mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission system comprising: a management system configured to manage a video conference service in which data is transmitted among a plurality of transmission terminals , the plurality of transmission terminals comprising a first transmission terminal , a second transmission terminal and a destination transmission terminal, wherein the transmission system further comprises the first transmission terminal , and the second transmission terminal , wherein the second transmission terminal includes an accepting unit configured to accept a destination selection and a transmission unit configured to transmit to the first transmission terminal information of the selected destination and login information for using the video conference service by using a personal account of the second transmission terminal , wherein the first transmission terminal includes a receiving unit configured to receive from the second transmission terminal the destination information and the login information, a unit configured to log in with the personal account of the second transmission terminal in order to use the video conference service, and a starting unit configured to start a communication with the destination transmission terminal by using the received destination information, wherein the transmission unit of the second transmission terminal identifies the first transmission terminal by taking an image of an identification code of the first transmission terminal displayed on a screen of the first transmission terminal , and performs transmission to the identified first transmission terminal . a management system configured to manage a video conference service in which data is transmitted among a plurality of transmission terminals , the plurality of transmission terminals comprising a first transmission terminal , a second transmission terminal and a destination transmission terminal, wherein the transmission system further comprises the first transmission terminal , and the second transmission terminal , wherein the second transmission terminal includes an accepting unit configured to accept a destination selection and a transmission unit configured to transmit to the first transmission terminal information of the selected destination and login information for using the video conference service by using a personal account of the second transmission terminal , wherein the first transmission terminal includes a receiving unit configured to receive from the second transmission terminal the destination information and the login information, a unit configured to log in with the personal account of the second transmission terminal in order to use the video conference service, and a starting unit configured to start a communication with the destination transmission terminal by using the received destination information, wherein the transmission unit of the second transmission terminal identifies the first transmission terminal by taking an image of an identification code of the first transmission terminal displayed on a screen of the first transmission terminal , and performs transmission to the identified first transmission terminal .
A method of broadcasting an advertisement event by a broadcasting device , on a wireless channel, the method comprising: generating, by a packetizer , based on data, a data signal comprising one or more data packets , wherein each of the one or more data packets is a non-connectable data packet ; generating a plurality of RF signals of different frequencies using a single oscillator circuit and a single chip separate from the single oscillator circuit, wherein the single chip comprises (i) a plurality of thin-film bulk acoustic resonators (602a-c, 622a-c), FBARs, where each of the resonators has a resonant frequency different from the other resonators, (ii) a first contact pad coupled to each FBAR of the plurality of FBAR (602a-c, 622a-c), , wherein the first contact pad is coupled to a ground of the single oscillator circuit such that each FBAR of the plurality of FBARs is coupled to the ground of the single oscillator circuit via the first contact pad , and (iii) a plurality of second contact pads , wherein each of the plurality of second contact pads is coupled to a respective FBAR of the plurality of FBARs; wherein the second contact pads are selectively coupled to the single oscillator circuit; directly modulating at least one of the plurality of RF signals, based on the data signal, to generate a modulated RF signal; amplifying by a power amplifier , the modulated RF signal; and broadcasting by an antenna, the amplified modulated RF signal on the wireless channel, wherein the amplified modulated RF signal is associated with the advertisement event. generating, by a packetizer , based on data, a data signal comprising one or more data packets , wherein each of the one or more data packets is a non-connectable data packet ; generating a plurality of RF signals of different frequencies using a single oscillator circuit and a single chip separate from the single oscillator circuit, wherein the single chip comprises (i) a plurality of thin-film bulk acoustic resonators (602a-c, 622a-c), FBARs, where each of the resonators has a resonant frequency different from the other resonators, (ii) a first contact pad coupled to each FBAR of the plurality of FBAR (602a-c, 622a-c), , wherein the first contact pad is coupled to a ground of the single oscillator circuit such that each FBAR of the plurality of FBARs is coupled to the ground of the single oscillator circuit via the first contact pad , and (iii) a plurality of second contact pads , wherein each of the plurality of second contact pads is coupled to a respective FBAR of the plurality of FBARs; wherein the second contact pads are selectively coupled to the single oscillator circuit; directly modulating at least one of the plurality of RF signals, based on the data signal, to generate a modulated RF signal; amplifying by a power amplifier , the modulated RF signal; and broadcasting by an antenna, the amplified modulated RF signal on the wireless channel, wherein the amplified modulated RF signal is associated with the advertisement event.
