mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a radio access node , the method comprising: the radio access node transmitting Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH, which specifies (i) radio resources for transmitting a scheduling assignment from a first wireless terminal to a second wireless terminal , the scheduling assignment being information which schedules radio resources for transmission of device-to-device, D2D, data to the second wireless terminal ; and (ii) the radio resources for transmission of the D2D data that is scheduled by the scheduling assignment for use by the first wireless terminal in D2D communication with the second wireless terminal ; and the radio access node encoding a cyclical redundancy check, CRC, portion of the DCI with a D2D radio network temporary identity, RNTI, of the first wireless terminal . the radio access node transmitting Downlink Control Information, DCI, on a Physical Downlink Control Channel, PDCCH, which specifies (i) radio resources for transmitting a scheduling assignment from a first wireless terminal to a second wireless terminal , the scheduling assignment being information which schedules radio resources for transmission of device-to-device, D2D, data to the second wireless terminal ; and (ii) the radio resources for transmission of the D2D data that is scheduled by the scheduling assignment for use by the first wireless terminal in D2D communication with the second wireless terminal ; and (i) radio resources for transmitting a scheduling assignment from a first wireless terminal to a second wireless terminal , the scheduling assignment being information which schedules radio resources for transmission of device-to-device, D2D, data to the second wireless terminal ; and (ii) the radio resources for transmission of the D2D data that is scheduled by the scheduling assignment for use by the first wireless terminal in D2D communication with the second wireless terminal ; and the radio access node encoding a cyclical redundancy check, CRC, portion of the DCI with a D2D radio network temporary identity, RNTI, of the first wireless terminal .
A method of manufacturing an ink composition for depositing of a photoactive layer of an optoelectronic device, the method comprising - providing a first phase liquid comprising a nonpolar solvent with nanoparticles dispersed in the nonpolar solvent, which nanoparticles are capped with a shell of first ligands , the first ligands comprising a surface binding head group and an alkyl or alkenyl tail for, at least initially, keeping the nanoparticles in a colloidal suspension in the nonpolar solvent ; - providing a second phase liquid comprising a first polar solvent with second ligands dissolved therein, the second ligands having a molecular architecture including: ∘ a thiol head group for binding to a surface site of said nanoparticle ; ∘ an ionically charged tail group having a counter ion associated therewith; and ∘ an alkyl spacer separating the head group and the tail group having a total number of carbon atoms in a range from 1 to 3, - a biphasic ligand exchange process wherein the second ligands displace the first ligands that are bound to the nanoparticles thereby releasing the first ligands to the first phase liquid , the biphasic ligand exchange process comprising contacting the first and second phase liquid to form a dispersion of the nanoparticles that are capped with a shell of the second ligands in the second phase liquid. - providing a first phase liquid comprising a nonpolar solvent with nanoparticles dispersed in the nonpolar solvent, which nanoparticles are capped with a shell of first ligands , the first ligands comprising a surface binding head group and an alkyl or alkenyl tail for, at least initially, keeping the nanoparticles in a colloidal suspension in the nonpolar solvent ; - providing a second phase liquid comprising a first polar solvent with second ligands dissolved therein, the second ligands having a molecular architecture including: ∘ a thiol head group for binding to a surface site of said nanoparticle ; ∘ an ionically charged tail group having a counter ion associated therewith; and ∘ an alkyl spacer separating the head group and the tail group having a total number of carbon atoms in a range from 1 to 3, ∘ a thiol head group for binding to a surface site of said nanoparticle ; ∘ an ionically charged tail group having a counter ion associated therewith; and ∘ an alkyl spacer separating the head group and the tail group having a total number of carbon atoms in a range from 1 to 3, - a biphasic ligand exchange process wherein the second ligands displace the first ligands that are bound to the nanoparticles thereby releasing the first ligands to the first phase liquid , the biphasic ligand exchange process comprising contacting the first and second phase liquid to form a dispersion of the nanoparticles that are capped with a shell of the second ligands in the second phase liquid.
