mhurhangee/patent-ind-claim-en huggingface dataset:
An interference coordination method implemented in a base station, wherein the method comprises: determining (S101) whether intra-device interference exists between uplink transmission and downlink transmission to be performed by user equipment, UE, in two frequency bands; if it is determined that intra-device interference exists between the uplink transmission and downlink transmission to be performed by the UE in two frequency bands, stopping (S102) sending downlink transmission scheduling information of one frequency band to the UE, or sending (S102) a blank subframe or an almost blank subframe to the UE, in a time interval during which the UE is scheduled to send uplink transmission in at least one frequency band of the two frequency bands; or stopping (S103) sending uplink transmission scheduling information of at least one frequency band in the two frequency bands to the UE in a time interval of sending downlink transmission scheduling information of one frequency band to the UE. determining (S101) whether intra-device interference exists between uplink transmission and downlink transmission to be performed by user equipment, UE, in two frequency bands; if it is determined that intra-device interference exists between the uplink transmission and downlink transmission to be performed by the UE in two frequency bands, stopping (S102) sending downlink transmission scheduling information of one frequency band to the UE, or sending (S102) a blank subframe or an almost blank subframe to the UE, in a time interval during which the UE is scheduled to send uplink transmission in at least one frequency band of the two frequency bands; or stopping (S103) sending uplink transmission scheduling information of at least one frequency band in the two frequency bands to the UE in a time interval of sending downlink transmission scheduling information of one frequency band to the UE.
A supply element for a shelving system for providing current and/or data to a terminal device , in order to provide current and/or data by contact to a terminal device on a shelving bracket which is fastened to the shelf support , characterised in that the supply element can be arranged in an interior of a hollow shelf support of the shelving system , which supply element is multi-layered and has a longitudinal extent L, a widthwise extent B and a thickness D, with at least three conductor paths (6, 6', 6") for conducting current and/or data being formed, of which one is freely accessible and contactable continuously along at least a portion A of the longitudinal extent L on the surface of the supply element , and at least two conductor paths (6', 6") for conducting current and/or data are freely accessible and contactable on the surface of the supply element in portions A', A" of the longitudinal extent L, the portions A', A" on the longitudinal extent L of the at least two conductor paths (6', 6"), on which these conductor paths are freely accessible and contactable, being formed at different locations O', O" on the surface of the supply element , in order to supply current and/or data to at least two shelving brackets of the shelving system with terminal devices .
A system for extracting gas or gas mixtures from a liquid for performing dissolved gas or gas mixture analysis, the system comprising: - a container for storing a liquid and/or a gas or gas mixture, - a liquid pump which is connected to the container , - a means for feeding the system with a liquid and emptying the system of the liquid, - a gas analyzer which is connected to the container , - a piping which is connected to the container , and wherein the piping , the liquid pump and the container are configured to circulate the liquid, and - means for dissolving the gas or gas mixture back into the liquid, characterized in that the system is configured to vary a gas pressure or gas mixture pressure between successive measurements by the gas analyzer by elevating or lowering a liquid level after transferring the extracted gas or gas mixture into the gas analyzer and measuring a gas or gas mixture concentration. - a container for storing a liquid and/or a gas or gas mixture, - a liquid pump which is connected to the container , - a means for feeding the system with a liquid and emptying the system of the liquid, - a gas analyzer which is connected to the container , - a piping which is connected to the container , and wherein the piping , the liquid pump and the container are configured to circulate the liquid, and - means for dissolving the gas or gas mixture back into the liquid,
A system , comprising: an air supply flow meter configured to detect an air flow from a delivery system to a first manual sprayer ; a coating material flow meter configured to detect a fluid flow of a coating material from the delivery system to the first manual sprayer, wherein the first manual sprayer is configured to coat a workpiece with the coating material during a spraying operation; characterized by a first production process information system configured to: determine operating data of the spraying operation based on the detected air flow and the detected fluid flow, wherein the operating data comprises first manual sprayer data comprising detected trigger pulls of the first manual sprayer, a total spray time of the first manual sprayer, an amount of fluid used by the first manual sprayer, or any combination thereof; and generate a report relating to the spraying operation, wherein the report comprises the first manual sprayer data and calculated average values of the operating data. an air supply flow meter configured to detect an air flow from a delivery system to a first manual sprayer ; a coating material flow meter configured to detect a fluid flow of a coating material from the delivery system to the first manual sprayer, wherein the first manual sprayer is configured to coat a workpiece with the coating material during a spraying operation; characterized by a first production process information system configured to: determine operating data of the spraying operation based on the detected air flow and the detected fluid flow, wherein the operating data comprises first manual sprayer data comprising detected trigger pulls of the first manual sprayer, a total spray time of the first manual sprayer, an amount of fluid used by the first manual sprayer, or any combination thereof; and generate a report relating to the spraying operation, wherein the report comprises the first manual sprayer data and calculated average values of the operating data. determine operating data of the spraying operation based on the detected air flow and the detected fluid flow, wherein the operating data comprises first manual sprayer data comprising detected trigger pulls of the first manual sprayer, a total spray time of the first manual sprayer, an amount of fluid used by the first manual sprayer, or any combination thereof; and generate a report relating to the spraying operation, wherein the report comprises the first manual sprayer data and calculated average values of the operating data.
