second port of said passive phase shifter to an impedance (U_1, ..., U_N) configured so as to reflect said electromagnetic energy. - a first/second mode in which each passive phase shifter is integrated into a transmission/reception chain connected to an antenna element, - a third mode in which each passive phase shifter is integrated into a transmission line distinct from the transmission and reception chains, said transmission line comprising a first portion connecting the first port of said passive phase shifter to the antenna element to which it may also be connected in said first/second mode and configured so that substantially all the electromagnetic energy associated with a transmission beam received by said antenna element is transmitted to the passive phase shifter, said transmission line further comprising a second portion connecting the second port of said passive phase shifter to an impedance (U_1, ..., U_N) configured so as to reflect said electromagnetic energy.
A traction transformer for railbound vehicles comprising: - an insulating liquid filled enclosure with a first and a second cover arranged at axial ends of the enclosure , - at least two windings contained in the enclosure , - a transformer core arranged outside the enclosure , - mounting means for mounting the transformer to the railbound vehicle, wherein further the insulating liquid is a transformer oil, and characterised in that the mounting means are attached to the transformer core , and wherein the enclosure is clamped between at least two support elements (60, 62 or 61, 63) pressing at the axial ends onto the first and the second cover . - an insulating liquid filled enclosure with a first and a second cover arranged at axial ends of the enclosure , - at least two windings contained in the enclosure , - a transformer core arranged outside the enclosure , - mounting means for mounting the transformer to the railbound vehicle,