mhurhangee/patent-ind-claim-en huggingface dataset:
A steel weld metal composition characterized by : from 10.75 to 12.00 wt% Cr, from 0.09 to 0.13 wt% C, from 0.2 to 0.5 wt% Mn, from 0.1 to 0.3 wt% Si, from 0.2 to 0.7 wt% Ni, from 0.1 to 0.5 wt% Mo, from 0.8 to 1.2 wt% Co, from 0.03 to 0.08 wt% Nb, from 0.8 to 1.2 wt% W, from 0.3 to 0.8 wt% Cu, from 0.10 to 0.15 wt% V, from 0.01 to 0.05 wt% Ti, from 0.005 to 0.010 wt% B, and from 0.005 to 0.015 wt% N, wherein the balance of the steel weld metal composition is iron and unavoidable impurities. from 10.75 to 12.00 wt% Cr, from 0.09 to 0.13 wt% C, from 0.2 to 0.5 wt% Mn, from 0.1 to 0.3 wt% Si, from 0.2 to 0.7 wt% Ni, from 0.1 to 0.5 wt% Mo, from 0.8 to 1.2 wt% Co, from 0.03 to 0.08 wt% Nb, from 0.8 to 1.2 wt% W, from 0.3 to 0.8 wt% Cu, from 0.10 to 0.15 wt% V, from 0.01 to 0.05 wt% Ti, from 0.005 to 0.010 wt% B, and from 0.005 to 0.015 wt% N, wherein the balance of the steel weld metal composition is iron and unavoidable impurities.
A filler of a container for rod-like articles (R) of the tobacco industry for loading a container from above comprising: a hopper for containing rod-like articles (R), a filling unit which changes, during operation, its configuration between a closed configuration, in which the flow of rod-like articles (R) is blocked and an open configuration which enables the flow of rod-like articles (R), for loading the container with rod-like articles (R), a loading region for loading an empty container located below the filling unit , characterized in that the filler comprises movable support means , located below the loading region of an empty container , adapted to insert support surfaces for supporting rod-like articles (R) from below into the chamber of the container through the oblong openings in the bottom of the chamber of the container . a hopper for containing rod-like articles (R), a filling unit which changes, during operation, its configuration between a closed configuration, in which the flow of rod-like articles (R) is blocked and an open configuration which enables the flow of rod-like articles (R), for loading the container with rod-like articles (R), a loading region for loading an empty container located below the filling unit , characterized in that the filler comprises movable support means , located below the loading region of an empty container , adapted to insert support surfaces for supporting rod-like articles (R) from below into the chamber of the container through the oblong openings in the bottom of the chamber of the container .
An implantable prosthetic valve assembly (10; 170; 250) comprising: a collapsible and expandable frame having a plurality of spaced struts that extend from a first end of the frame to a second end of the frame and define an outer periphery of the frame having an outermost surface ; a prosthetic valve (14; 174; 254) secured within the collapsible and expandable frame by sutures that are inward of the outermost surface (41; 194; 224) of the periphery. a collapsible and expandable frame having a plurality of spaced struts that extend from a first end of the frame to a second end of the frame and define an outer periphery of the frame having an outermost surface ; a prosthetic valve (14; 174; 254) secured within the collapsible and expandable frame by sutures that are inward of the outermost surface (41; 194; 224) of the periphery.
A method, performed by a user equipment, UE, in communication with a network node in a radio access network, RAN, the method comprising: receiving , from the network node, an indication that a minimum scheduling offset, between a scheduling physical downlink control channel, PDCCH, and a signal or channel scheduled via the scheduling PDCCH, will change after a first duration; subsequently monitoring , during the first duration, for a scheduling PDCCH based on a first operating configuration; and in response to the end of the first duration, monitoring for a scheduling PDCCH based on a second operating configuration. receiving , from the network node, an indication that a minimum scheduling offset, between a scheduling physical downlink control channel, PDCCH, and a signal or channel scheduled via the scheduling PDCCH, will change after a first duration; subsequently monitoring , during the first duration, for a scheduling PDCCH based on a first operating configuration; and in response to the end of the first duration, monitoring for a scheduling PDCCH based on a second operating configuration.
