mhurhangee/patent-ind-claim-en huggingface dataset:
Method for acquiring magnetic resonance data of an object with a magnetic resonance imaging apparatus , wherein a slice group, whose slices define a contiguous imaging volume and which contains a first number of slices , is imaged, wherein in a first number of concatenations the magnetic resonance data for subgroups of the slices , each containing a respective second number of slices depending on the first number of concatenations, are acquired, and wherein shimming is performed to increase field homogeneity in the imaging volume , characterized in that , to define the subgroups, the imaging volume is subdivided into at least two disjoint contiguous subvolumes , and at least two subgroups are defined for each subvolume , each subgroup only containing non-adjacent slices in the subvolume , wherein, during acquisition of the magnetic resonance data of each subgroup, shimming is at least restricted to the respective subvolume , wherein shimming is restricted to the smallest possible bounding box of the slices in the subgroup.
A method for generating ultrasound Doppler images, comprising the steps of: sequentially and repeatedly transmitting a predetermined number of plane waves having different angles of incidence to an object in a predetermined transmission sequence; receiving reflected signals from the object at different locations; generating an ensemble frame by combining, among the received reflected signals, a predetermined number of reflected signals for each of positive and negative angles with respect to a reference direction facing the object, wherein one ensemble frame is generated by combining only data values in a region where a predetermined number of reflected signals overlap one another among the received reflected signals; and outputting a vector Doppler image generated using a plurality of ensemble frames. sequentially and repeatedly transmitting a predetermined number of plane waves having different angles of incidence to an object in a predetermined transmission sequence; receiving reflected signals from the object at different locations; generating an ensemble frame by combining, among the received reflected signals, a predetermined number of reflected signals for each of positive and negative angles with respect to a reference direction facing the object, wherein one ensemble frame is generated by combining only data values in a region where a predetermined number of reflected signals overlap one another among the received reflected signals; and outputting a vector Doppler image generated using a plurality of ensemble frames.
A use of a material for producing hydrogen or electricity, wherein the material comprises at least 50% by mass of a reagent intended to the hydrolyze upon contact with an aqueous solution in order to obtain hydrogen, wherein the reagent comprises: - a first compound chosen from magnesium metal, magnesium hydride, and mixtures thereof, and - a second compound alloyed with the first compound, wherein the second compound is chosen from graphite, carbon fibers, and mixtures thereof, wherein the first compound represents at least 75% by weight of the reagent, and the second compound represents between 1% and 25%, preferably between 3% and 10% by weight of the reagent. - a first compound chosen from magnesium metal, magnesium hydride, and mixtures thereof, and - a second compound alloyed with the first compound, wherein the second compound is chosen from graphite, carbon fibers, and mixtures thereof,
Projectile configured for moving through a fluid medium, and having a longitudinal axis (LA), the projectile comprising a steering assembly and a shell body rotatably mounted thereto about the longitudinal axis, and including an attitude control system , a despin module , an electromagnetic receiver and/or emitter system , and a controller , wherein: - the attitude control system comprises a ram air inlet in selective open fluid communication with an exhaust assembly via a fluid passageway provided in said steering assembly , the exhaust assembly comprising a plurality of exhaust outlets to selectively generate each of a plurality of thrust jets from a ram air inflow provided by said ram air inlet , each said thrust jet being selectively controllable via said controller to thereby generate steering control moments to the shell in operation thereof; - the despin module is configured for selectively de-spinning said steering assembly with respect to said shell body about said longitudinal axis (LA); and - the electromagnetic receiver and/or emitter system is configured for at least one of receiving and emitting electromagnetic energy, and for cooperating with said controller for operating said exhaust assembly to thereby selectively provide said steering control moments; characterised in that said attitude control system , said despin module and said controller as well as said electromagnetic receiver and/or emitter system are comprised fully in said steering assembly . - the attitude control system comprises a ram air inlet in selective open fluid communication with an exhaust assembly via a fluid passageway provided in said steering assembly , the exhaust assembly comprising a plurality of exhaust outlets to selectively generate each of a plurality of thrust jets from a ram air inflow provided by said ram air inlet , each said thrust jet being selectively controllable via said controller to thereby generate steering control moments to the shell in operation thereof; - the despin module is configured for selectively de-spinning said steering assembly with respect to said shell body about said longitudinal axis (LA); and - the electromagnetic receiver and/or emitter system is configured for at least one of receiving and emitting electromagnetic energy, and for cooperating with said controller for operating said exhaust assembly to thereby selectively provide said steering control moments;
