mhurhangee/patent-ind-claim-en huggingface dataset:
A side-reinforced run-flat radial tire comprising: a carcass spanning a pair of bead portions ; and a side-reinforcing rubber layer extending along an inner surface of the carcass from one tire side portion to another tire side portion , wherein a tire equatorial plane (CL) is sandwiched in between the one tire side portion and the another tire side portion, wherein the side-reinforced run-flat radial tire satisfies relational expression below and has a tire section height equal to or greater than 115 mm GE ≤ 0.6 × GA wherein GE is a thickness of the side-reinforcing rubber layer at a position of the tire equatorial plane; wherein GA is a thickness of the side-reinforcing rubber layer at positions where the carcass reaches its maximum width, characterised in that : (i) reinforcement cord layers are disposed on an upper portion of a cap layer on a tire radial direction outer side of a belt layer only at an axial direction end portion of the cap layer ; (ii) cords configuring the reinforcement cord layers are disposed inclined in a range of from 60° to 90° with respect to a tire circumferential direction; and (iii) an axial direction outer side end portion of the reinforcement cord layers is disposed further toward an outer side than an axial direction outer side end portion of the belt layer . a carcass spanning a pair of bead portions ; and a side-reinforcing rubber layer extending along an inner surface of the carcass from one tire side portion to another tire side portion , wherein a tire equatorial plane (CL) is sandwiched in between the one tire side portion and the another tire side portion, wherein the side-reinforced run-flat radial tire satisfies relational expression below and has a tire section height equal to or greater than 115 mm GE ≤ 0.6 × GA wherein GE is a thickness of the side-reinforcing rubber layer at a position of the tire equatorial plane; wherein GA is a thickness of the side-reinforcing rubber layer at positions where the carcass reaches its maximum width, characterised in that : (i) reinforcement cord layers are disposed on an upper portion of a cap layer on a tire radial direction outer side of a belt layer only at an axial direction end portion of the cap layer ; (ii) cords configuring the reinforcement cord layers are disposed inclined in a range of from 60° to 90° with respect to a tire circumferential direction; and (iii) an axial direction outer side end portion of the reinforcement cord layers is disposed further toward an outer side than an axial direction outer side end portion of the belt layer . (i) reinforcement cord layers are disposed on an upper portion of a cap layer on a tire radial direction outer side of a belt layer only at an axial direction end portion of the cap layer ; (ii) cords configuring the reinforcement cord layers are disposed inclined in a range of from 60° to 90° with respect to a tire circumferential direction; and (iii) an axial direction outer side end portion of the reinforcement cord layers is disposed further toward an outer side than an axial direction outer side end portion of the belt layer .
A heat exchanger (10; 20) to be used in a magnetic heat pump device , the heat exchanger comprising: an assembly formed by bundling wires ; and a cover layer covering the assembly , wherein each of the wires is composed of a magnetocaloric material having a magnetocaloric effect, and the cover layer includes a tubular portion surrounding the periphery of the assembly ; characterized in that the cover layer further includes a filling portion filling a gap between the outer periphery of the assembly 811, 11B) and the tubular portion . an assembly formed by bundling wires ; and a cover layer covering the assembly , wherein each of the wires is composed of a magnetocaloric material having a magnetocaloric effect, and the cover layer includes a tubular portion surrounding the periphery of the assembly ; characterized in that the cover layer further includes a filling portion filling a gap between the outer periphery of the assembly 811, 11B) and the tubular portion .
A rotatable valve spool for a spool valve manifold comprising: a longitudinal axis along the length of the rotatable valve spool , a cylindrical body , a first end , and a second end ; a first angled seal , a second angled seal , an optional central seal , and an outer seal each disposed on the cylindrical body with the optional central seal disposed between the first and second angled seals and the outer seal disposed between the second angled seal and the second end ; a first flow port in the cylindrical body disposed between the first angled seal and the first end or disposed in the first end ; and a second flow port disposed between the second angled seal and the outer seal ; characterized in that the first flow port comprises a longitudinal bore through the cylindrical body; and in that the second flow port comprises a connecting port through the outer surface of the cylindrical body that allows fluid to flow through the connecting port to a stem engagement bore in the second end . a longitudinal axis along the length of the rotatable valve spool , a cylindrical body , a first end , and a second end ; a first angled seal , a second angled seal , an optional central seal , and an outer seal each disposed on the cylindrical body with the optional central seal disposed between the first and second angled seals and the outer seal disposed between the second angled seal and the second end ; a first flow port in the cylindrical body disposed between the first angled seal and the first end or disposed in the first end ; and a second flow port disposed between the second angled seal and the outer seal ; characterized in that the first flow port comprises a longitudinal bore through the cylindrical body; and in that the second flow port comprises a connecting port through the outer surface of the cylindrical body that allows fluid to flow through the connecting port to a stem engagement bore in the second end .