A polishing composition comprising: at least one abrasive; at least one nitride removal rate reducing agent comprising a hydrophobic portion and a hydrophilic portion; wherein the hydrophobic portion comprises a C 12 to C 40 hydrocarbon group and is separated by zero to ten alkylene oxide groups from the hydrophilic portion; an acid or a base; and water; wherein the polishing composition has a pH of 2 to 6.5; wherein the hydrophilic portion comprises at least one group selected from the group consisting of a sulfinite group, a sulfate group, a carboxylate group, a phosphate group, and a phosphonate group; and wherein the polishing composition has a ratio of a removal rate for a silicon oxide to a removal rate for a silicon nitride of at least 3:1 when polishing a patterned wafer comprising at least silicon nitride patterns overlayed with at least silicon oxide. at least one abrasive; at least one nitride removal rate reducing agent comprising a hydrophobic portion and a hydrophilic portion; wherein the hydrophobic portion comprises a C 12 to C 40 hydrocarbon group and is separated by zero to ten alkylene oxide groups from the hydrophilic portion; an acid or a base; and water; wherein the polishing composition has a pH of 2 to 6.5; wherein the hydrophilic portion comprises at least one group selected from the group consisting of a sulfinite group, a sulfate group, a carboxylate group, a phosphate group, and a phosphonate group; and wherein the polishing composition has a ratio of a removal rate for a silicon oxide to a removal rate for a silicon nitride of at least 3:1 when polishing a patterned wafer comprising at least silicon nitride patterns overlayed with at least silicon oxide.
An electrochemical hydrogen pump comprising: at least one hydrogen pump unit that includes an electrolyte membrane , an anode (AN) disposed on a first main surface of the electrolyte membrane , a cathode (CA) disposed on a second main surface of the electrolyte membrane , an anode separator stacked on the anode (AN), and a cathode separator stacked on the cathode (CA); an anode end plate that is disposed on the anode separator positioned in a first end in a stacking direction; a cathode end plate that is disposed on the cathode separator positioned in a second end in the stacking direction, the first end being one end in the stacking direction, the second end being another end in the stacking direction; a fixing member configured to prevent at least members from the cathode end plate to the cathode separator positioned in the second end from moving in the stacking direction; characterized by a first gas flow channel through which hydrogen generated in the cathode (CA) is supplied to a first space disposed between the cathode end plate and the cathode separator positioned in the second end; and a first pressure transmitting member that is disposed in the first space and configured to transmit a pressure from the cathode separator positioned in the second end to the cathode end plate . at least one hydrogen pump unit that includes an electrolyte membrane , an anode (AN) disposed on a first main surface of the electrolyte membrane , a cathode (CA) disposed on a second main surface of the electrolyte membrane , an anode separator stacked on the anode (AN), and a cathode separator stacked on the cathode (CA); an anode end plate that is disposed on the anode separator positioned in a first end in a stacking direction; a cathode end plate that is disposed on the cathode separator positioned in a second end in the stacking direction, the first end being one end in the stacking direction, the second end being another end in the stacking direction; a fixing member configured to prevent at least members from the cathode end plate to the cathode separator positioned in the second end from moving in the stacking direction; characterized by a first gas flow channel through which hydrogen generated in the cathode (CA) is supplied to a first space disposed between the cathode end plate and the cathode separator positioned in the second end; and a first pressure transmitting member that is disposed in the first space and configured to transmit a pressure from the cathode separator positioned in the second end to the cathode end plate .
An arrangement for influencing and/or detecting magnetic particles in a region of action , which arrangement comprises: - selection means for generating a magnetic selection field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength and a second sub-zone having a higher magnetic field strength are formed in the region of action , - drive means for changing the position in space of the two sub-zones in the region of action by means of a magnetic drive field so that the magnetization of the magnetic particles changes locally, - receiving means for acquiring signals, which signals depend on the magnetization in the region of action , which magnetization is influenced by the change in the position in space of the first and second sub-zone , wherein the receiving means comprises a first compensation means and a second compensation means , wherein at least the second compensation means is positioned in an adjustable manner and/or wherein the first compensation means is positioned in a greater proximity of at least a part of the drive means than the second compensation means. - selection means for generating a magnetic selection field having a pattern in space of its magnetic field strength such that a first sub-zone having a low magnetic field strength and a second sub-zone having a higher magnetic field strength are formed in the region of action , - drive means for changing the position in space of the two sub-zones in the region of action by means of a magnetic drive field so that the magnetization of the magnetic particles changes locally, - receiving means for acquiring signals, which signals depend on the magnetization in the region of action , which magnetization is influenced by the change in the position in space of the first and second sub-zone ,
An information processing device which is connectable through a network to a terminal device used by a worker who checks a device installed in a plant, comprising: a collector configured to collect, from the terminal device , first historical data representing at least one of data representing an operation performed to the terminal device by the worker, data representing an environmental value of the plant, and data representing biological information of the worker; a storage which stores second historical data representing historical data collected from the terminal device by the collector in the past; and characterized by further comprising a proposer configured to compare the first historical data collected by the collector and the second historical data stored in the storage , the proposer being configured to propose an operation which should be performed to the terminal device based on a difference between the first historical data and the second historical data. a collector configured to collect, from the terminal device , first historical data representing at least one of data representing an operation performed to the terminal device by the worker, data representing an environmental value of the plant, and data representing biological information of the worker; a storage which stores second historical data representing historical data collected from the terminal device by the collector in the past; and characterized by further comprising a proposer configured to compare the first historical data collected by the collector and the second historical data stored in the storage , the proposer being configured to propose an operation which should be performed to the terminal device based on a difference between the first historical data and the second historical data.
