mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, comprising the steps of: receiving, by a transmitting device, indication information, wherein the indication information is used for indicating switching a Data Radio Bearer, DRB, corresponding to a first Quality of Service, QoS, flow from a first DRB to a second DRB; wherein the indication information is a Radio Resource Control, RRC, signaling or a Reflective Quality of Service, RQoS, wherein the RQoS is determined according to an Identity, ID, of a data packet received on the second DRB; switching, by the transmitting device, the DRB corresponding to the first QoS flow from the first DRB to the second DRB; and sending, by the transmitting device, unsent data packets in the first QoS flow to a receiving device through the second DRB; wherein before the transmitting device switches the DRB corresponding to the first QoS flow from the first DRB to the second DRB, the method further comprises: sending, by the transmitting device, a first identity packet after sending at least one data packet in the first QoS flow through the first DRB, wherein the first identity packet is used for indicating that a previous data packet of the first identity packet is a last data packet corresponding to the first DRB; wherein, the first identity packet is a Service Data Adaptation Protocol, SDAP, Protocol Data Unit, PDU, without payload or an SDAP control PDU. receiving, by a transmitting device, indication information, wherein the indication information is used for indicating switching a Data Radio Bearer, DRB, corresponding to a first Quality of Service, QoS, flow from a first DRB to a second DRB; wherein the indication information is a Radio Resource Control, RRC, signaling or a Reflective Quality of Service, RQoS, wherein the RQoS is determined according to an Identity, ID, of a data packet received on the second DRB; switching, by the transmitting device, the DRB corresponding to the first QoS flow from the first DRB to the second DRB; and sending, by the transmitting device, unsent data packets in the first QoS flow to a receiving device through the second DRB; wherein before the transmitting device switches the DRB corresponding to the first QoS flow from the first DRB to the second DRB, the method further comprises: sending, by the transmitting device, a first identity packet after sending at least one data packet in the first QoS flow through the first DRB, wherein the first identity packet is used for indicating that a previous data packet of the first identity packet is a last data packet corresponding to the first DRB; wherein, the first identity packet is a Service Data Adaptation Protocol, SDAP, Protocol Data Unit, PDU, without payload or an SDAP control PDU. sending, by the transmitting device, a first identity packet after sending at least one data packet in the first QoS flow through the first DRB, wherein the first identity packet is used for indicating that a previous data packet of the first identity packet is a last data packet corresponding to the first DRB; wherein, the first identity packet is a Service Data Adaptation Protocol, SDAP, Protocol Data Unit, PDU, without payload or an SDAP control PDU.
A solid pharmaceutical composition suitable for oral administration, comprising a) a first compound which is 2-amino-2-[2-(4-octylphenyl)ethyl]propane-1,3-diol, or a pharmaceutically acceptable salt thereof, b) a filler, and c) a stabilizer comprising a cyclodextrin, wherein the composition comprises 0.5 mg of the first compound. a) a first compound which is 2-amino-2-[2-(4-octylphenyl)ethyl]propane-1,3-diol, or a pharmaceutically acceptable salt thereof, b) a filler, and c) a stabilizer comprising a cyclodextrin,
A method of starting usage of a print system (1; 201) having a nozzle array to dispense print liquid, wherein a negative pressure is applied to at least one volume (13; 213; 313, 369; 413) of the print system which is filled with gas, the negative pressure being applied by a negative pressure pump assembly of the print system through at least one vent (15; 215; 315, 323; 415) positioned so that the vent forms part of the periphery of the volume; wherein during startup the negative pressure is refreshed during a relatively long accumulated time span, such that while pressure in the volume decreases the gas is drawn out through the vent and print liquid is drawn into the volume, the volume filling with the print liquid until one side of the vent is covered with the liquid, and the pressure in the volume increasing up to a point where it becomes relatively steady; and wherein after startup, during routine usage of the print system, a negative pressure is refreshed during a relatively short accumulated time span such that bubbles of gas within the volume are drawn out through the vent.