A computer-implemented method for updating a terminal comprising a secure element, wherein a OTA platform receives at least a location data reflecting the location of the terminal and a request for downloading a list of preferred networks in the terminal, wherein the OTA platform receives from a Steering of Roaming device a set of lists of preferred networks, characterized in that the method comprises: i) the OTA platform receives from the Steering of Roaming device a group of weighting factors (SP1, SP2, SP3), each list of said set having one weighting factor of said group attached to it, ii) the OTA platform selects one list of preferred networks from the set by using a selection function (S) taking into account at least the location data, a random value and the weighting factors attached to the lists of said set, iii) by enciphering the selected list, the OTA platform generates an enciphered list of preferred networks and sends over the air the enciphered list to the terminal. i) the OTA platform receives from the Steering of Roaming device a group of weighting factors (SP1, SP2, SP3), each list of said set having one weighting factor of said group attached to it, ii) the OTA platform selects one list of preferred networks from the set by using a selection function (S) taking into account at least the location data, a random value and the weighting factors attached to the lists of said set, iii) by enciphering the selected list, the OTA platform generates an enciphered list of preferred networks and sends over the air the enciphered list to the terminal.
An information processing device comprising: an information acquisition unit configured to acquire action information indicating a detected action of a user; and a content providing unit configured to recognize an environmental state of the user on a basis of an image capturing a periphery of the user; predict a spatial sequence of actions on a basis of the environmental state of the user; provide content that develops in accordance with a temporal or spatial sequence of the action, wherein the content providing unit provides content in which a position (1103; 1203) included in the spatial sequence and a task action to be detected at the position are designated; present a screen including objects displaying the position (1103; 1203) and the task action to the user by superimposing the screen on a real space (R) in which the action occurs; and determine whether or not the user has succeeded in the designated action at the position set for the task action. an information acquisition unit configured to acquire action information indicating a detected action of a user; and a content providing unit configured to recognize an environmental state of the user on a basis of an image capturing a periphery of the user; predict a spatial sequence of actions on a basis of the environmental state of the user; provide content that develops in accordance with a temporal or spatial sequence of the action, wherein the content providing unit provides content in which a position (1103; 1203) included in the spatial sequence and a task action to be detected at the position are designated; present a screen including objects displaying the position (1103; 1203) and the task action to the user by superimposing the screen on a real space (R) in which the action occurs; and determine whether or not the user has succeeded in the designated action at the position set for the task action. recognize an environmental state of the user on a basis of an image capturing a periphery of the user; predict a spatial sequence of actions on a basis of the environmental state of the user; provide content that develops in accordance with a temporal or spatial sequence of the action, wherein the content providing unit provides content in which a position (1103; 1203) included in the spatial sequence and a task action to be detected at the position are designated; present a screen including objects displaying the position (1103; 1203) and the task action to the user by superimposing the screen on a real space (R) in which the action occurs; and determine whether or not the user has succeeded in the designated action at the position set for the task action.
A method for writing a datum (Data1; Data2; Data4) in memory, in which: - a binary word (Code1; Code2; Code4), representative of said datum (Data1; Data2; Data4) and an error correcting or detecting code (EDC1; EDC2; EDC4), is formed then split into at least a first part and a second part (Code1A, Code1B; Code2A, Code2B; Code4A, Code4B); and - said first part (Code1A; Code2A; Code4A) is written at a logical address (AddL1; AddL2; AddL4) in a first memory circuit (105; 206; 409); and - said second part (Code1B; Code2B; Code4B) is written at said logical address in a second memory circuit (106; 207; 410) configured to store as many binary words as said first memory circuit (105; 206; 409), said error correcting or detecting code (EDC1; EDC2; EDC4) being dependent on said datum (Data1; Data2; Data4) and said address (AddL1; AddL2; AddL4). - a binary word (Code1; Code2; Code4), representative of said datum (Data1; Data2; Data4) and an error correcting or detecting code (EDC1; EDC2; EDC4), is formed then split into at least a first part and a second part (Code1A, Code1B; Code2A, Code2B; Code4A, Code4B); and - said first part (Code1A; Code2A; Code4A) is written at a logical address (AddL1; AddL2; AddL4) in a first memory circuit (105; 206; 409); and - said second part (Code1B; Code2B; Code4B) is written at said logical address in a second memory circuit (106; 207; 410) configured to store as many binary words as said first memory circuit (105; 206; 409),
A display device comprising: a substrate ; a pixel (SP) including a driving thin film transistor (T2) on the substrate ; a first layer covering the pixel (SP); a concave portion in the first layer ; a light emitting device in the concave portion , the light emitting device including a first electrode (E1) and a second electrode (E2); a second layer covering the first layer and the light emitting device ; a pixel electrode (AE) electrically connected to the driving thin film transistor (T2)and the first electrode (E1) of the light emitting device ; and a common electrode (CE) electrically connected to the second electrode (E2) of the light emitting device , wherein the light emitting device is a light emitting diode device or a light emitting diode chip, characterized in that the pixel electrode (AE) is on the second layer . a substrate ; a pixel (SP) including a driving thin film transistor (T2) on the substrate ; a first layer covering the pixel (SP); a concave portion in the first layer ; a light emitting device in the concave portion , the light emitting device including a first electrode (E1) and a second electrode (E2); a second layer covering the first layer and the light emitting device ; a pixel electrode (AE) electrically connected to the driving thin film transistor (T2)and the first electrode (E1) of the light emitting device ; and a common electrode (CE) electrically connected to the second electrode (E2) of the light emitting device , wherein the light emitting device is a light emitting diode device or a light emitting diode chip, characterized in that the pixel electrode (AE) is on the second layer .