A catheter assembly , comprising: a catheter adapter , comprising: a body , comprising a distal end , a proximal end , and a lumen extending through the distal end and the proximal end; and a side port extending outwardly from the body and disposed between the distal end and the proximal end, wherein the side port comprises an outer opening ; a valve disposed within the side port, wherein the valve comprises a channel extending through the valve; a cannula fixed within the side port and disposed within the channel, wherein the cannula comprises a plurality of openings , wherein the valve comprises: i) a position in which the plurality of openings are positioned within the valve, and ii) a compressed position in which the valve is positioned below the plurality of openings to expose the plurality of openings from within the valve, wherein the cannula comprises a blunt, closed end , and wherein the blunt, closed end of the cannula seals an end of the channel when the valve is in the position in which the plurality of openings are positioned within the valve; and a catheter extending distally from the distal end of the body. a catheter adapter , comprising: a body , comprising a distal end , a proximal end , and a lumen extending through the distal end and the proximal end; and a side port extending outwardly from the body and disposed between the distal end and the proximal end, wherein the side port comprises an outer opening ; a body , comprising a distal end , a proximal end , and a lumen extending through the distal end and the proximal end; and a side port extending outwardly from the body and disposed between the distal end and the proximal end, wherein the side port comprises an outer opening ; a valve disposed within the side port, wherein the valve comprises a channel extending through the valve; a cannula fixed within the side port and disposed within the channel, wherein the cannula comprises a plurality of openings , wherein the valve comprises: i) a position in which the plurality of openings are positioned within the valve, and ii) a compressed position in which the valve is positioned below the plurality of openings to expose the plurality of openings from within the valve, wherein the cannula comprises a blunt, closed end , and wherein the blunt, closed end of the cannula seals an end of the channel when the valve is in the position in which the plurality of openings are positioned within the valve; and a catheter extending distally from the distal end of the body.
A network access method performed by a terminal in a machine to machine, M2M, terminal group, the method comprising: receiving a threshold for representative selection from a base station; calculating a random probability P selection ; determining whether the terminal is a group representative of the M2M terminal group based on a comparison of the threshold for representative selection received from the base station and the calculated random probability P selection ; and transmitting an access request to the base station on behalf of the M2M terminal group when the terminal is determined as the group representative; and monitoring a response message transmitted from the base station in response to the access request. receiving a threshold for representative selection from a base station; calculating a random probability P selection ; determining whether the terminal is a group representative of the M2M terminal group based on a comparison of the threshold for representative selection received from the base station and the calculated random probability P selection ; and transmitting an access request to the base station on behalf of the M2M terminal group when the terminal is determined as the group representative; and monitoring a response message transmitted from the base station in response to the access request.
A method of manufacturing a microneedle array for biosensing, the method comprising: preparing viscous compositions to be applied to a droplet-born air blowing process by mixing a hyaluronic acid and a salt thereof with an aqueous solution of poly (3,4-ethylendeddioxythiophene):poly (styrenesulfonate) (PEDOT:PSS); and manufacturing the microneedle array by applying the viscous compositions to the droplet-born air blowing process, wherein the microneedle array has a solid structure and is homogeneous throughout the solid structure, and in the preparing of the viscous compositions, the hyaluronic acid and the salt thereof are mixed with the aqueous solution of the PEDOT:PSS at a weight ratio of 1:9 to 49, and the hyaluronic acid and the salt thereof have a molecular weight of 60 to 130 kDa. preparing viscous compositions to be applied to a droplet-born air blowing process by mixing a hyaluronic acid and a salt thereof with an aqueous solution of poly (3,4-ethylendeddioxythiophene):poly (styrenesulfonate) (PEDOT:PSS); and manufacturing the microneedle array by applying the viscous compositions to the droplet-born air blowing process, wherein the microneedle array has a solid structure and is homogeneous throughout the solid structure, and in the preparing of the viscous compositions, the hyaluronic acid and the salt thereof are mixed with the aqueous solution of the PEDOT:PSS at a weight ratio of 1:9 to 49, and the hyaluronic acid and the salt thereof have a molecular weight of 60 to 130 kDa.