Artificial turf for a sports field comprising a support layer and tufts formed by a multi-filament ribbon penetrating the support layer , wherein at least some tufts comprise filaments of a first color and filaments of a second color , wherein the first color is a field color, and the second color is a line-marking color, the first and the second color being obviously different; characterized in that the tufts comprising filaments of a first color and filaments of a second color are arranged to form a line of predetermined width, wherein the width of the line is 8 cm to 14 cm, preferably 10 cm to 12 cm.
A reflective array antenna, comprising: a feed array , a secondary reflective surface disposed on one side of the feed array , and a primary reflective array disposed on the other side that is of the feed array and that is opposite to the secondary reflective surface , wherein the feed array is configured to emit an electromagnetic wave in a first polarization direction; the secondary reflective surface is configured to reflect the electromagnetic wave in the first polarization direction emitted by the feed array , and allows an electromagnetic wave in a second polarization direction to penetrate, wherein the first polarization direction is perpendicular to the second polarization direction; and the primary reflective array is configured to: convert the electromagnetic wave in the first polarization direction reflected by the secondary reflective surface into the electromagnetic wave in the second polarization direction and reflect the electromagnetic wave in the second polarization direction; wherein the secondary reflective surface comprises a substrate and a single polarization slot array provided on the substrate , and each slot allows the electromagnetic wave in the second polarization direction to penetrate; wherein phase retardation of the slots in an arrangement direction from a center to an edge of the secondary reflective surface gradually decreases. the feed array is configured to emit an electromagnetic wave in a first polarization direction; the secondary reflective surface is configured to reflect the electromagnetic wave in the first polarization direction emitted by the feed array , and allows an electromagnetic wave in a second polarization direction to penetrate, wherein the first polarization direction is perpendicular to the second polarization direction; and the primary reflective array is configured to: convert the electromagnetic wave in the first polarization direction reflected by the secondary reflective surface into the electromagnetic wave in the second polarization direction and reflect the electromagnetic wave in the second polarization direction; wherein the secondary reflective surface comprises a substrate and a single polarization slot array provided on the substrate , and each slot allows the electromagnetic wave in the second polarization direction to penetrate; wherein phase retardation of the slots in an arrangement direction from a center to an edge of the secondary reflective surface gradually decreases.
A method for identifying and isolating network performance issues throughout an Over-The-Top, OTT, media service delivery path including: selecting and configuring (S1) all test agents forming an OTT media service delivery path in a network, wherein the test agents are deployed on devices in the network with pairs of agents in a client-server relationship; for each selected test agent, simulating (S2) a Hyper Text Transport Protocol, HTTP, Adaptive Streaming, HAS, media playback using a pair test agent as a HAS server; for each selected test agent, monitoring (S3) the HAS media playback via a Quality of Experience, QoE, model to collect metrics, influence factors, and QoE scores, wherein the influence factors are at least one of a) number of stalling events, b) total duration of stalling events, c) average interval between stalling events, d) length of content; and reporting (S4) collected metrics, influence factors and QoE scores, wherein the QoE scores are compared to limits to isolate any performance degradation, characterized in that test agents form a Directed Acyclic Graph, DAG, and the OTT media service delivery path traverses the DAG from one leaf to one root and the roots of the DAG are test agents requesting the OTT media from a streaming service server. selecting and configuring (S1) all test agents forming an OTT media service delivery path in a network, wherein the test agents are deployed on devices in the network with pairs of agents in a client-server relationship; for each selected test agent, simulating (S2) a Hyper Text Transport Protocol, HTTP, Adaptive Streaming, HAS, media playback using a pair test agent as a HAS server; for each selected test agent, monitoring (S3) the HAS media playback via a Quality of Experience, QoE, model to collect metrics, influence factors, and QoE scores, wherein the influence factors are at least one of a) number of stalling events, b) total duration of stalling events, c) average interval between stalling events, d) length of content; and reporting (S4) collected metrics, influence factors and QoE scores, wherein the QoE scores are compared to limits to isolate any performance degradation, characterized in that test agents form a Directed Acyclic Graph, DAG, and the OTT media service delivery path traverses the DAG from one leaf to one root and the roots of the DAG are test agents requesting the OTT media from a streaming service server.
