mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for cracking a gypsum matrix of a gypsum-based panel, the apparatus comprising: an assembly, the assembly configured to receive the panel at an entrance of the assembly and convey the panel from the entrance to an exit of the assembly, wherein, between the entrance and the exit, the assembly is configured to bend the panel in a first direction, wherein the assembly comprises a roller assembly , and the roller assembly comprises at least one pair of opposed rollers configured to receive the panel therebetween, the at least one pair of opposed rollers including a first roller and a second roller spaced from the first roller , characterized in that the first roller and the second roller each have a non-constant radius along a length of said roller. an assembly, the assembly configured to receive the panel at an entrance of the assembly and convey the panel from the entrance to an exit of the assembly, wherein, between the entrance and the exit, the assembly is configured to bend the panel in a first direction, wherein the assembly comprises a roller assembly , and the roller assembly comprises at least one pair of opposed rollers configured to receive the panel therebetween, the at least one pair of opposed rollers including a first roller and a second roller spaced from the first roller , characterized in that the first roller and the second roller each have a non-constant radius along a length of said roller.
A recombinant adenoviral vector comprising a capsid comprising a fusion protein consisting of a protein IX and a fragment of a circumsporozoite (CS) protein of Plasmodium falciparum, wherein said fragment comprises the amino acid sequence of SEQ ID NO:1.
An elbow assembly for a patient interface, the elbow assembly comprising: a swivel component adapted to connect to a patient interface; and an elbow component adapted to connect to an air circuit, wherein the swivel component is coupled to the elbow component by a ball and socket joint (6662; 6635, 7662; 7635) characterised in that the swivel component is also coupled to the elbow component by a hinge joint (6645; 6664, 7645; 7664) which allows the elbow component to pivot relative to the swivel component about a single pivot axis, wherein the swivel component and the elbow component, when coupled, provide a flow path therethrough from the air circuit to the patient interface, and wherein the swivel component is adapted to allow rotation of the elbow assembly relative to the patient interface about a swivel axis that extends transverse to said single pivot axis. a swivel component adapted to connect to a patient interface; and an elbow component adapted to connect to an air circuit, wherein the swivel component is coupled to the elbow component by a ball and socket joint (6662; 6635, 7662; 7635) characterised in that the swivel component is also coupled to the elbow component by a hinge joint (6645; 6664, 7645; 7664) which allows the elbow component to pivot relative to the swivel component about a single pivot axis, wherein the swivel component and the elbow component, when coupled, provide a flow path therethrough from the air circuit to the patient interface, and wherein the swivel component is adapted to allow rotation of the elbow assembly relative to the patient interface about a swivel axis that extends transverse to said single pivot axis.
Method for controlling a facility for transporting vehicles using at least one continuously moving cable , the method comprising: - a step of determining at least one oscillation of the cable and/or of at least one of the vehicles on the basis of at least one parameter chosen from the following parameters: an average tension ( T ) of the cable , an average speed ( v ) of the cable , a distance ( d ) between two successive vehicles, and an average mass ( m ) transported by the vehicles , - a step of generating a database which links an oscillation value (AC) to a combination of the average tension ( T ) of the cable , the average speed ( v ) of the cable , the distance ( d ) between two successive vehicles , and the average mass ( m ) transported by the vehicles , and - a step of reducing the oscillation by varying one or more parameters to be varied among the parameters according to the database . - a step of determining at least one oscillation of the cable and/or of at least one of the vehicles on the basis of at least one parameter chosen from the following parameters: an average tension ( T ) of the cable , an average speed ( v ) of the cable , a distance ( d ) between two successive vehicles, and an average mass ( m ) transported by the vehicles , - a step of generating a database which links an oscillation value (AC) to a combination of the average tension ( T ) of the cable , the average speed ( v ) of the cable , the distance ( d ) between two successive vehicles , and the average mass ( m ) transported by the vehicles , and - a step of reducing the oscillation by varying one or more parameters to be varied among the parameters according to the database .