An engaging state detection system of steps and comb plates of a passenger conveyor, comprising: a depth sensing sensor configured to sense at least an engaging portion between a step and a comb plate of the passenger conveyor to obtain three-dimensional depth maps; and a processing apparatus configured to analyze the three-dimensional depth maps to detect whether the engaging state between the step and the comb plate is a normal state, the processing apparatus comprising: a background acquisition module configured to acquire a background model based on three-dimensional depth maps sensed when the passenger conveyor has no load and the engaging state is a normal state; a foreground detection module configured to compare an occupation grid of a three-dimensional depth map sensed in real time with the corresponding occupation grid of the background model and when the difference is greater than a predetermined value retaining depth information of the occupation grid, to obtain a foreground object; and an engaging state judgment module configured to process data at least based on the foreground object to judge whether the engaging state is a normal state. a depth sensing sensor configured to sense at least an engaging portion between a step and a comb plate of the passenger conveyor to obtain three-dimensional depth maps; and a processing apparatus configured to analyze the three-dimensional depth maps to detect whether the engaging state between the step and the comb plate is a normal state, the processing apparatus comprising: a background acquisition module configured to acquire a background model based on three-dimensional depth maps sensed when the passenger conveyor has no load and the engaging state is a normal state; a foreground detection module configured to compare an occupation grid of a three-dimensional depth map sensed in real time with the corresponding occupation grid of the background model and when the difference is greater than a predetermined value retaining depth information of the occupation grid, to obtain a foreground object; and an engaging state judgment module configured to process data at least based on the foreground object to judge whether the engaging state is a normal state. a background acquisition module configured to acquire a background model based on three-dimensional depth maps sensed when the passenger conveyor has no load and the engaging state is a normal state; a foreground detection module configured to compare an occupation grid of a three-dimensional depth map sensed in real time with the corresponding occupation grid of the background model and when the difference is greater than a predetermined value retaining depth information of the occupation grid, to obtain a foreground object; and an engaging state judgment module configured to process data at least based on the foreground object to judge whether the engaging state is a normal state.
A curable two-component resin-based system, comprising (a) a resin component, comprising (i) at least one epoxy resin, (ii) a block-copolymer comprising silicone and organic blocks, (iii) a silane, and (iv) a filler comprising aluminium oxide and wollastonite, and (b) a hardener component, comprising at least one polyoxyalkylene polyamine, wherein the curable system contains in total > 60 wt% filler with a ratio of wollastonite to aluminium oxide of 50 to 75 wt% wollastonite and 25 to 50 wt% aluminium oxide, and wherein the hardener component (b) does not comprise any anhydride. (a) a resin component, comprising (i) at least one epoxy resin, (ii) a block-copolymer comprising silicone and organic blocks, (iii) a silane, and (iv) a filler comprising aluminium oxide and wollastonite, and (b) a hardener component, comprising at least one polyoxyalkylene polyamine,
A sending node that is operable to provide a representation of at least one resource, wherein the resource comprises a sensor measurement, and wherein the representation is operable for transmission using an Internet of Things, loT, transfer Protocol, the sending node comprising processing circuitry configured to: generate a representation of the resource according to a data model ; the sending node characterized in that the processing circuitry is configured to: generate a Real-time Transport Protocol, RTP, data packet, wherein the RTP data packet comprises the generated representation of the resource by: mapping information from at least one field in the representation to a header field of the RTP data packet by mapping information from a time field of the representation to a timestamp field of the RTP data packet ; and send the generated RTP packet to a receiving node . generate a representation of the resource according to a data model ; the sending node characterized in that the processing circuitry is configured to: generate a Real-time Transport Protocol, RTP, data packet, wherein the RTP data packet comprises the generated representation of the resource by: mapping information from at least one field in the representation to a header field of the RTP data packet by mapping information from a time field of the representation to a timestamp field of the RTP data packet ; and send the generated RTP packet to a receiving node .
