mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, comprising: identifying , at a user equipment, UE, a first bearer for use in streaming downlink data associated with an application, wherein the first bearer comprises a default bearer; requesting , at the UE, establishment of at least a second bearer for use in streaming the downlink data associated with the application, wherein the second bearer comprises a dedicated bearer having a priority that is greater than that of the default bearer; determining , at the UE, whether an amount of data in a playout buffer of the UE satisfies a threshold; selecting , at the UE, the second bearer for use in streaming the downlink data associated with the application based at least in part on determining that the amount of data in the playout buffer does not satisfy the threshold; and receiving a downlink data stream on the selected bearer. identifying , at a user equipment, UE, a first bearer for use in streaming downlink data associated with an application, wherein the first bearer comprises a default bearer; requesting , at the UE, establishment of at least a second bearer for use in streaming the downlink data associated with the application, wherein the second bearer comprises a dedicated bearer having a priority that is greater than that of the default bearer; determining , at the UE, whether an amount of data in a playout buffer of the UE satisfies a threshold; selecting , at the UE, the second bearer for use in streaming the downlink data associated with the application based at least in part on determining that the amount of data in the playout buffer does not satisfy the threshold; and receiving a downlink data stream on the selected bearer.
A decoding method comprising: - decoding (S120) a chroma block of a picture, said block being intra predicted according to an intra linear prediction mode from at least two reconstructed co-located luma blocks; - determining (S130) a frontier inside the decoded chroma block, said frontier being co-located with the external frontiers of the at least two reconstructed co-located luma blocks; and - filtering (S140) with a de-artifacting filter along the frontier determined inside the decoded chroma block. - decoding (S120) a chroma block of a picture, said block being intra predicted according to an intra linear prediction mode from at least two reconstructed co-located luma blocks; - determining (S130) a frontier inside the decoded chroma block, said frontier being co-located with the external frontiers of the at least two reconstructed co-located luma blocks; and - filtering (S140) with a de-artifacting filter along the frontier determined inside the decoded chroma block.
A method of controlling a robot configured to clean a hull of a vessel whilst travelling over said hull, the method performed by a processor and comprising: receiving (S402) at least one signal indicative of a speed of the vessel; during cleaning being performed by the robot, detecting (S404) that cleaning being performed by the robot is to be paused based on (i) determining, from said at least one signal, that the speed of the vessel exceeds a predetermined speed threshold, or (ii) predicting, using said at least one signal, that the speed of the vessel will exceed the predetermined speed threshold within a predetermined time period; in response to said detecting that cleaning being performed by the robot is to be paused, outputting (S406) a pause cleaning signal indicating that said cleaning is to be paused; whilst said cleaning is paused, detecting that cleaning performed by the robot is to be restarted based on the determining (S410) that the speed of the vessel has dropped below the predetermined threshold, and in response, outputting (S412) a restart cleaning signal indicating that cleaning by the robot is to be restarted. receiving (S402) at least one signal indicative of a speed of the vessel; during cleaning being performed by the robot, detecting (S404) that cleaning being performed by the robot is to be paused based on (i) determining, from said at least one signal, that the speed of the vessel exceeds a predetermined speed threshold, or (ii) predicting, using said at least one signal, that the speed of the vessel will exceed the predetermined speed threshold within a predetermined time period; in response to said detecting that cleaning being performed by the robot is to be paused, outputting (S406) a pause cleaning signal indicating that said cleaning is to be paused; whilst said cleaning is paused, detecting that cleaning performed by the robot is to be restarted based on the determining (S410) that the speed of the vessel has dropped below the predetermined threshold, and in response, outputting (S412) a restart cleaning signal indicating that cleaning by the robot is to be restarted.
Data glove having at least one fiber-optic sensor for digitizing the movement of the fingers, comprising at least one light source , at least one optical fiber and at least one receiver , characterized in that the optical fiber has at least one longitudinal portion in which the refractive index for light at a predeterminable wavelength is reduced with respect to the remaining longitudinal portions, the refractive index being reduced by partial coating of an outer surface of the optical fiber .
