mhurhangee/ep-ind-claims huggingface dataset:
An event management system, comprising: a server comprising a platform component architecture, PCA, arranged to operate as a common interface between a data source, storing user defined objects using a first schema, and at least one client application, the PCA arranged to provide interface services to: perform runtime discovery and adding of at least one new system component (108a... 108n) and bringing it into the process space of a runtime component of the PCA; parse user defined database tables and interfaces of the at least one new system component (108a... 108n) to automatically generate code to bridge the first schema of the user defined objects and the second schema of the database tables that correspond to them. a server comprising a platform component architecture, PCA, arranged to operate as a common interface between a data source, storing user defined objects using a first schema, and at least one client application, the PCA arranged to provide interface services to: perform runtime discovery and adding of at least one new system component (108a... 108n) and bringing it into the process space of a runtime component of the PCA; parse user defined database tables and interfaces of the at least one new system component (108a... 108n) to automatically generate code to bridge the first schema of the user defined objects and the second schema of the database tables that correspond to them. perform runtime discovery and adding of at least one new system component (108a... 108n) and bringing it into the process space of a runtime component of the PCA; parse user defined database tables and interfaces of the at least one new system component (108a... 108n) to automatically generate code to bridge the first schema of the user defined objects and the second schema of the database tables that correspond to them.
A method for automatically detecting the connection line order between the feed ports of a multiple facet dual polarized antenna with electrical tilt and the RF ports of a multichannel base station, characterized by comprising the steps of: adjusting, by an electrical adjustment unit, n electric down-tilts of the multiple facet dual polarized antenna, and collecting by the antenna feed ports placed in the electrical adjustment unit, standing wave ratio values of the signals reflected for each electric down-tilt of the transmitting channels of the base station, wherein n is an integer greater than 2; and calculating the variance of the collected standing wave ratio values corresponding to the n electric down-tilts according to a variance algorithm, wherein if the value of the variance is greater than a pre-determined threshold, the connection line order between the multiple facet dual polarized antenna and the base station is determined to be correct, wherein the connection line order is the connection relationship between the multichannel base station RF ports and the multiple facet dual polarized antenna feeder ports. adjusting, by an electrical adjustment unit, n electric down-tilts of the multiple facet dual polarized antenna, and collecting by the antenna feed ports placed in the electrical adjustment unit, standing wave ratio values of the signals reflected for each electric down-tilt of the transmitting channels of the base station, wherein n is an integer greater than 2; and calculating the variance of the collected standing wave ratio values corresponding to the n electric down-tilts according to a variance algorithm, wherein if the value of the variance is greater than a pre-determined threshold, the connection line order between the multiple facet dual polarized antenna and the base station is determined to be correct, wherein the connection line order is the connection relationship between the multichannel base station RF ports and the multiple facet dual polarized antenna feeder ports.
Use of a compound having a structure of formula (Ia) wherein R 1 or R 2 is hydrogen and the other of substituents R 1 or R 2 is selected from H, fluorine, chlorine, bromine, CN, COOR 11, hydroxy, C 1-3 alkyl and C 1-3 alkoxy; R 3 is selected from oxazolyl, pyridyl, imidazolyl and pyrimidyl residues; R 5 and R 6 are independently selected from H, fluorine, chlorine, bromine; R 8 and R 9 are H; R 11 is selected from H and C 1-3 alkyl that may be straight-chain, branched-chain or cyclic, saturated or unsaturated; or a pharmaceutically acceptable salt thereof for preparing a medicament for treating hyperaldosteronism, heart failure, and myocardial fibrosis. R 1 or R 2 is hydrogen and the other of substituents R 1 or R 2 is selected from H, fluorine, chlorine, bromine, CN, COOR 11, hydroxy, C 1-3 alkyl and C 1-3 alkoxy; R 3 is selected from oxazolyl, pyridyl, imidazolyl and pyrimidyl residues; R 5 and R 6 are independently selected from H, fluorine, chlorine, bromine; R 8 and R 9 are H; R 11 is selected from H and C 1-3 alkyl that may be straight-chain, branched-chain or cyclic, saturated or unsaturated; or a pharmaceutically acceptable salt thereof for preparing a medicament for treating hyperaldosteronism, heart failure, and myocardial fibrosis.