A method for determining quality of an additively manufactured article or batch thereof, comprising: torsion testing at least one additively manufactured test article that is built on and attached to a build plate while the at least one test article is still attached to the build plate ; additively manufacturing the at least one test article on the build plate to have a test head configured to be torqued by a socket; and wherein additively manufacturing the test article includes forming a base of the test article to adhere to the build plate such that the base of the test article remains attached to the build plate throughout torsion testing. torsion testing at least one additively manufactured test article that is built on and attached to a build plate while the at least one test article is still attached to the build plate ; additively manufacturing the at least one test article on the build plate to have a test head configured to be torqued by a socket; and wherein additively manufacturing the test article includes forming a base of the test article to adhere to the build plate such that the base of the test article remains attached to the build plate throughout torsion testing.
A video application keepalive method, applied to an electronic device , wherein the method comprises: switching (s406) a first application on a first interface to run in the background; determining (S408) that memory usage of the electronic device is greater than a first threshold; determining (S413) an application type of the first application, wherein the first application is in a background running state; if the type of the first application is a video type, determining (S415) whether the first application is in a video hold state, wherein it is determined that the first application is in the video hold state when the first application is switched to run in the background, the first interface is not a home screen , and duration in which the first application obtains an audio focus to play audio of a video resource exceeds first duration; and if the first application is in the video hold state, keeping (S417) a process of the first application alive within a keepalive time, wherein after the keeping (S117) the process of the first application alive within the keepalive time, the method further comprises: switching (S418) the first application to run in a foreground within the keepalive time; and displaying (S419), by the first application, the first interface . switching (s406) a first application on a first interface to run in the background; determining (S408) that memory usage of the electronic device is greater than a first threshold; determining (S413) an application type of the first application, wherein the first application is in a background running state; if the type of the first application is a video type, determining (S415) whether the first application is in a video hold state, wherein it is determined that the first application is in the video hold state when the first application is switched to run in the background, the first interface is not a home screen , and duration in which the first application obtains an audio focus to play audio of a video resource exceeds first duration; and if the first application is in the video hold state, keeping (S417) a process of the first application alive within a keepalive time, wherein after the keeping (S117) the process of the first application alive within the keepalive time, the method further comprises: switching (S418) the first application to run in a foreground within the keepalive time; and displaying (S419), by the first application, the first interface . switching (S418) the first application to run in a foreground within the keepalive time; and displaying (S419), by the first application, the first interface .
A protective braided sleeve , comprising: a seamless, circumferentially continuous, flexible tubular wall extending lengthwise along a central longitudinal axis between opposite ends ; said wall including a plurality of yarns braided with one another in a first non-heat-treated state, a first plurality of said plurality of yarns being substantially non-heat-shrinkable yarns and a second plurality of said plurality of yarns being heat-shrinkable yarns; and said heat-shrinkable yarns being configured to shrink lengthwise at a temperature that does not cause said non-heat-shrinkable yarns to shrink substantially and to cause said substantially non-heat-shrinkable yarns to be axially bunched into a second heat-treated state; wherein the non-heat-shrinkable yarn and the heat-shrinkable yarn are braided in a respective 1:1 braid pattern, characterised in that the non-heat-shrinkable yarn and the heat-shrinkable yarn are alternating with one another in opposite S and Z helical directions in a ratio of ends of the non-heat-shrinkable yarn to the heat-shrinkable yarn of 1:1. a seamless, circumferentially continuous, flexible tubular wall extending lengthwise along a central longitudinal axis between opposite ends ; said wall including a plurality of yarns braided with one another in a first non-heat-treated state, a first plurality of said plurality of yarns being substantially non-heat-shrinkable yarns and a second plurality of said plurality of yarns being heat-shrinkable yarns; and said heat-shrinkable yarns being configured to shrink lengthwise at a temperature that does not cause said non-heat-shrinkable yarns to shrink substantially and to cause said substantially non-heat-shrinkable yarns to be axially bunched into a second heat-treated state; wherein the non-heat-shrinkable yarn and the heat-shrinkable yarn are braided in a respective 1:1 braid pattern, characterised in that the non-heat-shrinkable yarn and the heat-shrinkable yarn are alternating with one another in opposite S and Z helical directions in a ratio of ends of the non-heat-shrinkable yarn to the heat-shrinkable yarn of 1:1.