A composition for culture of expanding cells, said composition comprising 0.05 - 0.5 wt% of mechanically disintegrated plant-derived anionic nanofibrillar cellulose having a degree of substitution of between 0.08 and 0.3 and a storage modulus between 1 and 40 Pa, when dispersed to a concentration of 0.5 wt% in water, in a form of hydrogel, wherein the cells are neuronal cells.
A device for filling a dispensing tip with a material , the device comprising: a vacuum manifold comprising at least one port ; a vacuum source for creating a negative pressure in the vacuum manifold ; and at least one dispensing tip having an axial bore therethrough and configured for air-tight attachment to the at least one port of the vacuum manifold via a proximal end of the at least one dispensing tip ; the device being characterized in that each dispensing tip includes a plunger having a distal end being a stop , the plunger being moveable within the axial bore of the dispensing tip , wherein the negative pressure is sufficient to pull the material into the axial bore of the at least one dispensing tip to a level within the dispensing tip defined by the axial position of the stop ; wherein the material is a powdered material and a clearance between an outer surface of the stop and an inner wall of the axial bore at the distal end of the dispensing tip is less than a diameter of individual grains of the powdered material or wherein the material is a liquid material, the viscosity of the liquid preventing passage of the liquid through the clearance past the stop . a vacuum manifold comprising at least one port ; a vacuum source for creating a negative pressure in the vacuum manifold ; and at least one dispensing tip having an axial bore therethrough and configured for air-tight attachment to the at least one port of the vacuum manifold via a proximal end of the at least one dispensing tip ; the device being characterized in that each dispensing tip includes a plunger having a distal end being a stop , the plunger being moveable within the axial bore of the dispensing tip , wherein the negative pressure is sufficient to pull the material into the axial bore of the at least one dispensing tip to a level within the dispensing tip defined by the axial position of the stop ; wherein the material is a powdered material and a clearance between an outer surface of the stop and an inner wall of the axial bore at the distal end of the dispensing tip is less than a diameter of individual grains of the powdered material or wherein the material is a liquid material, the viscosity of the liquid preventing passage of the liquid through the clearance past the stop .
A device for analyzing electrocardiogram data, the device comprising: - an input means for obtaining a temporal sequence of electrocardiogram data registered by at least 2 electrodes corresponding to a plurality of predetermined locations on the body of a user, - a processing unit connected to said input means to receive and process the temporal sequence of electrocardiogram data, the processing unit being programmed for determining at least one parameter indicative of a morphological feature of said temporal sequence of electrocardiogram data, and for performing a comparison of said at least one parameter to a previously recorded individual spatial reference of said at least one parameter obtained from said user under a plurality of different physiological conditions, characterized by , said morphological feature comprising a multi-dimensional ST segment feature, said at least one parameter being indicative of a multi-dimensional vector of ST segment features, and said comparison being a comparison of a spatial ST level representation with said previously recorded individual spatial reference of said at least one parameter, and - an output means connected to said processing unit for generating a signal indicative of ST elevation taking into account said comparison, the signal being representative of a risk of a myocardial infarction occurring in said body, wherein said device is furthermore adapted for prompting a user for inputting during a calibration and/or re-calibration procedure a temporal sequence of electrocardiogram data registered by a plurality of electrodes corresponding to the plurality of predetermined locations on the body of the user obtained under said plurality of different physiological conditions including in supine and standing posture or including in rest and/or during or after walking and/or jogging. - an input means for obtaining a temporal sequence of electrocardiogram data registered by at least 2 electrodes corresponding to a plurality of predetermined locations on the body of a user, - a processing unit connected to said input means to receive and process the temporal sequence of electrocardiogram data, the processing unit being programmed for determining at least one parameter indicative of a morphological feature of said temporal sequence of electrocardiogram data, and for performing a comparison of said at least one parameter to a previously recorded individual spatial reference of said at least one parameter obtained from said user under a plurality of different physiological conditions, characterized by , said morphological feature comprising a multi-dimensional ST segment feature, said at least one parameter being indicative of a multi-dimensional vector of ST segment features, and said comparison being a comparison of a spatial ST level representation with said previously recorded individual spatial reference of said at least one parameter, and - an output means connected to said processing unit for generating a signal indicative of ST elevation taking into account said comparison, the signal being representative of a risk of a myocardial infarction occurring in said body,
