mhurhangee/patent-ind-claim-en huggingface dataset:
Production line for manufacturing extruded plates , in particular for panels for covering a surface of a room, comprising a conveyor for conveying a semifinished product produced as a plate-shaped endless profile along a conveying direction at a defined conveying speed; an edge cutting device for cutting off an edge area of the semifinished product which is lateral with respect to the conveying direction, so that in the conveying direction downstream of the edge cutting device , the semifinished product is formed as a plate-shaped endless base profile with a predefined base plate width extending transversely to the conveying direction; and a separation device for cutting off separated plates from the endless base profile , in particular along a cutting line extending transversely to the conveying direction, characterized in that a distance (D) between the separating device and the edge cutting device in the conveying direction is dimensioned in such a way that between an average temperature T 1 of the semifinished product when the edge area is cut off in the edge cutting device and an average temperature T 2 of the endless base profile during the separation process, there is a temperature difference T 1 -T 2 of 2 K ≤ T 1 -T 2 ≤ 15 K, in particular 4 K ≤ T 1 -T 2 ≤ 10 K and preferably 5 K ≤ T 1 -T 2 ≤ 8 K. a conveyor for conveying a semifinished product produced as a plate-shaped endless profile along a conveying direction at a defined conveying speed; an edge cutting device for cutting off an edge area of the semifinished product which is lateral with respect to the conveying direction, so that in the conveying direction downstream of the edge cutting device , the semifinished product is formed as a plate-shaped endless base profile with a predefined base plate width extending transversely to the conveying direction; and a separation device for cutting off separated plates from the endless base profile , in particular along a cutting line extending transversely to the conveying direction, characterized in that a distance (D) between the separating device and the edge cutting device in the conveying direction is dimensioned in such a way that between an average temperature T 1 of the semifinished product when the edge area is cut off in the edge cutting device and an average temperature T 2 of the endless base profile during the separation process, there is a temperature difference T 1 -T 2 of 2 K ≤ T 1 -T 2 ≤ 15 K, in particular 4 K ≤ T 1 -T 2 ≤ 10 K and preferably 5 K ≤ T 1 -T 2 ≤ 8 K.
An integrated circuit , comprising: - at least three processing units, PU's , each PU comprising an active-part and an interface point , and; - a multi-level metallization comprising: a connection-part of the PU , an interconnection connecting the three PU's at the interface points of each PU , thereby enabling point-to-two-point communication between the three PU's over the interconnection ; characterized in that , the interconnection comprises three interconnect segments and a first three-way switch embedded in the multi-level metallization , the three-way switch being connected to interface point of the three PU's through the three interconnect segments , wherein the interface points , of each of the three PU's with its corresponding interconnect segment form the corners of an acute angle triangle, and wherein the first three-way switch is located in the acute angle triangle. - at least three processing units, PU's , each PU comprising an active-part and an interface point , and; - a multi-level metallization comprising: a connection-part of the PU , an interconnection connecting the three PU's at the interface points of each PU , thereby enabling point-to-two-point communication between the three PU's over the interconnection ;
A system for monitoring an evoked response in a selected muscle due to stimulation of a nerve in a subject, comprising: a motion sensing system configured to sense motion, wherein the motion sensing system includes a motion sensor mounted on a tube assembly , wherein the motion sensor is configured to, in use, sense a motion of at least a first portion of the subject relating to the evoked response; and a monitoring system configured to, (i) receive a motion signal from the motion sensor associated with the tube ; (ii) determine whether an evoked response at the selected muscle is occurring based on the motion signal received from the motion sensor . a motion sensing system configured to sense motion, wherein the motion sensing system includes a motion sensor mounted on a tube assembly , wherein the motion sensor is configured to, in use, sense a motion of at least a first portion of the subject relating to the evoked response; and a monitoring system configured to, (i) receive a motion signal from the motion sensor associated with the tube ; (ii) determine whether an evoked response at the selected muscle is occurring based on the motion signal received from the motion sensor . (i) receive a motion signal from the motion sensor associated with the tube ; (ii) determine whether an evoked response at the selected muscle is occurring based on the motion signal received from the motion sensor .