A method for synchronising a first data stream and a second data stream implemented in a receiver , at least one stream of the first stream and the second stream being received by radio-frequency broadcasting and the other stream being received via an IP network, the first and second streams conveying the same service, said method comprising: - reception of an average shift value between the first stream and the second stream; - storage (204.1; 204.2) of the first stream in a first buffer memory (108.1-108.3) and storage of the second stream in a second buffer memory (108.1-108.3); - extraction of a first extract from the first buffer memory and a second extract from the second buffer memory, based on the received average shift value; - comparative analysis of the first extract and the second extract in order to derive therefrom an actual shift value between the first stream and the second stream; - synchronisation of the first stream and the second stream based on the obtained actual shift value. - reception of an average shift value between the first stream and the second stream; - storage (204.1; 204.2) of the first stream in a first buffer memory (108.1-108.3) and storage of the second stream in a second buffer memory (108.1-108.3); - extraction of a first extract from the first buffer memory and a second extract from the second buffer memory, based on the received average shift value; - comparative analysis of the first extract and the second extract in order to derive therefrom an actual shift value between the first stream and the second stream; - synchronisation of the first stream and the second stream based on the obtained actual shift value.
A method of optically capturing and inspecting an organic semiconductor thin film transistor (TFT) array, the method comprising: short-circuiting a source and a drain in each organic TFT , turning on and turning off a voltage at a predetermined period between the short-circuit between the source and the drain and a gate , and capturing images of the TFT array before and after application of the voltage in synchronization with the predetermined period while radiating monochromatic light, to obtain a differential image of the TFT array.
Method for preparing grass fibres, in particular for preparing a fibre material mixture which contains grass fibres having the steps of: - preparing a fibre suspension comprising a predetermined proportion of at least two fibre material types, wherein the first fibre material type are grass fibres and the second fibre material type is selected from a group of grinding-resistant fibre materials which comprises chemical pulp such as, for example, sulphate pulp or sulphite pulp, each based on long fibre wood or short fibre wood, wood pulp and synthetic fibres, - mixtures and/or sources of the fibres in the fibre material suspension under predetermined conditions with respect to material density and temperature, - common grinding of the at least two fibre material types in a fibre material suspension, the proportion of the second fibre material type in the dry mass is between 10% and 50%, preferably between 20% and 40% and in particular 30%, wherein the grinding resistance of the second fibre material type as a ratio of the specific grinding edge load in kWh/t and the specific fibre material strength in kmRI and/or drainage capacity in °SR is at least 10%, preferably 50% higher than the grinding resistance of the first fibre material type. - preparing a fibre suspension comprising a predetermined proportion of at least two fibre material types, wherein the first fibre material type are grass fibres and the second fibre material type is selected from a group of grinding-resistant fibre materials which comprises chemical pulp such as, for example, sulphate pulp or sulphite pulp, each based on long fibre wood or short fibre wood, wood pulp and synthetic fibres, the first fibre material type are grass fibres and the second fibre material type is selected from a group of grinding-resistant fibre materials which comprises chemical pulp such as, for example, sulphate pulp or sulphite pulp, each based on long fibre wood or short fibre wood, wood pulp and synthetic fibres, - mixtures and/or sources of the fibres in the fibre material suspension under predetermined conditions with respect to material density and temperature, - common grinding of the at least two fibre material types in a fibre material suspension,
A method for enabling angle-based positioning of a wireless device in a Wireless Local Area Network, WLAN, system , wherein said method comprises the steps of: - extracting (S30) directional information from beamforming information comprised in channel sounding feedback obtained from a wireless device , said beamforming information containing quantized angle information related to a beamforming matrix; - estimating (S40) an angular direction to said wireless device based on said extracted directional information, and - said extracting (S30) directional information comprising reconstructing said beamforming matrix based on said quantized angle information, characterized in that said extracting (S30) directional information comprises reducing said reconstructed beamforming matrix to a precoding vector; and said estimating (S40) an angular direction to said wireless device comprises calculating an Angle of Arrival, AoA, based on said precoding vector, wherein said precoding vector is used to compensate, at said wireless device , a phase difference which is created from a path difference between signals transmitted on two antennas of the WLAN system . - extracting (S30) directional information from beamforming information comprised in channel sounding feedback obtained from a wireless device , said beamforming information containing quantized angle information related to a beamforming matrix; - estimating (S40) an angular direction to said wireless device based on said extracted directional information, and - said extracting (S30) directional information comprising reconstructing said beamforming matrix based on said quantized angle information, characterized in that said extracting (S30) directional information comprises reducing said reconstructed beamforming matrix to a precoding vector; and said estimating (S40) an angular direction to said wireless device comprises calculating an Angle of Arrival, AoA, based on said precoding vector, wherein said precoding vector is used to compensate, at said wireless device , a phase difference which is created from a path difference between signals transmitted on two antennas of the WLAN system .