Printing device for printing one or more N-ups to be printed of a sheet-like substrate to be processed, having a plurality of N-up pickups which are arranged such that they can move on a closed rail track and which are each designed to pick up the N-up to be printed at a contact station and deposit it at a collating station , and having a printing unit arranged between the contact station and the collating station for printing the N-up to be printed , wherein a turning unit is provided for turning the N-up to be printed .
A device for delivering microwave energy to a distant region of a body, comprising: a proximal end connectable to a microwave energy generator and a coolant source; a distal end configured to generate ablative energy in a defined region surrounding said distal end; an inner conductor , wherein said inner conductor is hollow; a central region comprising a non-conductive core surrounding the inner conductor such that an air space is between the non-conductive core and the inner conductor; an outer conductor surrounding said non-conductive core, wherein the outer conductor comprises a flexible and/or collapsible material; and a coolant flow exchanger at the distal end configured to receive coolant from said inner conductor and return said coolant through said air space. a proximal end connectable to a microwave energy generator and a coolant source; a distal end configured to generate ablative energy in a defined region surrounding said distal end; an inner conductor , wherein said inner conductor is hollow; a central region comprising a non-conductive core surrounding the inner conductor such that an air space is between the non-conductive core and the inner conductor; an outer conductor surrounding said non-conductive core, wherein the outer conductor comprises a flexible and/or collapsible material; and a coolant flow exchanger at the distal end configured to receive coolant from said inner conductor and return said coolant through said air space.
Winding head for a stator tooth of an electric motor, which stator core has a first stator flange and a second stator flange , which are joint by a stator joint part , wherein the stator core has an I-shaped cross section perpendicular to its longitudinal elongation with a first and a second end , and the winding head is designed to extend the longitudinal elongation at the first end , and the winding head has a first winding head flange and a second winding head flange , which are joint by a winding head joint part , and it extends at least partially the elongation of the shape of the stator core , and the winding head has a winding hole at the first winding head flange and a groove in the winding head joint part , characterised in that the winding head has a winding opening at the winding head joint part , which winding hole and winding opening are connected by the groove . which stator core has a first stator flange and a second stator flange , which are joint by a stator joint part , wherein the stator core has an I-shaped cross section perpendicular to its longitudinal elongation with a first and a second end , and the winding head is designed to extend the longitudinal elongation at the first end , and the winding head has a first winding head flange and a second winding head flange , which are joint by a winding head joint part , and it extends at least partially the elongation of the shape of the stator core , and the winding head has a winding hole at the first winding head flange and a groove in the winding head joint part , characterised in that the winding head has a winding opening at the winding head joint part , which winding hole and winding opening are connected by the groove .