An inner bag container preform to be used in production of a dual-structure container by simultaneous stretch-blow molding according to a stack preform method, the dual-structure container including an outer container and an inner bag container housed in the outer container , the inner bag container preform is shaped as a whole like a test tube having a neck to be positioned within a mouth that is an unstretch-molded part of the outer container preform when the inner bag container preform is housed within the outer container preform , a body connecting to the neck and a bottom to close the lower end of the body , and contraction-control grooves are formed at a plurality of sites at intervals in the circumferential direction on the inner surface or the outer surface of the body , and the grooves extend linearly in the axial direction, and wherein the minimal thickness t at the contraction-control grooves is not more than 80% of the thickness T at a part other than the grooves when viewed in a plan cross section of the body . the inner bag container preform is shaped as a whole like a test tube having a neck to be positioned within a mouth that is an unstretch-molded part of the outer container preform when the inner bag container preform is housed within the outer container preform , a body connecting to the neck and a bottom to close the lower end of the body , and contraction-control grooves are formed at a plurality of sites at intervals in the circumferential direction on the inner surface or the outer surface of the body , and the grooves extend linearly in the axial direction, and wherein the minimal thickness t at the contraction-control grooves is not more than 80% of the thickness T at a part other than the grooves when viewed in a plan cross section of the body .
A distance measurement device, comprising: modulation means for generating transmission light by modulating an optical carrier wave; transmission means for transmitting the generated transmission light; reception means for receiving reflected light being light acquired by the transmission light being reflected by a measured object; first beat signal generation means for generating a first beat signal by causing the transmission light to interfere with reference light; second beat signal generation means for generating a second beat signal by causing the reflected light to interfere with reference light; and calculation means for calculating a distance to the measured object, based on a difference between the first beat signal and the second beat signal, wherein the modulation means is configured to generate transmission light by shifting a frequency of the optical carrier wave, the calculation means is configured to specify a phase difference between the transmission light and the reflected light from a difference between the first beat signal and the second beat signal, and to calculate a distance to the measured object, based on the specified phase difference, and wherein the optical carrier wave or local light corresponding to the optical carrier wave is used as reference light. modulation means for generating transmission light by modulating an optical carrier wave; transmission means for transmitting the generated transmission light; reception means for receiving reflected light being light acquired by the transmission light being reflected by a measured object; first beat signal generation means for generating a first beat signal by causing the transmission light to interfere with reference light; second beat signal generation means for generating a second beat signal by causing the reflected light to interfere with reference light; and calculation means for calculating a distance to the measured object, based on a difference between the first beat signal and the second beat signal, wherein the modulation means is configured to generate transmission light by shifting a frequency of the optical carrier wave, the calculation means is configured to specify a phase difference between the transmission light and the reflected light from a difference between the first beat signal and the second beat signal, and to calculate a distance to the measured object, based on the specified phase difference, and wherein the optical carrier wave or local light corresponding to the optical carrier wave is used as reference light.
A depth field pixel structure , comprising: a light field (LF) imaging component ; a photogate (203; 301, 303); and means for modulating the photogate (203;301, 303) by a voltage, which combined with an active light modulation of an active light source creates a current signal proportional to the phase of the amplitude of the light on the photogate, wherein the LF imaging component is disposed over the photogate (203; 301, 303) to capture depth fields by capturing the current signal as light field and time-of-flight information simultaneously and the pixel structure is implemented in a single on-chip architecture. a light field (LF) imaging component ; a photogate (203; 301, 303); and means for modulating the photogate (203;301, 303) by a voltage, which combined with an active light modulation of an active light source creates a current signal proportional to the phase of the amplitude of the light on the photogate, wherein the LF imaging component is disposed over the photogate (203; 301, 303) to capture depth fields by capturing the current signal as light field and time-of-flight information simultaneously and the pixel structure is implemented in a single on-chip architecture.
Propellant charge comprising one or more longitudinally extending, progressive-externally burning grains having a number of perforations passing through the grains in the length direction and wherein said grains have a cross-sectional shape, taken perpendicularly to the grain's length direction, that is elongated, characterized in that the cross-sectional shape is line-symmetric in at most two different lines.