A secondary battery comprising: an electrode assembly comprising a first electrode plate and a second electrode plate, and electrode uncoated portions protruding at opposite sides of the electrode assembly; a case accommodating the electrode assembly; a current collector comprising a first electrode connecting portion located at a region corresponding to an electrode uncoated portion of the electrode uncoated portions , a coupling groove in a surface of the first electrode connecting portion , and a terminal connecting portion bent from the first electrode connecting portion and extending to be disposed over the electrode assembly ; and a sub-tab comprising a first region coupled to the coupling groove , and a second region bent from the first region and connected to the electrode uncoated portion , wherein the first electrode connecting portion comprises a first surface facing a side surface of the electrode assembly , the side surface comprising the electrode uncoated portion extending therefrom, and a second surface opposite to the first surface and facing the case, wherein the coupling groove is located in the first surface , and wherein the second region of the sub-tab is coupled to the second surface of the first electrode connecting portion , and wherein the first region of the sub-tab , the first electrode connecting portion , the second region of the sub-tab , and the first electrode uncoated portion are arranged in that order between the electrode assembly and the case . an electrode assembly comprising a first electrode plate and a second electrode plate, and electrode uncoated portions protruding at opposite sides of the electrode assembly; a case accommodating the electrode assembly; a current collector comprising a first electrode connecting portion located at a region corresponding to an electrode uncoated portion of the electrode uncoated portions , a coupling groove in a surface of the first electrode connecting portion , and a terminal connecting portion bent from the first electrode connecting portion and extending to be disposed over the electrode assembly ; and a sub-tab comprising a first region coupled to the coupling groove , and a second region bent from the first region and connected to the electrode uncoated portion , wherein the first electrode connecting portion comprises a first surface facing a side surface of the electrode assembly , the side surface comprising the electrode uncoated portion extending therefrom, and a second surface opposite to the first surface and facing the case, wherein the coupling groove is located in the first surface , and wherein the second region of the sub-tab is coupled to the second surface of the first electrode connecting portion , and wherein the first region of the sub-tab , the first electrode connecting portion , the second region of the sub-tab , and the first electrode uncoated portion are arranged in that order between the electrode assembly and the case .
A cell handover method, wherein the method is applied to a network handover in a satellite scenario of a satellite communication system comprising satellite base stations, the method comprising: obtaining (S101), by a first network device of a first cell, user information of a terminal device, wherein the first network device is a satellite base station of a non-geostationary orbit, and wherein the first cell is a first satellite cell and is a current serving cell accessed by the terminal device; determining (S102), by the first network device, handover information of the terminal device based on the user information and running information of the first network device, wherein the handover information is used to indicate the terminal device to perform N consecutive cell handovers, and N is a positive integer; and sending (S103), by the first network device, a radio resource control RRC message to the terminal device, wherein the RRC message comprises the handover information; and wherein the user information comprises at least one of the following: geographic location information of the terminal device, service type information of the terminal device, terminal capability information of the terminal device, and movement status information of the terminal device; and the running information comprises: location information of the first network device and neighboring cell information of the first cell, and wherein the location information of the first network device and neighboring cell information of the first cell is used to predict a running track of the first network device. obtaining (S101), by a first network device of a first cell, user information of a terminal device, wherein the first network device is a satellite base station of a non-geostationary orbit, and wherein the first cell is a first satellite cell and is a current serving cell accessed by the terminal device; determining (S102), by the first network device, handover information of the terminal device based on the user information and running information of the first network device, wherein the handover information is used to indicate the terminal device to perform N consecutive cell handovers, and N is a positive integer; and sending (S103), by the first network device, a radio resource control RRC message to the terminal device, wherein the RRC message comprises the handover information; and wherein the user information comprises at least one of the following: geographic location information of the terminal device, service type information of the terminal device, terminal capability information of the terminal device, and movement status information of the terminal device; and the running information comprises: location information of the first network device and neighboring cell information of the first cell, and wherein the location information of the first network device and neighboring cell information of the first cell is used to predict a running track of the first network device.