A lamp shield for a vehicle headlamp comprising a reflector , a housing and a lamp with a lamp base , the lamp shield comprising: a front face , a skirt extending from the front face, wherein the skirt comprises a heat spreader , and an extended arm connected to the front face or the skirt; characterized in that the heat spreader is located in an upper section of the lamp shield, vertically above a centroid of a front face of the lamp shield thus blocking the direct route between the gas and the reflector and housing; and a cross-sectional shape at any point along a length of the heat spreader as measured along an x-axis has a "C" shape, a "M" shape, a "S" shape, a "T" shape, a "U" shape, a "V" shape, a "W" shape, a "X" shape, a "Y" shape, an inversion of any of the foregoing shapes, or a similar shape, or a combination comprising at least one of the foregoing; such that a gas stream impinging the inside of the heat spreader is split into multiple streams and urged laterally away from a vertical centerline of the lamp without urging the entire gas flow rearward toward the lamp base and distributing the gas stream over a surface area of the reflector. a front face , a skirt extending from the front face, wherein the skirt comprises a heat spreader , and an extended arm connected to the front face or the skirt; characterized in that the heat spreader is located in an upper section of the lamp shield, vertically above a centroid of a front face of the lamp shield thus blocking the direct route between the gas and the reflector and housing; and a cross-sectional shape at any point along a length of the heat spreader as measured along an x-axis has a "C" shape, a "M" shape, a "S" shape, a "T" shape, a "U" shape, a "V" shape, a "W" shape, a "X" shape, a "Y" shape, an inversion of any of the foregoing shapes, or a similar shape, or a combination comprising at least one of the foregoing; such that a gas stream impinging the inside of the heat spreader is split into multiple streams and urged laterally away from a vertical centerline of the lamp without urging the entire gas flow rearward toward the lamp base and distributing the gas stream over a surface area of the reflector.
A computer-implemented method for quantification of RNA expression from RNA sequence reads, comprising: (a) hierarchically assigning RNA sequence reads from at least one cell to RNA feature annotations according to RNA transcript length, to yield feature-read pairs assigned as small RNA, long exonic RNA, or long intronic RNA; wherein the hierarchical assignation comprises three sequential rounds having a hierarchy of small RNA, then long exonic RNA, then long intronic RNA, such that the assignation comprises assigning RNA sequence reads that overlap a small RNA feature and a long RNA feature as small RNA, followed by assigning RNA sequence reads as long exonic RNA, followed by assigning remaining RNA sequence reads as long intronic RNA, and wherein RNA sequence reads with at least one alignment overlapping with a feature annotation in the current round are assigned to such feature and skipped in subsequent rounds, and (b) detecting communities of highly-related features of the feature-read pairs, thereby quantifying expression of RNA sequence reads, including communities of RNA sequence reads, wherein communities are detected from a graph of feature-read pairs, wherein each vertex of the graph is a transcriptomic feature and edges connect two vertices for which multi-mapping reads exist, optionally wherein the edges between two vertices comprise pairs of edges. (a) hierarchically assigning RNA sequence reads from at least one cell to RNA feature annotations according to RNA transcript length, to yield feature-read pairs assigned as small RNA, long exonic RNA, or long intronic RNA; wherein the hierarchical assignation comprises three sequential rounds having a hierarchy of small RNA, then long exonic RNA, then long intronic RNA, such that the assignation comprises assigning RNA sequence reads that overlap a small RNA feature and a long RNA feature as small RNA, followed by assigning RNA sequence reads as long exonic RNA, followed by assigning remaining RNA sequence reads as long intronic RNA, and wherein RNA sequence reads with at least one alignment overlapping with a feature annotation in the current round are assigned to such feature and skipped in subsequent rounds, and (b) detecting communities of highly-related features of the feature-read pairs, thereby quantifying expression of RNA sequence reads, including communities of RNA sequence reads, wherein communities are detected from a graph of feature-read pairs, wherein each vertex of the graph is a transcriptomic feature and edges connect two vertices for which multi-mapping reads exist, optionally wherein the edges between two vertices comprise pairs of edges.
A computer-implemented method for obtaining respiratory related sounds , RRSs, originating from a target patient, the method comprising the steps of: - obtaining an input audio recording of a sleeping environment of the target patient; - obtaining a respiratory trace of the target patient's respiration, wherein the respiratory trace is obtained directly or indirectly from a measurement on the patient; - identifying RRSs in the input audio recording; and - selecting , based on the respiratory trace, from the RRSs, the RRSs originating from the target patient; characterized in that the selecting comprises: determining a first and/or second subset of the RRSs having a respective high and/or low probability of originating from the target patient; training a classifier based on the first and/or a second subset to select RRSs originating from the target patient; and selecting the RRSs originating from the target patient by the trained classifier. - obtaining an input audio recording of a sleeping environment of the target patient; - obtaining a respiratory trace of the target patient's respiration, wherein the respiratory trace is obtained directly or indirectly from a measurement on the patient; - identifying RRSs in the input audio recording; and - selecting , based on the respiratory trace, from the RRSs, the RRSs originating from the target patient; determining a first and/or second subset of the RRSs having a respective high and/or low probability of originating from the target patient; training a classifier based on the first and/or a second subset to select RRSs originating from the target patient; and selecting the RRSs originating from the target patient by the trained classifier.