A blade for a rotor of a wind turbine, comprising a profiled contour formed by a pressure side shell and a suction side shell rigidly joined thereof, said blade comprising a blade root , a blade tip , a leading edge and a trailing edge with a chord extending therebetween, said shells comprising: - at least one electrical connector layer located at a first distance L1 from the blade root and extending from the leading edge towards the trailing edge , - at least one heating elements layer electrically in contact with the electrical connector layer , said heating element layer extending in a longitudinal direction therebetween the blade root and the blade tip and more proximate to the leading edge than to the trailing edge , - glass fabric layers at least inwardly in contact with the electrical connector or with heating elements layer , - a connector component extending transversally through the glass fabric layers and being electrically connected with the electrical connector layer and with a metallic block , - power wires extending longitudinally from a power source near the blade root to the connector component being one of these power wires electrically in contact thereof, said power wires located in at least one of the shells , wherein the metallic blocks are drilled by an inter-connector so that the electrical connector layers from each shell are electrically connected and the blade is able to be heated by the heating elements layer when electrically fed from the power source. - at least one electrical connector layer located at a first distance L1 from the blade root and extending from the leading edge towards the trailing edge , - at least one heating elements layer electrically in contact with the electrical connector layer , said heating element layer extending in a longitudinal direction therebetween the blade root and the blade tip and more proximate to the leading edge than to the trailing edge , - glass fabric layers at least inwardly in contact with the electrical connector or with heating elements layer , - a connector component extending transversally through the glass fabric layers and being electrically connected with the electrical connector layer and with a metallic block , - power wires extending longitudinally from a power source near the blade root to the connector component being one of these power wires electrically in contact thereof, said power wires located in at least one of the shells ,
A method of wireless communications, comprising : receiving , at a user equipment, UE, a grant from a base station on a control channel, the grant including content indicating a mini-slot having a start symbol and a duration assigned to the UE; interpreting the grant based on a current configuration of a data channel to determine the mini-slot wherein interpreting the grant includes: determining a location of the grant within the control channel; determining a type of mini-slot based on the location; and determining assignment of resources based on the type of mini-slot and the content; and communicating with the base station during the mini-slot indicated by the grant. receiving , at a user equipment, UE, a grant from a base station on a control channel, the grant including content indicating a mini-slot having a start symbol and a duration assigned to the UE; interpreting the grant based on a current configuration of a data channel to determine the mini-slot wherein interpreting the grant includes: determining a location of the grant within the control channel; determining a type of mini-slot based on the location; and determining assignment of resources based on the type of mini-slot and the content; and communicating with the base station during the mini-slot indicated by the grant. determining a location of the grant within the control channel; determining a type of mini-slot based on the location; and determining assignment of resources based on the type of mini-slot and the content; and communicating with the base station during the mini-slot indicated by the grant.
A method for treating a container , the method comprising: inserting the container in a housing; evacuating the housing; providing at least one precursor material to the housing, wherein the first electrode has a first diameter and the second electrode has a second diameter and the first diameter is larger than the second diameter, and the first electrode and the second electrode are arranged coaxially relative to each other; forming a plasma from the at least one precursor material by applying power to the first and the second electrode ; and applying the plasma to the container ; characterised in that : the at least one precursor material is provided to the housing via an annulus formed between the first electrode and the second electrode ; the first diameter is smaller than an opening in the container ; and inserting the container in the housing comprises positioning the container such that internal deposition surfaces of the container within said housing are located outside of the annulus . inserting the container in a housing; evacuating the housing; providing at least one precursor material to the housing, wherein the first electrode has a first diameter and the second electrode has a second diameter and the first diameter is larger than the second diameter, and the first electrode and the second electrode are arranged coaxially relative to each other; forming a plasma from the at least one precursor material by applying power to the first and the second electrode ; and applying the plasma to the container ; the at least one precursor material is provided to the housing via an annulus formed between the first electrode and the second electrode ; the first diameter is smaller than an opening in the container ; and inserting the container in the housing comprises positioning the container such that internal deposition surfaces of the container within said housing are located outside of the annulus .
A coated optical fiber comprising: a glass optical fiber comprising a glass core and a glass cladding disposed about the glass core; and a cured reaction product of a radiation-curable optical fiber coating composition comprising at least 20 wt% of one or more at least trifunctional ethylenically unsaturated monomers, each having three or more free radical polymerizable ethylenic unsaturations; at least 20 wt% of one or more at least trifunctional thiol monomers, each having three or more free radical polymerizable thiols; and an effective amount of a free radical photoinitiator, wherein the ratio of the number of polymerizable ethylenic unsaturations of the curable composition to the number of polymerizable thiols of the curable compositions is at least about 1. a glass optical fiber comprising a glass core and a glass cladding disposed about the glass core; and a cured reaction product of a radiation-curable optical fiber coating composition comprising at least 20 wt% of one or more at least trifunctional ethylenically unsaturated monomers, each having three or more free radical polymerizable ethylenic unsaturations; at least 20 wt% of one or more at least trifunctional thiol monomers, each having three or more free radical polymerizable thiols; and an effective amount of a free radical photoinitiator, wherein the ratio of the number of polymerizable ethylenic unsaturations of the curable composition to the number of polymerizable thiols of the curable compositions is at least about 1. at least 20 wt% of one or more at least trifunctional ethylenically unsaturated monomers, each having three or more free radical polymerizable ethylenic unsaturations; at least 20 wt% of one or more at least trifunctional thiol monomers, each having three or more free radical polymerizable thiols; and an effective amount of a free radical photoinitiator, wherein the ratio of the number of polymerizable ethylenic unsaturations of the curable composition to the number of polymerizable thiols of the curable compositions is at least about 1.