A method for manufacturing a cellulose product, comprising the steps: dry forming a cellulose blank in a dry forming unit , wherein when dry forming the cellulose blank in the dry forming unit , cellulose fibres are carried and formed to the cellulose blank by air as carrying medium, wherein the cellulose blank is formed as a continuous cellulose web in the dry forming unit ; arranging the cellulose blank in a forming mould , wherein the forming mould comprises at least two openable and closable negative forming surfaces or parts , wherein the continuous cellulose web is intermittently fed to the forming mould by a feeding unit ; heating the cellulose blank to a forming temperature in the range of 100°C to 200°C; and pressing the cellulose blank in the forming mould with a forming pressure in the range of 1 MPa to 100 MPa, wherein the cellulose blank is formed into a cellulose product having a three-dimensional shape. dry forming a cellulose blank in a dry forming unit , wherein when dry forming the cellulose blank in the dry forming unit , cellulose fibres are carried and formed to the cellulose blank by air as carrying medium, wherein the cellulose blank is formed as a continuous cellulose web in the dry forming unit ; arranging the cellulose blank in a forming mould , wherein the forming mould comprises at least two openable and closable negative forming surfaces or parts , wherein the continuous cellulose web is intermittently fed to the forming mould by a feeding unit ; heating the cellulose blank to a forming temperature in the range of 100°C to 200°C; and pressing the cellulose blank in the forming mould with a forming pressure in the range of 1 MPa to 100 MPa, wherein the cellulose blank is formed into a cellulose product having a three-dimensional shape.
Method for producing an inductive component with the steps of: - providing a basic body (G) comprising a magnetic material (M), - sintering the basic body (G), wherein the sintering is performed at a temperature Ts, where: T S > 1000°C, - comminuting the sintered basic body (Gs) to form sintered particles (P, P 1 , P 2 ), - producing a first mixture (X 1 ) from first sintered particles (P 1 ) and a binder (B 1 ), - arranging the first mixture (X 1 ) and at least one coil in a first mould (F 1 ), - activating the binder (B 1 ) in the first mixture (X 1 ), so that the first sintered particles (P 1 ) form with the binder (B 1 ) a first magnetic core , which at least partially surrounds the at least one coil , - producing a second mixture (X 2 ) from second sintered particles (P 2 ) and a binder (B 2 ), wherein the second sintered particles (P 2 ) are smaller than the first sintered particles (P 1 ), - arranging the second mixture (X 2 ) and the at least one coil with the first magnetic core in a second mould (F 2 ), and - activating the binder (B 2 ) in the second mixture (X 2 ), so that the second sintered particles (P 2 ) form with the binder (B 2 ) a second magnetic core , which surrounds the first magnetic core and the at least one coil completely, apart from terminal contacts . - providing a basic body (G) comprising a magnetic material (M), - sintering the basic body (G), wherein the sintering is performed at a temperature Ts, where: T S > 1000°C, - comminuting the sintered basic body (Gs) to form sintered particles (P, P 1 , P 2 ), - producing a first mixture (X 1 ) from first sintered particles (P 1 ) and a binder (B 1 ), - arranging the first mixture (X 1 ) and at least one coil in a first mould (F 1 ), - activating the binder (B 1 ) in the first mixture (X 1 ), so that the first sintered particles (P 1 ) form with the binder (B 1 ) a first magnetic core , which at least partially surrounds the at least one coil , - producing a second mixture (X 2 ) from second sintered particles (P 2 ) and a binder (B 2 ), wherein the second sintered particles (P 2 ) are smaller than the first sintered particles (P 1 ), - arranging the second mixture (X 2 ) and the at least one coil with the first magnetic core in a second mould (F 2 ), and - activating the binder (B 2 ) in the second mixture (X 2 ), so that the second sintered particles (P 2 ) form with the binder (B 2 ) a second magnetic core , which surrounds the first magnetic core and the at least one coil completely, apart from terminal contacts .