Building cylinder arrangement for a machine for the layer-by-layer production of three-dimensional objects by sintering or melting powdered material by means of a high-energy beam , in particular laser beam, comprising a) a building cylinder with a main body substantially in the form of a cylindrical casing and with an upper piston part movable on the inner side of the main body along a cylinder axis , the upper piston part having, on its upper side, a base element , in particular a substrate or a preform, for the growth of a three-dimensional object , and on the upper piston part there being formed a powder seal bearing against the inner side of the main body for sealing the powdered material , b) an intermediate piston part comprising a heating means , c) a thermal insulation , in particular a ceramic insulation plate, and d) a lower piston part comprising a gas seal , in particular of elastomer material, the upper piston part , the intermediate piston part , the thermal insulation and the lower piston part forming a piston of the building cylinder arrangement , which piston is displaceable in the main body and can be connected and separated between the upper piston part and the intermediate piston part by means of a locking means , characterized in that the upper piston part has a seal carrier , on which the powder seal is mounted, in that a ceramic insulation means , in particular a circumferential insulation ring, is mounted on the seal carrier , and in that the base element is mounted on the insulation means , the base element being at a distance from the seal carrier and from the powder seal . a) a building cylinder with a main body substantially in the form of a cylindrical casing and with an upper piston part movable on the inner side of the main body along a cylinder axis , the upper piston part having, on its upper side, a base element , in particular a substrate or a preform, for the growth of a three-dimensional object , and on the upper piston part there being formed a powder seal bearing against the inner side of the main body for sealing the powdered material , b) an intermediate piston part comprising a heating means , c) a thermal insulation , in particular a ceramic insulation plate, and d) a lower piston part comprising a gas seal , in particular of elastomer material,
An orthodontic space closure device (10, 10', 10"), comprising: a first tooth cap unit configured to be removably worn on anterior teeth of a dental arch (M) of a patient, wherein at least one first connector is fixed on each of the left and right buccal side of the first tooth cap unit ; a second tooth cap unit configured to be removably worn on posterior teeth of the dental arch (M), wherein the second tooth cap unit includes two second tooth cap segments configured to be removably worn on the posterior teeth each on the left and right side of the dental arch, and each of the second tooth cap segments has a vertical extension part formed on its buccal side, and extending vertically in a direction away from the occlusal surface (OS), and at least one second connector is fixed on each vertical extension part ; and a plurality of elastic members coupling the first connectors on the buccal sides of the first tooth cap unit to the second connectors on the buccal sides of the second tooth cap unit , thereby exerting elastic traction forces having horizontal and vertical components on the first tooth cap unit to achieve retraction and intrusion of the anterior teeth. a first tooth cap unit configured to be removably worn on anterior teeth of a dental arch (M) of a patient, wherein at least one first connector is fixed on each of the left and right buccal side of the first tooth cap unit ; a second tooth cap unit configured to be removably worn on posterior teeth of the dental arch (M), wherein the second tooth cap unit includes two second tooth cap segments configured to be removably worn on the posterior teeth each on the left and right side of the dental arch, and each of the second tooth cap segments has a vertical extension part formed on its buccal side, and extending vertically in a direction away from the occlusal surface (OS), and at least one second connector is fixed on each vertical extension part ; and a plurality of elastic members coupling the first connectors on the buccal sides of the first tooth cap unit to the second connectors on the buccal sides of the second tooth cap unit , thereby exerting elastic traction forces having horizontal and vertical components on the first tooth cap unit to achieve retraction and intrusion of the anterior teeth.
A method for developing biological trace evidence on a porous object, comprising immersing a porous object in a biological fluorescent development reagent or spraying a biological fluorescent development reagent on the porous object, drying the porous object in an environment having a relative humidity of less than 40% at a temperature of 50 °C - 120 °C, irradiating the dried porous object with a laser having a wavelength of 532 nm and a full width at half-maximum of less than 1 nm, controlling a surface of the porous object with an illuminance of over 300,000 lux, and using a cut-off filter under 540 nm to develop the biological trace evidence on the porous object, is characterized in that , a raw material formulation of the biological fluorescent development reagent is, in percent by weight, 0.02% - 0.5% of indanedione, 4% - 10% of ethyl acetate, 0.5% - 1.5% of glycerol, 5% - 15.5% of pure alcohol, and 73.5% - 90% of petroleum ether.