A composition comprising: a carboxyl group-containing polymer; and a compound (X) including one molecule of a mercaptocarboxylic acid or a mercaptocarboxylic acid salt; one molecule of acrylic acid, an acrylic acid salt, or an acrylic acid ester; and one molecule of a monomer (B) represented by the following formula , which are bonded to each other: wherein R 1 , R 2 , and R 3 are the same as or different from each other and are each a hydrogen atom or a methyl group; R 4 is a hydrogen atom or a C1-C30 hydrocarbon group; (AO) s are the same as or different from each other and are each an oxyalkylene group; n is an average number of moles of the oxyalkylene group added and is 1 to 300; and x is 0 to 4, the compound (X) being present in an amount of 0.01 to 5 mass% relative to 100 mass% of the carboxyl group-containing polymer. a carboxyl group-containing polymer; and a compound (X) including one molecule of a mercaptocarboxylic acid or a mercaptocarboxylic acid salt; one molecule of acrylic acid, an acrylic acid salt, or an acrylic acid ester; and one molecule of a monomer (B) represented by the following formula , which are bonded to each other: wherein R 1 , R 2 , and R 3 are the same as or different from each other and are each a hydrogen atom or a methyl group; R 4 is a hydrogen atom or a C1-C30 hydrocarbon group; (AO) s are the same as or different from each other and are each an oxyalkylene group; n is an average number of moles of the oxyalkylene group added and is 1 to 300; and x is 0 to 4, the compound (X) being present in an amount of 0.01 to 5 mass% relative to 100 mass% of the carboxyl group-containing polymer.
A method, comprising: obtaining data related to at least one position of an implement of a work machine that has moved to a set position ; identifying one or more first noise amplitudes associated with the data; determining, based on the one or more first noise amplitudes, a noise band related to the implement vibrating at the set position ; identifying one or more second noise amplitudes associated with the data; determining, based on the noise band and the one or more second noise amplitudes, that the implement has settled at the set position ; and allowing, based on determining that the implement has settled at the set position , the implement to move to another position. obtaining data related to at least one position of an implement of a work machine that has moved to a set position ; identifying one or more first noise amplitudes associated with the data; determining, based on the one or more first noise amplitudes, a noise band related to the implement vibrating at the set position ; identifying one or more second noise amplitudes associated with the data; determining, based on the noise band and the one or more second noise amplitudes, that the implement has settled at the set position ; and allowing, based on determining that the implement has settled at the set position , the implement to move to another position.
A system for testing a circuit, comprising: scan chains comprising scan cells, the scan chains configured, in a test mode, to shift in test patterns, apply the test patterns to the circuit, capture test responses of the circuit, and shift out the test responses; a controller comprising first storage circuitry , second storage circuitry , and a control signal generator , the first storage circuitry comprising circuitry configured to store operational mode information, the second storage circuitry comprising circuitry configured to store information of a hold-toggle pattern, and the control signal generator configured to generate a control signal based on the operational mode information and the hold-toggle pattern, wherein the operational mode information determines whether a scan chain operates in a full-toggle mode or in a hold-toggle mode during a shift period, the hold-toggle pattern determines in which shift clock cycles in a segment of consecutive shift clock cycles scan chains operating in the hold-toggle mode receive bits based on corresponding bits of a test pattern during the shift period, and the hold-toggle pattern repeats multiple times during the shift period, the shift period being a period when the test pattern is being shifted into the scan chains ; and hold-toggle circuitry coupled to the controller and configured to allow, according to the control signal, some scan chains in the scan chains to operate in the full-toggle mode and some other scan chains in the scan chains to operate in the hold-toggle mode during the shift period. scan chains comprising scan cells, the scan chains configured, in a test mode, to shift in test patterns, apply the test patterns to the circuit, capture test responses of the circuit, and shift out the test responses; a controller comprising first storage circuitry , second storage circuitry , and a control signal generator , the first storage circuitry comprising circuitry configured to store operational mode information, the second storage circuitry comprising circuitry configured to store information of a hold-toggle pattern, and the control signal generator configured to generate a control signal based on the operational mode information and the hold-toggle pattern, wherein the operational mode information determines whether a scan chain operates in a full-toggle mode or in a hold-toggle mode during a shift period, the hold-toggle pattern determines in which shift clock cycles in a segment of consecutive shift clock cycles scan chains operating in the hold-toggle mode receive bits based on corresponding bits of a test pattern during the shift period, and the hold-toggle pattern repeats multiple times during the shift period, the shift period being a period when the test pattern is being shifted into the scan chains ; and hold-toggle circuitry coupled to the controller and configured to allow, according to the control signal, some scan chains in the scan chains to operate in the full-toggle mode and some other scan chains in the scan chains to operate in the hold-toggle mode during the shift period.