Method for transferring a useful layer to a carrier substrate , including the successive steps of: a) providing a donor substrate comprising a first surface ; b) smoothing the first surface of the donor substrate until a reconstructed surface topology comprising a succession of atomic planes having a principal crystal orientation ( o ) forming an angle (α) of disorientation of less than 5° with the normal ( n ) to the middle surface (S moy ) is obtained; c) forming a first dielectric film on the smoothed first surface of the donor substrate , in such a way that the first dielectric film has a surface that preserves the reconstructed surface topology; d) implanting gaseous species into the donor substrate , through the first dielectric film , so as to form a weakened zone (ZS), the useful layer being delimited by the weakened zone (ZS) and by the first surface of the donor substrate ; e) joining the donor substrate to the carrier substrate by direct bonding; f) splitting the donor substrate along the weakened zone (ZS) so as to expose the useful layer . a) providing a donor substrate comprising a first surface ; b) smoothing the first surface of the donor substrate until a reconstructed surface topology comprising a succession of atomic planes having a principal crystal orientation ( o ) forming an angle (α) of disorientation of less than 5° with the normal ( n ) to the middle surface (S moy ) is obtained; c) forming a first dielectric film on the smoothed first surface of the donor substrate , in such a way that the first dielectric film has a surface that preserves the reconstructed surface topology; d) implanting gaseous species into the donor substrate , through the first dielectric film , so as to form a weakened zone (ZS), the useful layer being delimited by the weakened zone (ZS) and by the first surface of the donor substrate ; e) joining the donor substrate to the carrier substrate by direct bonding; f) splitting the donor substrate along the weakened zone (ZS) so as to expose the useful layer .
A power transmission apparatus comprising: a battery ; an engine configured to be set to a torque characteristic line; a motor generator configured to be switchable between a driving state where an input and output shaft is rotated based on supply of electric power from the battery and a power generation state where electric power is generated by rotating the input and output shaft based on motive power from the engine, and the battery is charged; at least a load configured to be driven by the engine and/or the motor generator; a switching means configured to switch the motor generator to any of the driving state and the power generation state; a charging state detecting means configured to detect a charged amount of the battery; an absorbing horsepower detecting means configured to detect absorbing horsepower of the load; a control device configured to switch the motor generator to any of the power generation state and the driving state by means of the switching means , based on the absorbing horsepower detected by the absorbing horsepower detecting means and the charged amount of the battery that is detected by the charging state detecting means , wherein when the absorbing horsepower of the load is equal to or higher than a switching output threshold the motor generator is switched into the driving state; and the power transmission apparatus being configured to change the torque characteristic line of the engine in a direction that a rated output is decreased. a battery ; an engine configured to be set to a torque characteristic line; a motor generator configured to be switchable between a driving state where an input and output shaft is rotated based on supply of electric power from the battery and a power generation state where electric power is generated by rotating the input and output shaft based on motive power from the engine, and the battery is charged; at least a load configured to be driven by the engine and/or the motor generator; a switching means configured to switch the motor generator to any of the driving state and the power generation state; a charging state detecting means configured to detect a charged amount of the battery; an absorbing horsepower detecting means configured to detect absorbing horsepower of the load; a control device configured to switch the motor generator to any of the power generation state and the driving state by means of the switching means , based on the absorbing horsepower detected by the absorbing horsepower detecting means and the charged amount of the battery that is detected by the charging state detecting means , wherein when the absorbing horsepower of the load is equal to or higher than a switching output threshold the motor generator is switched into the driving state; and the power transmission apparatus being configured to change the torque characteristic line of the engine in a direction that a rated output is decreased.
A semiconductor die comprising at least a first light-emitting diode (L1) and a second light-emitting diode (L2), wherein - the first light-emitting diode (L1) comprises a first diode (D1) formed in a first die area (A1) and a first phosphor layer (P1) deposited over the first die area (A1); - the second light-emitting diode (L2) comprises a second diode (D2) and a second phosphor layer (P2) deposited over the second die area (A2); - the first diode (D1) and the second diode (D2) are electrically connected in anti-parallel; and characterized in that - the optical properties of the second phosphor layer (P2) differ from the optical properties of the first phosphor layer (P1). - the first light-emitting diode (L1) comprises a first diode (D1) formed in a first die area (A1) and a first phosphor layer (P1) deposited over the first die area (A1); - the second light-emitting diode (L2) comprises a second diode (D2) and a second phosphor layer (P2) deposited over the second die area (A2); - the first diode (D1) and the second diode (D2) are electrically connected in anti-parallel; and characterized in that - the optical properties of the second phosphor layer (P2) differ from the optical properties of the first phosphor layer (P1).