A coordinate measurement device, comprising: an articulated arm comprising a plurality of articulated arm members (20,30-36), a coordinate acquisition member (50,407,507) at a distal end, and a base at a proximal end, wherein the coordinate acquisition member (50,407,507) generates coordinate data based on a measured position of the articulated arm; an add-on device assembly (70,409,509) coupled to the coordinate acquisition member (50,407,507), wherein the add-on device assembly (70,409,509) generates an add-on device data packet (413 for being transmitted over a network in response to a trigger signal received by the add-on device assembly (70,409,509) that indicates a time at which the coordinate acquisition member (50,407,507) measured a position of the articulated arm, and wherein the add-on device data packet comprises measurement data of the add-on device assembly (70,409,509); and a feature pack (90,490) coupled to the base (10,410) of the articulated arm, wherein the feature pack (90,490) is arranged to receive the coordinate data and the add-on device data packet, to insert bits of the coordinate data into a packet for being transmitted over a network, and to wirelessly transmit the packetized coordinate data and the add-on device data packet to a base station. an articulated arm comprising a plurality of articulated arm members (20,30-36), a coordinate acquisition member (50,407,507) at a distal end, and a base at a proximal end, wherein the coordinate acquisition member (50,407,507) generates coordinate data based on a measured position of the articulated arm; an add-on device assembly (70,409,509) coupled to the coordinate acquisition member (50,407,507), wherein the add-on device assembly (70,409,509) generates an add-on device data packet (413 for being transmitted over a network in response to a trigger signal received by the add-on device assembly (70,409,509) that indicates a time at which the coordinate acquisition member (50,407,507) measured a position of the articulated arm, and wherein the add-on device data packet comprises measurement data of the add-on device assembly (70,409,509); and a feature pack (90,490) coupled to the base (10,410) of the articulated arm, wherein the feature pack (90,490) is arranged to receive the coordinate data and the add-on device data packet, to insert bits of the coordinate data into a packet for being transmitted over a network, and to wirelessly transmit the packetized coordinate data and the add-on device data packet to a base station.
A printing device comprising: a turntable configured to turn a printing object which is to be mounted thereon in such a manner that a printed face thereof is directed upward; a printing head provided with a plurality of nozzles (23a - 23f) for spouting inks (Y, M, C, K, W1 and W2) and configured to be able to move towards a center of rotation of the printing object from outside the rotation of the printed face of the printing object which is to be mounted on the turntable; and, a controller configured to control a moving speed of the printing head, a rotating speed of the turntable, and spouting of the inks (Y, M, C, K, W1 and W2) by the plurality of the nozzles (23a - 23f), characterized in that the printed face of the printing object is formed to have a doughnut-like shape; and the controller is configured to perform a controlling operation in a manner such that a printing is spirally applied onto the doughnut-like shaped printed face of the printing object by permitting the printing object mounted on the turntable to be rotated and by permitting the printing head to continuously move while allowing the plurality of the nozzles (23a - 23f) to spout the inks (Y, M, C, K, W1 and W2) therefrom at a constant interval, respectively, and also while making the rotating speed of the turntable and the moving speed of the printing head become faster as they are approaching the centre of rotation to thereby equalize a relative moving speed between the printing head and the printing object on the turntable. a turntable configured to turn a printing object which is to be mounted thereon in such a manner that a printed face thereof is directed upward; a printing head provided with a plurality of nozzles (23a - 23f) for spouting inks (Y, M, C, K, W1 and W2) and configured to be able to move towards a center of rotation of the printing object from outside the rotation of the printed face of the printing object which is to be mounted on the turntable; and, a controller configured to control a moving speed of the printing head, a rotating speed of the turntable, and spouting of the inks (Y, M, C, K, W1 and W2) by the plurality of the nozzles (23a - 23f), characterized in that
Use of a reagent for measuring the mean corpuscular volume of a blood sample, the reagent comprising: water, a polyoxyethylene alkyl ether having a hydroxyl value of 52 to 60, and an osmo-regulator for regulating the osmotic pressure of the reagent in the range of 150 to 400 mOsm/kg. water, a polyoxyethylene alkyl ether having a hydroxyl value of 52 to 60, and an osmo-regulator for regulating the osmotic pressure of the reagent in the range of 150 to 400 mOsm/kg.
An apparatus configured to be arranged within a housing of an injection device and for detecting a manipulation of the injection device, the apparatus comprising: a cam part that is configured to be rotatable relative to a follower part; a resilient member arranged to urge the parts towards abutment with each other wherein rotation of the cam part relative to the follower part causes reciprocating motion of the follower part, wherein the follower part is configured to move reciprocally in an axial direction of the injection device; and a contact sensor provided between the cam part and the follower part and configured to detect the reciprocating motion of the follower part, wherein the cam part comprises a profiled section comprising an axially varying profile arranged to be in abutment with the follower part and configured to cause reciprocating motion of the follower part, and wherein the contact sensor is arranged on the cam part and is configured to separate from the follower part upon reciprocal movement of the follower part. a cam part that is configured to be rotatable relative to a follower part; a resilient member arranged to urge the parts towards abutment with each other wherein rotation of the cam part relative to the follower part causes reciprocating motion of the follower part, wherein the follower part is configured to move reciprocally in an axial direction of the injection device; and a contact sensor provided between the cam part and the follower part and configured to detect the reciprocating motion of the follower part, wherein the cam part comprises a profiled section comprising an axially varying profile arranged to be in abutment with the follower part and configured to cause reciprocating motion of the follower part, and wherein the contact sensor is arranged on the cam part and is configured to separate from the follower part upon reciprocal movement of the follower part.