Method for enabling a processing step for an object to be processed with an allocated credit (B), having the following steps of: - determining an availability result by means of a processor, wherein the availability result is determined on the basis of a request from the object to be processed with a bid for the processing step, on the basis of further requests from further objects to be processed for the processing step and on the basis of further bids associated with the further requests and on the basis of an offer from a production unit suitable for carrying out the processing step, wherein the bid is a partial amount of the credit (B) allocated to the object to be processed; - enabling the processing step in the case of a processing step request from the object to be processed in exchange for a reduction in the credit (B) by the bid if the availability result indicates availability. - determining an availability result by means of a processor, wherein the availability result is determined on the basis of a request from the object to be processed with a bid for the processing step, on the basis of further requests from further objects to be processed for the processing step and on the basis of further bids associated with the further requests and on the basis of an offer from a production unit suitable for carrying out the processing step, wherein the bid is a partial amount of the credit (B) allocated to the object to be processed; - enabling the processing step in the case of a processing step request from the object to be processed in exchange for a reduction in the credit (B) by the bid if the availability result indicates availability.
A method of constructing a masonry wall using a lintel comprising an elongate lintel body , the elongate lintel body including: (i) an elongate base member ; (ii) side legs extending from the elongate base to define an elongate channel therebetween; (iii) a load bearing element including load bearing lip members projecting from respective edges of the side legs toward each other and along the longitudinal axis of the channel , the load bearing lip members being spaced apart from each other and arranged to support masonry elements ; (iv) end portions at ends of the lintel body , and (v) a plurality of protrusions disposed at least at the end portions , wherein each of the protrusions is elongate and has a protrusion longitudinal axis which traverses a longitudinal axis of the lintel body ; the method comprising: spanning the lintel across an opening defined by support structures with the end portions engaging the support structures , and arranging the masonry elements on the load bearing lip members without structural infill material being used within the elongate channel . (i) an elongate base member ; (ii) side legs extending from the elongate base to define an elongate channel therebetween; (iii) a load bearing element including load bearing lip members projecting from respective edges of the side legs toward each other and along the longitudinal axis of the channel , the load bearing lip members being spaced apart from each other and arranged to support masonry elements ; (iv) end portions at ends of the lintel body , and (v) a plurality of protrusions disposed at least at the end portions , wherein each of the protrusions is elongate and has a protrusion longitudinal axis which traverses a longitudinal axis of the lintel body ; spanning the lintel across an opening defined by support structures with the end portions engaging the support structures , and arranging the masonry elements on the load bearing lip members without structural infill material being used within the elongate channel .
Film winding system for a film stretching unit comprising the following features: - a film entry area is provided, via which a film web to be wound up is feedable to the film winding system ; - a first winding station is provided, wherein the first winding station is configured in a winding position to wind the film web into a film bale ; - a contact roller and a compensating roller are provided, wherein the contact roller is arranged adjacent to the first winding station in the winding position and is configured to guide the film web to the first winding station ; - the compensating roller is located before the contact roller in the direction of travel of the film web and is configured to guide the film web to the contact roller and to set a film tension; - a first adjustment device is provided and configured to move the contact roller towards the winding station or away from the winding station , thereby enabling the setting of a specific contact pressure between the contact roller and the film bale ; - the first adjustment device comprises a slide system or an adjusting spindle. - a film entry area is provided, via which a film web to be wound up is feedable to the film winding system ; - a first winding station is provided, wherein the first winding station is configured in a winding position to wind the film web into a film bale ; - a contact roller and a compensating roller are provided, wherein the contact roller is arranged adjacent to the first winding station in the winding position and is configured to guide the film web to the first winding station ; - the compensating roller is located before the contact roller in the direction of travel of the film web and is configured to guide the film web to the contact roller and to set a film tension; - a first adjustment device is provided and configured to move the contact roller towards the winding station or away from the winding station , thereby enabling the setting of a specific contact pressure between the contact roller and the film bale ; - the first adjustment device comprises a slide system or an adjusting spindle.