A piezoresistive device, comprising a piezoresistive material positioned between an upper conductive layer and a lower conductive layer, wherein: the lower conductive layer comprises a plurality of conductive traces; and the piezoresistive material comprises carbon nanoparticles dispersed in a polymer matrix material; characterised in that the piezoresistive material comprises multiple layers and a single layer of said multiple layers bridges adjacent conductive traces within the lower conductive layer and; the carbon nanoparticles comprise graphene nanoplatelets. the lower conductive layer comprises a plurality of conductive traces; and the piezoresistive material comprises carbon nanoparticles dispersed in a polymer matrix material; characterised in that the piezoresistive material comprises multiple layers and a single layer of said multiple layers bridges adjacent conductive traces within the lower conductive layer and; the carbon nanoparticles comprise graphene nanoplatelets.
An image processing apparatus comprising: conversion means for converting an image in a first color space into an image in a second color space in such a manner that the image in the second color space has a bit depth smaller than a bit depth of the image in the first color space; detection means for detecting a predetermined object in the image in the second color space; control means for, in a case where the predetermined object is detected, determining an image area, of the image in the second color space, including the predetermined object; and recognition means for performing recognition processing that includes processing for acquiring a difference between a color of an area in the image in the first color space corresponding to the determined image area and a color of a reference image indicating the predetermined object. conversion means for converting an image in a first color space into an image in a second color space in such a manner that the image in the second color space has a bit depth smaller than a bit depth of the image in the first color space; detection means for detecting a predetermined object in the image in the second color space; control means for, in a case where the predetermined object is detected, determining an image area, of the image in the second color space, including the predetermined object; and recognition means for performing recognition processing that includes processing for acquiring a difference between a color of an area in the image in the first color space corresponding to the determined image area and a color of a reference image indicating the predetermined object.
A system for detecting a moving anatomic feature during a treatment sequence, the system comprising: a first imaging system for acquiring a first image of the anatomic feature and at least a portion of a second imaging system prior to the treatment sequence; and a controller in communication with the first and second imaging systems, the controller being configured to: (a) prior to the treatment sequence, process the first image to compute a shortest distance between the anatomic feature and the at least a portion of the second imaging system; and (b) during the treatment sequence, (i) measure the shortest distance between the anatomic feature and the at least a portion of the second imaging system, (ii) compare the measured shortest distance to the computed shortest distance obtained in step (a) to determine a deviation therefrom, and (iii) determine movement of the anatomic feature based on the deviation. a first imaging system for acquiring a first image of the anatomic feature and at least a portion of a second imaging system prior to the treatment sequence; and a controller in communication with the first and second imaging systems, the controller being configured to: (a) prior to the treatment sequence, process the first image to compute a shortest distance between the anatomic feature and the at least a portion of the second imaging system; and (b) during the treatment sequence, (i) measure the shortest distance between the anatomic feature and the at least a portion of the second imaging system, (ii) compare the measured shortest distance to the computed shortest distance obtained in step (a) to determine a deviation therefrom, and (iii) determine movement of the anatomic feature based on the deviation. (a) prior to the treatment sequence, process the first image to compute a shortest distance between the anatomic feature and the at least a portion of the second imaging system; and (b) during the treatment sequence, (i) measure the shortest distance between the anatomic feature and the at least a portion of the second imaging system, (ii) compare the measured shortest distance to the computed shortest distance obtained in step (a) to determine a deviation therefrom, and (iii) determine movement of the anatomic feature based on the deviation.
Double-belt heating press having upper and lower pressing tables which using rollers are configured as roller tables, having microwave heating units having radiation sources, disposed in sequence in the conveying direction, and microwave-permeable conveyor belts, wherein the rollers are configured as support rollers for support tubes which are supported in a manner transverse to the conveying direction of workpieces (6; 30; 31) on the support rollers and over which the conveyor belts roll, and rod-shaped microwave antennae are disposed as radiation sources in voids between horizontally adjacent support tubes and a conveyor belt so as to be parallel with the support tubes, characterized in that gaps between two horizontally adjacent support tubes by way of contact strips which electrically interconnect the former are hot-wired in a radiation-tight manner and, on account thereof, a microwave-oven interior space which is delimited upwardly and downwardly by the mutually facing cylinder faces of the support tubes and by the inwardly directed faces of the interdisposed contact strips such that the latter form a common delimitation face is produced.