A base station comprising: a transmit path circuitry configured to transmit an uplink grant in a downlink control information, DCI, format 0B to a subscriber station; and a receive path circuitry configured to receive only uplink control information, UCI, on a physical uplink shared channel, PUSCH, from the subscriber station when the uplink grant includes: a modulation and coding scheme, MCS, of a transport block, TB, with a value of 29; a channel quality information, CQI, request field being set to trigger an aperiodic CQI report; and a total number of physical resource blocks allocated for the subscriber station, N PRB , with a value less than or equal to a first threshold, wherein the first threshold is determined based on a number of downlink component carriers, DL CCs, for which the aperiodic CQI report is reporting. a transmit path circuitry configured to transmit an uplink grant in a downlink control information, DCI, format 0B to a subscriber station; and a receive path circuitry configured to receive only uplink control information, UCI, on a physical uplink shared channel, PUSCH, from the subscriber station when the uplink grant includes: a modulation and coding scheme, MCS, of a transport block, TB, with a value of 29; a channel quality information, CQI, request field being set to trigger an aperiodic CQI report; and a total number of physical resource blocks allocated for the subscriber station, N PRB , with a value less than or equal to a first threshold, a modulation and coding scheme, MCS, of a transport block, TB, with a value of 29; a channel quality information, CQI, request field being set to trigger an aperiodic CQI report; and a total number of physical resource blocks allocated for the subscriber station, N PRB , with a value less than or equal to a first threshold, wherein the first threshold is determined based on a number of downlink component carriers, DL CCs, for which the aperiodic CQI report is reporting.
A chordae tendineae capturing device (30; 930) comprising: a hub component (32; 932); and a plurality of spokes (35; 91-94) attached to the hub component, the spokes (35; 91-94) being configured to: extend radially outward from the hub component (32; 932); and close radially inward over one or more cords (16a, 16b; 76) of chordae tendineae of a heart to wrap around the hub component (32; 932) in a wound spiral configuration and secure the one or more cords (16a, 16b; 76) in proximity to the hub component (32; 932) using a mechanism for ratcheting or collapsing the spokes (35; 91-94) around or towards the hub component (32; 932). a hub component (32; 932); and a plurality of spokes (35; 91-94) attached to the hub component, the spokes (35; 91-94) being configured to: extend radially outward from the hub component (32; 932); and close radially inward over one or more cords (16a, 16b; 76) of chordae tendineae of a heart to wrap around the hub component (32; 932) in a wound spiral configuration and secure the one or more cords (16a, 16b; 76) in proximity to the hub component (32; 932) using a mechanism for ratcheting or collapsing the spokes (35; 91-94) around or towards the hub component (32; 932). extend radially outward from the hub component (32; 932); and close radially inward over one or more cords (16a, 16b; 76) of chordae tendineae of a heart to wrap around the hub component (32; 932) in a wound spiral configuration and secure the one or more cords (16a, 16b; 76) in proximity to the hub component (32; 932) using a mechanism for ratcheting or collapsing the spokes (35; 91-94) around or towards the hub component (32; 932).
A helmet comprising: an inner shell ; an outer shell ; and a sliding interface between the inner shell and the outer shell ; characterised by a switch configured to be selectively switchable between first and second discrete modes, the first mode allowing relative sliding between the inner shell and the outer shell at the sliding interface in response to an impact to the helmet, the second mode preventing relative sliding between the inner shell and the outer shell at the sliding interface. an inner shell ; an outer shell ; and a sliding interface between the inner shell and the outer shell ; characterised by a switch configured to be selectively switchable between first and second discrete modes, the first mode allowing relative sliding between the inner shell and the outer shell at the sliding interface in response to an impact to the helmet, the second mode preventing relative sliding between the inner shell and the outer shell at the sliding interface.
A mobile device carried by a user, the mobile device comprising: a motion sensor that is configured to detect movement of the mobile device; a receiver that is configured to receive a polling signal transmitted from an apparatus ; and a controller that is configured to set a sampling speed of the motion sensor to detect movement of the mobile device based on whether or not the receiver receives the polling signal, wherein the controller is further configured to set the sampling speed of the motion sensor to a first sampling speed when the receiver does not receive the polling signal, and the sampling speed of the motion sensor to a second sampling speed, which is higher than the first sampling speed, when the receiver receives the polling signal, wherein the motion sensor is configured to detect vibration of the mobile device at the first sampling speed, wherein the motion sensor is configured to detect a predetermined movement of the mobile device, which is used as an authentication condition, at the second sampling speed. a motion sensor that is configured to detect movement of the mobile device; a receiver that is configured to receive a polling signal transmitted from an apparatus ; and a controller that is configured to set a sampling speed of the motion sensor to detect movement of the mobile device based on whether or not the receiver receives the polling signal, wherein the controller is further configured to set the sampling speed of the motion sensor to a first sampling speed when the receiver does not receive the polling signal, and the sampling speed of the motion sensor to a second sampling speed, which is higher than the first sampling speed, when the receiver receives the polling signal, the sampling speed of the motion sensor to a first sampling speed when the receiver does not receive the polling signal, and the sampling speed of the motion sensor to a second sampling speed, which is higher than the first sampling speed, when the receiver receives the polling signal, wherein the motion sensor is configured to detect vibration of the mobile device at the first sampling speed, wherein the motion sensor is configured to detect a predetermined movement of the mobile device, which is used as an authentication condition, at the second sampling speed.