A rolling bearing for water pumps, wherein the rolling bearing comprises a sealing arrangement and is configured for radial and axial mounting as well as sealing of a shaft of a water pump in a housing between a wet side which is in contact with a liquid medium which flows through the water pump, and a dry side which constitutes a drive side, comprising: an outer ring and a shaft bearing section at which raceways for at least two axially adjacent rolling-element rows (14, 15) are formed; a plurality of rolling elements that are accommodated in at least one rolling-element cage (12a, 12b) and guided in the rolling-element rows (14, 15); and the sealing arrangement having a wet-side shaft seal arranged between the wet side and a rolling-element row; and a dry-side shaft seal arranged between a rolling-element row and the dry side; characterized in that the sealing arrangement further comprises a lubricant reservoir which is arranged circumferentially in a radial contact to the shaft section and the outer ring; wherein the lubricant reservoir comprises a substrate that is porous in at least some sections which, in its pores, includes a lubricant insoluble in water, wherein a volume of the lubricant reservoir and a volume of a lubricant filling which is delimited with respect to the lubricant reservoir and is a liquid cushion filled with the same lubricant, take up a total volume of spaces between the wet-side shaft seal and the dry-side shaft seal, and a sealing function of the sealing arrangement is effected by an interaction of the lubricant reservoir with the shaft seals (24 and 25) under an externally acting pressure of the liquid medium on the wet side. an outer ring and a shaft bearing section at which raceways for at least two axially adjacent rolling-element rows (14, 15) are formed; a plurality of rolling elements that are accommodated in at least one rolling-element cage (12a, 12b) and guided in the rolling-element rows (14, 15); and the sealing arrangement having a wet-side shaft seal arranged between the wet side and a rolling-element row; and a dry-side shaft seal arranged between a rolling-element row and the dry side; a wet-side shaft seal arranged between the wet side and a rolling-element row; and a dry-side shaft seal arranged between a rolling-element row and the dry side; characterized in that the sealing arrangement further comprises a lubricant reservoir which is arranged circumferentially in a radial contact to the shaft section and the outer ring; wherein the lubricant reservoir comprises a substrate that is porous in at least some sections which, in its pores, includes a lubricant insoluble in water, wherein a volume of the lubricant reservoir and a volume of a lubricant filling which is delimited with respect to the lubricant reservoir and is a liquid cushion filled with the same lubricant, take up a total volume of spaces between the wet-side shaft seal and the dry-side shaft seal, and a sealing function of the sealing arrangement is effected by an interaction of the lubricant reservoir with the shaft seals (24 and 25) under an externally acting pressure of the liquid medium on the wet side.
Method of preparing a thin layer including: - a step of producing a detachable interface between a layer intended to form part of said thin layer and a substrate, said interface being produced that at least a first region (Z 1, Z 1 ') has a non-zero first level of mechanical strength and a second region (Z 2, Z 2 ') has a second level of mechanical strength significantly greater than the first level of mechanical strength, - a subsequent step of detaching taking place in the first and second regions, and - between the step of producing the interface and the detaching step, a step of producing in the layer all or part of microelectronic, optical or mechanical components, characterized in that: a) in the producing step, the first region is surrounded by the second, and b) in the detaching step, the detachment is initiated in the second region, and c) in the step of producing a detachable interface, the interface is produced by bonding. - a step of producing a detachable interface between a layer intended to form part of said thin layer and a substrate, said interface being produced that at least a first region (Z 1, Z 1 ') has a non-zero first level of mechanical strength and a second region (Z 2, Z 2 ') has a second level of mechanical strength significantly greater than the first level of mechanical strength, - a subsequent step of detaching taking place in the first and second regions, and - between the step of producing the interface and the detaching step, a step of producing in the layer all or part of microelectronic, optical or mechanical components, a) in the producing step, the first region is surrounded by the second, and b) in the detaching step, the detachment is initiated in the second region, and c) in the step of producing a detachable interface, the interface is produced by bonding.