A computer-implemented method of tasking an image acquisition system , comprising: obtaining , by one or more computing devices , location data and a plurality of images associated with a geographic area , each image depicting at least a portion of the geographic area , and each image having been captured at a different time, wherein the location data is descriptive of a number of user devices located at the geographic area within a time period; analyzing , by the one or more computing devices , at least a subset of the plurality of images to determine an occurrence of one or more changes in the geographic area ; determining, by one or more computing devices , a level of importance of the geographic area based on the location data ; determining , by the one or more computing devices , a level of change of the geographic area based on an aggregation of the one or more changes in the geographic area ; and providing, by the one or more computing devices , a control command to an image acquisition system to adjust an acquisition of imagery data from the geographic area based on the level of importance and the level of change , by increasing the acquisition of imagery data from the geographic area by increasing the frequency, timing and/or the spatial resolution of image capture if the level of change is high and the level of importance is high, wherein a higher level of importance is indicative of a higher level of interest in the geographic area based on the location data indicating a number of user devices that are located at the geographic area in a predetermined time period. obtaining , by one or more computing devices , location data and a plurality of images associated with a geographic area , each image depicting at least a portion of the geographic area , and each image having been captured at a different time, wherein the location data is descriptive of a number of user devices located at the geographic area within a time period; analyzing , by the one or more computing devices , at least a subset of the plurality of images to determine an occurrence of one or more changes in the geographic area ; determining, by one or more computing devices , a level of importance of the geographic area based on the location data ; determining , by the one or more computing devices , a level of change of the geographic area based on an aggregation of the one or more changes in the geographic area ; and providing, by the one or more computing devices , a control command to an image acquisition system to adjust an acquisition of imagery data from the geographic area based on the level of importance and the level of change , by increasing the acquisition of imagery data from the geographic area by increasing the frequency, timing and/or the spatial resolution of image capture if the level of change is high and the level of importance is high, wherein a higher level of importance is indicative of a higher level of interest in the geographic area based on the location data indicating a number of user devices that are located at the geographic area in a predetermined time period.
Circuit comprising: an FPGA , which has an FLL circuit ; a reference clock of a first frequency or a reference clock input to receive a reference clock of a first frequency; a programmable oscillator , which outputs a clock signal for the FPGA , wherein the FLL circuit is designed to record a first number of clock signals of the programmable oscillator during a second number of periods of the reference clock, wherein the first number is greater than the second number, and a feedback signal is output in order to control the ratio between the first number and the second number such that the feedback signal acts on the frequency of the programmable oscillator , characterized in that the frequency of the programmable oscillator is controlled via at least a resistance value on which the feedback signal acts, wherein the resistance value can be regulated via a series of individual resistances which, for the purpose of reducing the resistance, can be bridged at least partially in a selective manner in relation to the circuit ground, wherein the series of individual resistances that can be bridged comprises at least 10 individual resistances, wherein the series of individual resistances that can be bridged in a selective manner does not contribute more than 10 % to the total value of the resistance. an FPGA , which has an FLL circuit ; a reference clock of a first frequency or a reference clock input to receive a reference clock of a first frequency; a programmable oscillator , which outputs a clock signal for the FPGA , wherein the FLL circuit is designed to record a first number of clock signals of the programmable oscillator during a second number of periods of the reference clock, wherein the first number is greater than the second number, and a feedback signal is output in order to control the ratio between the first number and the second number such that the feedback signal acts on the frequency of the programmable oscillator , characterized in that the frequency of the programmable oscillator is controlled via at least a resistance value on which the feedback signal acts, wherein the resistance value can be regulated via a series of individual resistances which, for the purpose of reducing the resistance, can be bridged at least partially in a selective manner in relation to the circuit ground, wherein the series of individual resistances that can be bridged comprises at least 10 individual resistances, wherein the series of individual resistances that can be bridged in a selective manner does not contribute more than 10 % to the total value of the resistance.