A method of wireless communication performed by a user equipment (UE), comprising: receiving downlink data that is associated with triggering a feedback message; determining a flow identifier for the downlink data; and transmitting , before receiving the feedback message for the downlink data at a component of the UE and based at least in part on the flow identifier, a scheduling request to request an allocation of a set of resources for transmitting the feedback message. receiving downlink data that is associated with triggering a feedback message; determining a flow identifier for the downlink data; and transmitting , before receiving the feedback message for the downlink data at a component of the UE and based at least in part on the flow identifier, a scheduling request to request an allocation of a set of resources for transmitting the feedback message.
Method for determining the shape of an optical waveguide having a plurality of fiber Bragg gratings , comprising the following steps: coupling light of a light source into the optical waveguide , coupling the reflected light out of the optical waveguide , determining a spectrum of the reflected light by measuring the intensity (I) versus the wavelength (λ), characterized in that the spectrum is supplied to a self-learning neural network , which was previously trained with training data consisting of a plurality of data sets each containing a measured spectrum and the associated shape of the optical waveguide , the shape of the optical waveguide being determined with the neural network from the intensity and wavelength of the light reflected by the Bragg gratings and the intensity and kind of the underground. coupling the reflected light out of the optical waveguide , determining a spectrum of the reflected light by measuring the intensity (I) versus the wavelength (λ), characterized in that the spectrum is supplied to a self-learning neural network , which was previously trained with training data consisting of a plurality of data sets each containing a measured spectrum and the associated shape of the optical waveguide , the shape of the optical waveguide being determined with the neural network from the intensity and wavelength of the light reflected by the Bragg gratings and the intensity and kind of the underground.
A spray treatment system for cleaning a surface of a part , the spray treatment system comprising: - a conveyor mechanism configured to support the part and to move the part along a cleaning path having a central axis ; - a plurality of spray nozzles , each spray nozzle configured to spray a cleaning agent in form of a cleaning jet towards the part , wherein the spray nozzles are positioned along at least one side of the cleaning path ; - a part rotating mechanism configured to rotate the part about an axis of the part such that the part is aligned in different orientations with respect to the central axis of the cleaning path ; characterized by - a 3D scanner configured to scan the part to be cleaned to determine a shape and/or a size of the part and to generate data indicative of the shape and/or the size of the part to be cleaned; and - a processor configured to receive the data from the 3D scanner and to direct the part rotating mechanism to orient the part based on the shape and/or the size of the part such that a surface portion of the surface of the part is disposed at a predetermined distance from at least one spray nozzle from the plurality of spray nozzles . - a conveyor mechanism configured to support the part and to move the part along a cleaning path having a central axis ; - a plurality of spray nozzles , each spray nozzle configured to spray a cleaning agent in form of a cleaning jet towards the part , wherein the spray nozzles are positioned along at least one side of the cleaning path ; - a part rotating mechanism configured to rotate the part about an axis of the part such that the part is aligned in different orientations with respect to the central axis of the cleaning path ; - a 3D scanner configured to scan the part to be cleaned to determine a shape and/or a size of the part and to generate data indicative of the shape and/or the size of the part to be cleaned; and - a processor configured to receive the data from the 3D scanner and to direct the part rotating mechanism to orient the part based on the shape and/or the size of the part such that a surface portion of the surface of the part is disposed at a predetermined distance from at least one spray nozzle from the plurality of spray nozzles .
Decoder configured to decode a multi-component picture or video spatially sampling a scene with respect to different components, by reconstructing a first component signal relating to a first component (A) of the multi-component picture or video from a data stream ; reconstructing a second component signal relating to a second component (B) of the multi-component picture or video from the data stream ; reconstructing a third component signal relating to a third component (C) of the multi-component picture or video using inter-component prediction from the reconstructed first component signal and the reconstructed second component signal , wherein the decoder is configured to perform the inter-component prediction from the reconstructed first component signal and the reconstructed second component signal using a predetermined prediction model with varying, responsive to ICP prediction parameter signalization for the third component signal in the data stream , third-component prediction parameter of the prediction model at sub-picture granularity, and perform the reconstruction of the second component signal relating to the second component (B) of the multi-component picture or video using inter-component prediction from the reconstructed first component signal , and perform the inter-component prediction from the reconstructed first component signal using the predetermined prediction model with varying, responsive to ICP prediction parameter signalization for the second component signal in the data stream , second-component prediction parameter of the prediction model at sub-picture granularity, and check where the second-component and third-component prediction parameter differ by more than a predetermined limit, and for locations where not, extract a ICP source indicator for the respective location from the data stream , and for locations where yes, suppress the extraction of the ICP source indicator and set the ICP source indicator for the respective location to a predetermined state, wherein the decoder is configured to be responsive to ICP source indicator so as to reconstruct the third component signal in the respective location using linear prediction from a spatially corresponding location of the reconstructed first component signal, weighted according to the respective third-component prediction parameter, or reconstruct the third component signal in the respective location using linear prediction from a spatially corresponding location of the reconstructed second component signal, weighted according to the respective third-component prediction parameter.