Magic cube having rotatable magic cube planes and having six magic cube walls made of a total of at least 26 cube pieces which have rectangular, preferably square, cube piece walls, wherein lines which, at least in a basic state of the magic cube, each form a closed geometric surface on each magic cube wall are arranged on a multiplicity of cube piece walls that are bordered by cube piece edges, characterized in that the lines on a multiplicity of cube piece walls are arranged to meet one another through the cube piece edges in such a way that the lines on each magic cube wall each generate a new closed geometric surface at each rotation of the magic cube planes, wherein the lines which form the closed geometric surfaces are intrinsically closed sections.
An implantable cardiac device, comprising - a sensing unit adapted to measure a physiological signal input stream, comprising a patient's respiratory waveforms, - a quantizer-unit adapted to sample the input stream with an initial sampling frequency Fs, providing input samples of the input stream, and - a filter bank suited to perform a streaming Wavelet transformation on the input samples on a sample-by-sample basis, using the initial sampling frequency Fs provided by the quantizer-unit, wherein the streaming Wavelet transformation is adapted to perform a source separation, extracting, and separating the respiratory waveforms of the input stream, characterized in that - the initial sampling frequency Fs of the quantizer-unit is adaptable, - the initial sampling frequency Fs of the quantizer-unit is adapted according to a change in the heart rate and/or a change in the breathing rate of a patient, and - the filter bank is adapted to perform a streaming Wavelet transformation comprising a forward transformation and a backward transformation, wherein during the forward transformation, the Wavelet transformation is applicable on each input sample provided by the quantizer-unit generating output data on n different sampling levels, wherein the output data generated on the sampling levels is queued and the sampling frequency used to sample an input sample on a sampling level t is equal to 2 times the sampling frequency of the sampling level t-1, wherein n and t are elements of. - a sensing unit adapted to measure a physiological signal input stream, comprising a patient's respiratory waveforms, - a quantizer-unit adapted to sample the input stream with an initial sampling frequency Fs, providing input samples of the input stream, and - a filter bank suited to perform a streaming Wavelet transformation on the input samples on a sample-by-sample basis, using the initial sampling frequency Fs provided by the quantizer-unit, wherein the streaming Wavelet transformation is adapted to perform a source separation, extracting, and separating the respiratory waveforms of the input stream, characterized in that - the initial sampling frequency Fs of the quantizer-unit is adaptable, - the initial sampling frequency Fs of the quantizer-unit is adapted according to a change in the heart rate and/or a change in the breathing rate of a patient, and - the filter bank is adapted to perform a streaming Wavelet transformation comprising a forward transformation and a backward transformation, wherein during the forward transformation, the Wavelet transformation is applicable on each input sample provided by the quantizer-unit generating output data on n different sampling levels, wherein the output data generated on the sampling levels is queued and the sampling frequency used to sample an input sample on a sampling level t is equal to 2 times the sampling frequency of the sampling level t-1, wherein n and t are elements of.
A method of forming a structure, said method comprising: providing a substrate, said substrate optionally including one or more intermediate layers thereon; forming an assist layer on said substrate, or on said one or more intermediate layers, if present, said assist layer being formed from a composition comprising a polymeric metal alkoxide comprising recurring units having the following formula: where each R is individually selected from the group consisting of hydrogen and alkyl groups, and M is a metal selected from the group consisting of Al, Mg, Na, Zn, Co, Cu, Ga, Ge, Hf, Ti, Zr, Se, Ni, V, Ar, Sc, and Si, and being a cured film comprising at least 0.01% by weight metal, based upon the total weight of the cured film taken as 100% by weight; forming a photoresist layer on said assist layer; subjecting at least a portion of said photoresist layer to EUV radiation, wherein said subjecting said photoresist layer to EUV radiation is carried out with a dose of from 5 mJ/cm 2 to 100 mJ/cm 2; and forming a pattern in said photoresist layer after said subjecting of said photoresist layer to EUV radiation. providing a substrate, said substrate optionally including one or more intermediate layers thereon; forming an assist layer on said substrate, or on said one or more intermediate layers, if present, said assist layer being formed from a composition comprising a polymeric metal alkoxide comprising recurring units having the following formula: where each R is individually selected from the group consisting of hydrogen and alkyl groups, and M is a metal selected from the group consisting of Al, Mg, Na, Zn, Co, Cu, Ga, Ge, Hf, Ti, Zr, Se, Ni, V, Ar, Sc, and Si, and being a cured film comprising at least 0.01% by weight metal, based upon the total weight of the cured film taken as 100% by weight; forming a photoresist layer on said assist layer; subjecting at least a portion of said photoresist layer to EUV radiation, wherein said subjecting said photoresist layer to EUV radiation is carried out with a dose of from 5 mJ/cm 2 to 100 mJ/cm 2; and forming a pattern in said photoresist layer after said subjecting of said photoresist layer to EUV radiation.