Device for estimating Direction of Arrival, DOA, of sound from Q sound sources received by P microphone units, wherein P ≥ Q > 1, wherein the microphone units form pairs, in which the microphone units have identical sensitivity patterns, and are translationally separated by a known and constant displacement vector, and wherein the device is configured to: transform the output signals of the P microphone units into the frequency domain and compute a covariance matrix for each of a plurality of N frequency bins in a range of frequencies of the sound, calculate an adapted covariance matrix from each of the N covariance matrices for wide-band merging, calculate an accumulated covariance matrix from the N adapted covariance matrices, and estimate the DOA for each of the Q sound sources based on the accumulated covariance matrix, wherein, in order to calculate an adapted covariance matrix from a covariance matrix, the device is configured to spectrally decompose the covariance matrix and obtain a plurality of eigenvectors, rotate each obtained eigenvector, and construct each rotated eigenvector back to the shape of the covariance matrix to obtain the adapted covariance matrix; wherein the device is configured to rotate an eigenvector by Hadamard powering of the corresponding frequency to the complex-value eigenvector. transform the output signals of the P microphone units into the frequency domain and compute a covariance matrix for each of a plurality of N frequency bins in a range of frequencies of the sound, calculate an adapted covariance matrix from each of the N covariance matrices for wide-band merging, calculate an accumulated covariance matrix from the N adapted covariance matrices, and estimate the DOA for each of the Q sound sources based on the accumulated covariance matrix, wherein, in order to calculate an adapted covariance matrix from a covariance matrix, the device is configured to spectrally decompose the covariance matrix and obtain a plurality of eigenvectors, rotate each obtained eigenvector, and construct each rotated eigenvector back to the shape of the covariance matrix to obtain the adapted covariance matrix; wherein the device is configured to rotate an eigenvector by Hadamard powering of the corresponding frequency to the complex-value eigenvector.
A computer-implemented method of simulating or optimizing an occlusive procedure, the method comprising: obtaining a patient-specific anatomic model of a patient's vasculature; obtaining an initial computational model of blood flow through the patient's vasculature based on the patient-specific anatomic model; receiving input indicating an occlusion at a location of the patient's vasculature; determining a patient-specific blood flow characteristic by modeling blood flow in a portion of the patient-specific anatomic model including said indicated occlusion; and outputting a representation of the patient-specific blood flow characteristic; characterized in that: the received input defines a selected occlusive procedure that may be applied, as treatment, to the patient's vasculature; and the method comprises obtaining a post-treatment computational model of blood flow by modifying portions of the initial computational model, based on the selected occlusive procedure, to model removal of a portion of the patient's vasculature and redistribution of blood flow, wherein the removal is modeled by the creation of one or more new outlet surfaces, new outlet vessels, or new boundaries in the patient-specific anatomic model. obtaining a patient-specific anatomic model of a patient's vasculature; obtaining an initial computational model of blood flow through the patient's vasculature based on the patient-specific anatomic model; receiving input indicating an occlusion at a location of the patient's vasculature; determining a patient-specific blood flow characteristic by modeling blood flow in a portion of the patient-specific anatomic model including said indicated occlusion; and outputting a representation of the patient-specific blood flow characteristic; characterized in that: the received input defines a selected occlusive procedure that may be applied, as treatment, to the patient's vasculature; and the method comprises obtaining a post-treatment computational model of blood flow by modifying portions of the initial computational model, based on the selected occlusive procedure, to model removal of a portion of the patient's vasculature and redistribution of blood flow, wherein the removal is modeled by the creation of one or more new outlet surfaces, new outlet vessels, or new boundaries in the patient-specific anatomic model. the received input defines a selected occlusive procedure that may be applied, as treatment, to the patient's vasculature; and the method comprises obtaining a post-treatment computational model of blood flow by modifying portions of the initial computational model, based on the selected occlusive procedure, to model removal of a portion of the patient's vasculature and redistribution of blood flow, wherein the removal is modeled by the creation of one or more new outlet surfaces, new outlet vessels, or new boundaries in the patient-specific anatomic model.
Process for producing a magnetocaloric composite material for a heat exchanger, comprising the following steps: providing a multiplicity of particles of a magnetocaloric material in a shaped body; immersing the multiplicity of particles present in the shaped body in a bath in order to bond the particles to each other by a chemical metal coating in the bath, forming a composite material. providing a multiplicity of particles of a magnetocaloric material in a shaped body; immersing the multiplicity of particles present in the shaped body in a bath in order to bond the particles to each other by a chemical metal coating in the bath, forming a composite material.