A method for processing a control channel at a user agent , UA, the UA being in communication with an access device of a telecommunication system using multiple communication component carriers , the method comprising: receiving, at the UA from the access device , an RRC message indicating, for each component carrier , one or more control channel aggregation levels and, for each of the one or more aggregation levels, a respective number of control channel candidates specific to the UA; and based on the respective number of control channel candidates for each of the one or more aggregation levels and specific to the UA, indicated in the RRC message, and based on a Radio Network Temporary Identifier, RNTI, of the UA, determining a UA-specific control channel search space for each component carrier including the respective number of control channel candidates for each of the one or more aggregation levels. receiving, at the UA from the access device , an RRC message indicating, for each component carrier , one or more control channel aggregation levels and, for each of the one or more aggregation levels, a respective number of control channel candidates specific to the UA; and based on the respective number of control channel candidates for each of the one or more aggregation levels and specific to the UA, indicated in the RRC message, and based on a Radio Network Temporary Identifier, RNTI, of the UA, determining a UA-specific control channel search space for each component carrier including the respective number of control channel candidates for each of the one or more aggregation levels.
Double-stranded modified siRNA targeting a RecQL1 helicase gene, comprising a sense strand comprising the nucleotide sequence shown in SEQ ID NO: 1, and an antisense strand comprising the nucleotide sequence shown in SEQ ID NO: 2, wherein the sense strand comprises 2'-substituted nucleotides at positions 2, 3, 4 and 13 in the nucleotide sequence shown in SEQ ID NO: 1, the sense strand further comprises 2'-substituted nucleotides at two or more positions selected from the group consisting of positions 12, 14, 17, 18 and 19 in the nucleotide sequence shown in SEQ ID NO: 1, the sense strand comprises unmodified pyrimidine nucleotides at positions 8 and 9 in the nucleotide sequence shown in SEQ ID NO: 1, the position 2' of the 2'-substituted nucleotides is -R 1 , -OR 1 , -R 2 OR 1 , -OR 2 OR 1 or-R 3 OR 2 OR 1 , wherein R 1 represents a C 1-4 alkyl group that may or may not include a halogen or amino group, and R 2 and R 3 independently represent a C 1-3 alkylene group, the sense strand and the antisense strand each are 19 to 25 nucleotides in length, and the sense strand and the antisense strand each comprise a 3'-overhang consisting of two nucleotides.
A mechanical safety closing and locking system for a civil and industrial aperture closing system with a shutter covering , which can be wound up or stacked in a rolling-shutter box operated by at least one pulling rope and with vertical or oblique guides, wherein said mechanical safety closing and locking system comprises a mechanical safety closing and locking device configured to be installed within said rolling-shutter box of said aperture closing system, without needing to carry out building works, wherein said mechanical safety closing and locking system device comprises: - a rigid guide body , - at least one elastic means , configured to be kept under tension by means of the contrasting action of said at least one pulling rope of the shutter covering , and - a locking element , sliding in said rigid guide body and hooked to said at least one elastic means , where said locking element is functionally connectable to the at least one pulling rope and is adapted to interfere mechanically with the shutter covering and to block the fall thereof in the event of an interruption in the pulling continuity of said at least one pulling rope ; wherein a thrust is applicable by said at least one pulling rope to said locking element which is adapted to counter the elastic force of the at least one elastic means so that the failure or loosening of the at least one pulling rope results in the sliding displacement of said locking means , which is configured to mechanically interfere with the shutter covering , thus to lock said shutter covering in the position where it is. - a rigid guide body , - at least one elastic means , configured to be kept under tension by means of the contrasting action of said at least one pulling rope of the shutter covering , and - a locking element , sliding in said rigid guide body and hooked to said at least one elastic means , where said locking element is functionally connectable to the at least one pulling rope and is adapted to interfere mechanically with the shutter covering and to block the fall thereof in the event of an interruption in the pulling continuity of said at least one pulling rope ;
Automated system for breeding insects at their imaginal stage, comprising : - at least one mating cage having at least one door or hatch the closing and opening of which is automated and through which said mating cage can be connected to at least one emergence chamber having at least one door or hatch the closing and opening of which is automated; - a filling system adapted to fill the at least one mating cage with a population of newly emerged insects during a first time interval T1 and to automatically close successively or simultaneously the at least one door or hatch of the mating cage and the at least one door or hatch of the at least one emergence chamber when connected to the at least one mating cage once a wished population has entered the mating cage and or/after a predefined connection time; - a provision system adapted to provide conditions within the at least one mating cage suitable for promoting mating and/or oocytes maturation and/or ovipositing during a second time interval T2; - a terminating system adapted to stop ovipositing during a third time interval T3, the time between the beginning of a filling of the at least one mating cage and the beginning of said stopping of the oviposition in said at least one mating cage being shorter than the life expectancy of the adult insects after emergence. - at least one mating cage having at least one door or hatch the closing and opening of which is automated and through which said mating cage can be connected to at least one emergence chamber having at least one door or hatch the closing and opening of which is automated; - a filling system adapted to fill the at least one mating cage with a population of newly emerged insects during a first time interval T1 and to automatically close successively or simultaneously the at least one door or hatch of the mating cage and the at least one door or hatch of the at least one emergence chamber when connected to the at least one mating cage once a wished population has entered the mating cage and or/after a predefined connection time; - a provision system adapted to provide conditions within the at least one mating cage suitable for promoting mating and/or oocytes maturation and/or ovipositing during a second time interval T2; - a terminating system adapted to stop ovipositing during a third time interval T3, the time between the beginning of a filling of the at least one mating cage and the beginning of said stopping of the oviposition in said at least one mating cage being shorter than the life expectancy of the adult insects after emergence.