Method for at least semi-autonomously parking a motor vehicle in a parking space with a first parking space area (B1), a second parking space area (B2) which is raised in comparison with the first parking space area (B1), and a transition , to be successively overcome by at least two wheels (R1, R2, R3, R4) of the motor vehicle , between the first and the second parking space areas (B1, B2), wherein the following steps are carried out: a) determining an overcoming position (S) in the first parking space area (B1) for a first wheel (R1, R2) for starting a first overcoming process of the transition by the first wheel (R1, R2), characterized by b) specifying an overcoming distance (X) which is travelled by the first wheel (R1, R2) starting from the overcoming position (S) up to a predetermined end position (E) in the second parking space area (B2) during the first overcoming process, c) predicting a position (P) of at least one second wheel (R2, R4) in the parking space after the first overcoming process is carried out, on the basis of the specified overcoming distance (X); d) determining whether the predicted position (P) of the second wheel (R2, R4) lies within a predetermined partial area in the parking space , and e) correcting the overcoming distance (X) for the first wheel (R1, R2) if the predicted position (P) lies within the predetermined partial area. a) determining an overcoming position (S) in the first parking space area (B1) for a first wheel (R1, R2) for starting a first overcoming process of the transition by the first wheel (R1, R2), characterized by b) specifying an overcoming distance (X) which is travelled by the first wheel (R1, R2) starting from the overcoming position (S) up to a predetermined end position (E) in the second parking space area (B2) during the first overcoming process, c) predicting a position (P) of at least one second wheel (R2, R4) in the parking space after the first overcoming process is carried out, on the basis of the specified overcoming distance (X); d) determining whether the predicted position (P) of the second wheel (R2, R4) lies within a predetermined partial area in the parking space , and e) correcting the overcoming distance (X) for the first wheel (R1, R2) if the predicted position (P) lies within the predetermined partial area.
Facility for producing a composite material comprising carbon nanotubes, said facility including - at least one treatment chamber, or reaction chamber , comprising means (5, 5', 5") for injecting an active gas mixture into the interior volume of said chamber, this gas mixture being intended for the growth of carbon nanotubes, - means for transporting a substrate intended to form said composite material, in the form of a sheet or strip, into the chamber, characterised in that the injection means are capable of transporting the active mixture in a first direction into said interior volume, and in that the facility also includes means for circulating the gas mixture, capable of transporting the active mixture in said interior volume in a second direction, different from said first direction, the circulation means being capable of adopting a first configuration of injection of the active gas mixture into the interior volume of this chamber, as well as a second configuration of extraction of the active gas mixture from said interior volume, with the understanding that preferably: said first direction is substantially perpendicular to the direction of movement of the substrate in the chamber, while said second direction is substantially parallel to the direction of movement of the substrate. - at least one treatment chamber, or reaction chamber , comprising means (5, 5', 5") for injecting an active gas mixture into the interior volume of said chamber, this gas mixture being intended for the growth of carbon nanotubes, - means for transporting a substrate intended to form said composite material, in the form of a sheet or strip, into the chamber,
Method for detecting a multimedia communication problem, implemented by an execution entity, comprising a processing phase implementing: - receiving (111 E ) at least one message, called received message, belonging to at least one flow to be monitored relating to at least one media flow, - verifying (113 E ) a correspondence between said at least one received message and at least one rule associated with said at least one flow to be monitored, and - when said at least one received message corresponds to said rule, sending (114 E ) an error detection message to a control entity via a rule management entity, and - a configuration phase prior to said processing phase, implementing receiving an error detection notification request message, transmitted by said control entity via said rule management entity, said error detection notification request message carrying said at least one rule and an attribute relating to at least one type of flow authorized to transport information on media flows. - receiving (111 E ) at least one message, called received message, belonging to at least one flow to be monitored relating to at least one media flow, - verifying (113 E ) a correspondence between said at least one received message and at least one rule associated with said at least one flow to be monitored, and - when said at least one received message corresponds to said rule, sending (114 E ) an error detection message to a control entity via a rule management entity, and - a configuration phase prior to said processing phase, implementing receiving an error detection notification request message, transmitted by said control entity via said rule management entity, said error detection notification request message carrying said at least one rule and an attribute relating to at least one type of flow authorized to transport information on media flows.