A method for plasma enhanced chemical vapor deposition, PECVD, to an interior region of a hollow tubular conductive high aspect ratio workpiece, the method comprising: providing a plurality of anodes (20, 22, 24) in axially spaced apart arrangement along a lengthwise axis of the elongated interior region of a hollow tubular conductive workpiece of high aspect ratio greater than or equal to about thirty to one; providing an elongated support tube containing the plurality of anodes (20, 22, 24) and dimensioned to fit into the elongated interior region of the workpiece; introducing a PECVD process gas into the interior region of the workpiece; applying a respective individualized DC or pulsed DC bias to each of the plurality of anodes (20, 22, 24) to excite the process gas into a plasma; and controlling a pressure of the process gas in the interior region of the workpiece to maintain a plasma. providing a plurality of anodes (20, 22, 24) in axially spaced apart arrangement along a lengthwise axis of the elongated interior region of a hollow tubular conductive workpiece of high aspect ratio greater than or equal to about thirty to one; providing an elongated support tube containing the plurality of anodes (20, 22, 24) and dimensioned to fit into the elongated interior region of the workpiece; introducing a PECVD process gas into the interior region of the workpiece; applying a respective individualized DC or pulsed DC bias to each of the plurality of anodes (20, 22, 24) to excite the process gas into a plasma; and controlling a pressure of the process gas in the interior region of the workpiece to maintain a plasma.
Mixture of active ingredients for compositions for cosmetic use, such mixture comprising at least two carbohydrate components, at least one of which being a monosaccharide and at least one of which being an oligosaccharide, characterized in that the weight ratio between said at least one monosaccharide and said at least one oligosaccharide present in said mixture is comprised between 70:30 and 90:10; wherein said at least one monosaccharide comprises Arabinose and Fucose and said at least one oligosaccharide comprises 2'-Fucosyllactose; wherein, in addition, said at least two carbohydrate components comprise a weight percentage of said Arabinose comprised between about 40% and 60%, a weight percentage of said Fucose comprised between about 15% and 35% and a weight percentage of said 2'-Fucosyllactose comprised between about 15% and 35%.
A method of making a voltage regulator, comprising: providing a comparator including a reference voltage coupled to a first input of the comparator; coupling a first current source to a second input of the comparator, wherein the first current source includes a digital-to-analog converter, DAC, and wherein the comparator compares a first voltage at a terminal of the first current source to the reference voltage; coupling a counter between an output of the comparator and an input of the DAC, wherein the output of the comparator is directly coupled to the counter and an output signal of the comparator controls whether the counter increments or decrements; coupling a first terminal of a resistor to the second input of the comparator; coupling a transistor (20, 20a) and inductor (18, 18a) in series between a voltage input node and ground voltage node; coupling a first terminal of a diode (26, 26a) to a first circuit node between the transistor and inductor; coupling a second terminal of the diode to the resistor at a voltage output node; coupling a capacitor between the ground voltage node and voltage output node; and providing a control logic coupled to a control terminal of the transistor, wherein the control logic turns the transistor on and off based on a value of the counter. providing a comparator including a reference voltage coupled to a first input of the comparator; coupling a first current source to a second input of the comparator, wherein the first current source includes a digital-to-analog converter, DAC, and wherein the comparator compares a first voltage at a terminal of the first current source to the reference voltage; coupling a counter between an output of the comparator and an input of the DAC, wherein the output of the comparator is directly coupled to the counter and an output signal of the comparator controls whether the counter increments or decrements; coupling a first terminal of a resistor to the second input of the comparator; coupling a transistor (20, 20a) and inductor (18, 18a) in series between a voltage input node and ground voltage node; coupling a first terminal of a diode (26, 26a) to a first circuit node between the transistor and inductor; coupling a second terminal of the diode to the resistor at a voltage output node; coupling a capacitor between the ground voltage node and voltage output node; and providing a control logic coupled to a control terminal of the transistor, wherein the control logic turns the transistor on and off based on a value of the counter.