A method to control power of an uplink, at a base station (100; 200), in a wireless communication system, the method comprising: generating (210; 500) power control information for reception beams of the base station based on signals received using the reception beams , transmitting the power control information to a terminal (102;104; 205); transmitting , to the terminal, an identification of a reception beam associated with the terminal determined among the reception beams; and receiving (240; 515), from the terminal (102; 104; 205), a signal transmitted by using the power control information and the identification of the reception beam associated with the terminal. generating (210; 500) power control information for reception beams of the base station based on signals received using the reception beams , transmitting the power control information to a terminal (102;104; 205); transmitting , to the terminal, an identification of a reception beam associated with the terminal determined among the reception beams; and receiving (240; 515), from the terminal (102; 104; 205), a signal transmitted by using the power control information and the identification of the reception beam associated with the terminal.
A system comprising: a flat panel detector including, a scintillation layer and a glass layer configured to (i) receive x-rays emitted from an x-ray source and passed through an object, and (ii) the scintillation layer configured to convert the x-rays to light; and the system being characterized in that it further comprises a plurality of microelectromechanical scanners configured to (i) detect corresponding portions of the light, and (ii) generate respective signals, each microelectromechanical scanner including a photodetector mounted on a corresponding movable platform and configured to detect light in a selected spectrum; a scanning control module configured to actuate linear actuators for pivoting each platform about one or two orthogonal axes in each of the plurality of microelectromechanical scanners, wherein each of the signals is generated based on the actuation of the corresponding one of the plurality of microelectromechanical scanners; and a readout electronics module configured to produce an image based on the signals, wherein each of the signals contributes to a corresponding portion of the image. a flat panel detector including, a scintillation layer and a glass layer configured to (i) receive x-rays emitted from an x-ray source and passed through an object, and (ii) the scintillation layer configured to convert the x-rays to light; and the system being characterized in that it further comprises a plurality of microelectromechanical scanners configured to (i) detect corresponding portions of the light, and (ii) generate respective signals, each microelectromechanical scanner including a photodetector mounted on a corresponding movable platform and configured to detect light in a selected spectrum; a scanning control module configured to actuate linear actuators for pivoting each platform about one or two orthogonal axes in each of the plurality of microelectromechanical scanners, wherein each of the signals is generated based on the actuation of the corresponding one of the plurality of microelectromechanical scanners; and a readout electronics module configured to produce an image based on the signals, wherein each of the signals contributes to a corresponding portion of the image.
A motor-vehicle lattice frame (T) comprising: - a plurality of structural nodes (N1, N2) each having a central body and at least one hollow arm protruding from the central body , and - a plurality of beam elements connected to each other by means of the hollow protruding arms , wherein - said structural nodes (N1, N2) are made by an additive manufacturing technique, characterized in that at least one arm of one of the nodes (N1, N2) has an end portion opposite to said central body having a channel shape (C) with an open cavity both at a front end of the arm and along one side of the arm . - a plurality of structural nodes (N1, N2) each having a central body and at least one hollow arm protruding from the central body , and - a plurality of beam elements connected to each other by means of the hollow protruding arms , wherein - said structural nodes (N1, N2) are made by an additive manufacturing technique, characterized in that at least one arm of one of the nodes (N1, N2) has an end portion opposite to said central body having a channel shape (C) with an open cavity both at a front end of the arm and along one side of the arm .