A sustained release pharmaceutical composition for topical administration to a skin surface comprising: • a pharmaceutically active agent comprising one or more steroids; • 0.01% to 5% by weight of the total weight of the pharmaceutical composition of a fatty acid ester; • water; • a C2-C6 monoalcohol; • a fatty acid; and • 0.05% to 5% by weight of a gelling agent, wherein the weight: weight ratio of the fatty acid ester in the composition to the total active agent in said composition is at least 4:1 fatty acid ester: active agent, preferably ranging from 4:1 to 20:1. • a pharmaceutically active agent comprising one or more steroids; • 0.01% to 5% by weight of the total weight of the pharmaceutical composition of a fatty acid ester; • water; • a C2-C6 monoalcohol; • a fatty acid; and • 0.05% to 5% by weight of a gelling agent,
A medical article comprising: a pressure-sensitive adhesive (PSA) layer comprising acid-functional groups or basic-functional groups, wherein the PSA includes greater than 0.42 mmoles acidic- or basic-functional groups per gram PSA; and a moisture vapor transmission rate (MVTR)-modifying material that is basic when the PSA comprises acidic-functional groups or is acidic when the PSA comprises basic-functional groups, wherein the MVTR-modifying material is incorporated within a scaffold that is in contact with the PSA layer; wherein the MVTR-modifying material is immiscible with the PSA, and reacts with the functional groups of the PSA upon contact to form a poly-salt in the presence of fluid, and wherein the PSA includes an additional hydrophilic polymer component, wherein "immiscible" means that MVTR-modifying material is not capable of penetrating into the core of a 0.25 centimeter (cm) cross-section of a PSA layer when examined by cutting the PSA into a 0.25 cm thick x 2.5 cm wide x 10 cm long strip, then placing the PSA strip in contact with the MVTR-modifying material for 24 hours at 25 degrees Celsius and 20% to 50% relative humidity, and then analyzing a cross-section of the PSA strip for presence of MVTR-modifying material at the center of the section. a pressure-sensitive adhesive (PSA) layer comprising acid-functional groups or basic-functional groups, wherein the PSA includes greater than 0.42 mmoles acidic- or basic-functional groups per gram PSA; and a moisture vapor transmission rate (MVTR)-modifying material that is basic when the PSA comprises acidic-functional groups or is acidic when the PSA comprises basic-functional groups, wherein the MVTR-modifying material is incorporated within a scaffold that is in contact with the PSA layer; wherein the MVTR-modifying material is immiscible with the PSA, and reacts with the functional groups of the PSA upon contact to form a poly-salt in the presence of fluid, and wherein the PSA includes an additional hydrophilic polymer component, wherein "immiscible" means that MVTR-modifying material is not capable of penetrating into the core of a 0.25 centimeter (cm) cross-section of a PSA layer when examined by cutting the PSA into a 0.25 cm thick x 2.5 cm wide x 10 cm long strip, then placing the PSA strip in contact with the MVTR-modifying material for 24 hours at 25 degrees Celsius and 20% to 50% relative humidity, and then analyzing a cross-section of the PSA strip for presence of MVTR-modifying material at the center of the section.
A method of wireless communication at a user equipment, UE , comprising: stopping a physical downlink control channel, PDCCH, monitoring on a set of activated secondary cells, SCells, in response to a monitoring stoppage event triggered via a received first medium access control, MAC, control element, CE, from a base station ; and resuming the PDCCH monitoring on at least one SCell of the set of activated SCells in response to a monitoring resumption event, wherein the set of activated SCells remain activated during a period between the stopping of the PDCCH monitoring and the resuming of the PDCCH monitoring. stopping a physical downlink control channel, PDCCH, monitoring on a set of activated secondary cells, SCells, in response to a monitoring stoppage event triggered via a received first medium access control, MAC, control element, CE, from a base station ; and resuming the PDCCH monitoring on at least one SCell of the set of activated SCells in response to a monitoring resumption event, wherein the set of activated SCells remain activated during a period between the stopping of the PDCCH monitoring and the resuming of the PDCCH monitoring.