A method for analytics-based policy generation by a mobile communication network, the method comprising: requesting a remote unit to report at least one type of usage data according to a reporting policy, the at least one type of usage data comprising one of battery usage data and network location data; receiving a usage report from the remote unit , the usage report comprising usage data of the at least one type of usage data; determining an analytics record for the remote unit , the analytics record indicating at least one trend based on the usage report and a confidence level for each trend; generating a network policy in response to a confidence level exceeding a predetermined threshold, the network policy being based on usage data underlying the trend, and wherein the network policy indicates a media codec to be utilized at a particular time period; and transmitting the network policy to one of the remote unit and a network function ; wherein the reporting policy indicates whether the remote unit is to transmit a usage report based on one or more of a charging state of the remote unit , a battery level of the remote unit , a network connection type of the remote unit , and a usage report size. requesting a remote unit to report at least one type of usage data according to a reporting policy, the at least one type of usage data comprising one of battery usage data and network location data; receiving a usage report from the remote unit , the usage report comprising usage data of the at least one type of usage data; determining an analytics record for the remote unit , the analytics record indicating at least one trend based on the usage report and a confidence level for each trend; generating a network policy in response to a confidence level exceeding a predetermined threshold, the network policy being based on usage data underlying the trend, and wherein the network policy indicates a media codec to be utilized at a particular time period; and transmitting the network policy to one of the remote unit and a network function ; wherein the reporting policy indicates whether the remote unit is to transmit a usage report based on one or more of a charging state of the remote unit , a battery level of the remote unit , a network connection type of the remote unit , and a usage report size.
A coating composition in a powder state for cooking utensils or kitchen supplies, comprising: an aromatic polyether ketone resin; and at least one heat-resistant resin selected from the group consisting of a polyamide-based resin and a polyimide-based resin, the aromatic polyether ketone resin and the heat-resistant resin giving a mass ratio (aromatic polyether ketone resin/heat-resistant resin) of 1/99 to 50/50, the coating composition being intended for direct application to a substrate containing a metal or a non-metal inorganic material. an aromatic polyether ketone resin; and at least one heat-resistant resin selected from the group consisting of a polyamide-based resin and a polyimide-based resin, the aromatic polyether ketone resin and the heat-resistant resin giving a mass ratio (aromatic polyether ketone resin/heat-resistant resin) of 1/99 to 50/50, the coating composition being intended for direct application to a substrate containing a metal or a non-metal inorganic material.
Method for diluting an aerosol, - wherein the aerosol is supplied as input aerosol through a supply tube (2.1) surrounded by an annular space (2.2) to a mixing stage , and output aerosol exiting via an outlet (2.3) is purified to form a particle-free purified gas, and particle-free purified gas is supplied to the annular space (2.2) upstream of the outlet (2.3) and mixed with the aerosol, - wherein the output aerosol is conducted, before purification, through an optical sensor device for determining the particle number of the output aerosol that passes through a measurement volume of the sensor device per unit of time, and the particle size, and - wherein the ratio of volume flow of the input aerosol to that of the purified gas supplied thereto is determined by means of a mass flow controller (2.4, 4). - wherein the aerosol is supplied as input aerosol through a supply tube (2.1) surrounded by an annular space (2.2) to a mixing stage , and output aerosol exiting via an outlet (2.3) is purified to form a particle-free purified gas, and particle-free purified gas is supplied to the annular space (2.2) upstream of the outlet (2.3) and mixed with the aerosol, - wherein the output aerosol is conducted, before purification, through an optical sensor device for determining the particle number of the output aerosol that passes through a measurement volume of the sensor device per unit of time, and the particle size, and - wherein the ratio of volume flow of the input aerosol to that of the purified gas supplied thereto is determined by means of a mass flow controller (2.4, 4).