A diamond wire cutter , comprising: a. a diamond wire saw for cutting a structure , comprising: i. a diamond wire rotator ; ii. a diamond wire operatively in communication with the diamond wire rotator, the diamond wire comprising a fixed total length and a variable exposed length; iii. a chain comprising a first chain end and a second chain end , the chain being disposable about a predetermined portion of an outer surface of the structure to be cut; and iv. a chain driver operatively connected to the chain; b. a movable pulley cart movable about the predetermined portion of the outer surface of the structure and disposed proximate to the diamond wire saw, the movable pulley cart comprising: i. a diamond wire pulley adapted to receive a portion of the diamond wire; and ii. a chain receiver adapted to receive the first chain end and the second chain end the chain receiver operatively connected to the chain ; and c. a chain tensioner adapted to receive a predetermined portion of the chain and maintain tension on the chain. a. a diamond wire saw for cutting a structure , comprising: i. a diamond wire rotator ; ii. a diamond wire operatively in communication with the diamond wire rotator, the diamond wire comprising a fixed total length and a variable exposed length; iii. a chain comprising a first chain end and a second chain end , the chain being disposable about a predetermined portion of an outer surface of the structure to be cut; and iv. a chain driver operatively connected to the chain; i. a diamond wire rotator ; ii. a diamond wire operatively in communication with the diamond wire rotator, the diamond wire comprising a fixed total length and a variable exposed length; iii. a chain comprising a first chain end and a second chain end , the chain being disposable about a predetermined portion of an outer surface of the structure to be cut; and iv. a chain driver operatively connected to the chain; b. a movable pulley cart movable about the predetermined portion of the outer surface of the structure and disposed proximate to the diamond wire saw, the movable pulley cart comprising: i. a diamond wire pulley adapted to receive a portion of the diamond wire; and ii. a chain receiver adapted to receive the first chain end and the second chain end the chain receiver operatively connected to the chain ; and i. a diamond wire pulley adapted to receive a portion of the diamond wire; and ii. a chain receiver adapted to receive the first chain end and the second chain end the chain receiver operatively connected to the chain ; and c. a chain tensioner adapted to receive a predetermined portion of the chain and maintain tension on the chain.
A platinum (IV) complex with geometric configuration cis -(ammine,1-adamantylamine)- trans- bis(1-adamantylcarboxylate)- cis -(chloride, X) Pt (IV) of the general formula (III): wherein X is a conjugated anion of a strong mineral or organic acid and wherein X is selected from the group consisting of nitrate, monochloroacetate and trifluoroacetate.
A method of detecting integration errors in a calculated flow rate of an ultrasonic flow meter with multiple chordal paths , the method being performed by at least one set of computational electronics including a non-transitory computer readable medium with computer instructions stored thereon executed by a processor , the method comprising the steps of: measuring velocity on each of the multiple chordal paths to produce chordal measurement data, characterised by : simultaneously executing a first chordal integration scheme and a second different chordal integration scheme on the chordal measurement data, at least one chordal path being common to the first and second different chordal integration schemes; and, comparing results of the first chordal integration scheme and results of the second different chordal integration scheme to detect and quantify integration errors, such that the integration errors are a function of the difference between calculated flow rates; wherein the at least one common chordal path lies in a discrete chordal measurement plane across a conduit section of a meter body of the ultrasonic flow meter; and wherein a total number of the multiple chordal paths is less than a sum of the chordal paths used in the first and second different chordal integration schemes. measuring velocity on each of the multiple chordal paths to produce chordal measurement data, characterised by : simultaneously executing a first chordal integration scheme and a second different chordal integration scheme on the chordal measurement data, at least one chordal path being common to the first and second different chordal integration schemes; and, comparing results of the first chordal integration scheme and results of the second different chordal integration scheme to detect and quantify integration errors, such that the integration errors are a function of the difference between calculated flow rates; simultaneously executing a first chordal integration scheme and a second different chordal integration scheme on the chordal measurement data, at least one chordal path being common to the first and second different chordal integration schemes; and, comparing results of the first chordal integration scheme and results of the second different chordal integration scheme to detect and quantify integration errors, such that the integration errors are a function of the difference between calculated flow rates; wherein the at least one common chordal path lies in a discrete chordal measurement plane across a conduit section of a meter body of the ultrasonic flow meter; and wherein a total number of the multiple chordal paths is less than a sum of the chordal paths used in the first and second different chordal integration schemes.