mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, characterized by comprising: receiving (S230) a physical broadcast channel, PBCH, from a network device; wherein PBCH is comprised in a synchronization signal burst set, SS burst set, and a period of the SS burst set is one of a plurality of periods; processing (S240) a transport block carried by the PBCH by descrambling, to obtain information bits of the PBCH, the descrambling is performed by using one of a plurality of segments of a pseudo-random sequence, wherein the one of a plurality of segments of the pseudo-random sequence implicitly indicates a part of bits of a system frame number of a radio system frame in which the PBCH is located, the part of bits includes only the 2 nd and 3 rd least significant bits of the system frame number; wherein: a length of the system frame number is 10 bits, the 2 nd least significant bit of the system frame number is a ninth bit of the system frame number, and the 3 rd least significant bit of the system frame number is an eighth bit of the system frame number; the information bits of the PBCH comprise the bits other than the 2 nd and 3 rd least significant bits of the system frame number of the radio system frame in which the PBCH is located; wherein: the PBCH corresponding to the system frame number is received on a first half-frame or a second half-frame of the radio system frame; the first half-frame or the second half-frame on which the PBCH is received is indicated by one bit of the PBCH. receiving (S230) a physical broadcast channel, PBCH, from a network device; wherein PBCH is comprised in a synchronization signal burst set, SS burst set, and a period of the SS burst set is one of a plurality of periods; processing (S240) a transport block carried by the PBCH by descrambling, to obtain information bits of the PBCH, the descrambling is performed by using one of a plurality of segments of a pseudo-random sequence, wherein the one of a plurality of segments of the pseudo-random sequence implicitly indicates a part of bits of a system frame number of a radio system frame in which the PBCH is located, the part of bits includes only the 2 nd and 3 rd least significant bits of the system frame number; wherein: a length of the system frame number is 10 bits, the 2 nd least significant bit of the system frame number is a ninth bit of the system frame number, and the 3 rd least significant bit of the system frame number is an eighth bit of the system frame number; the information bits of the PBCH comprise the bits other than the 2 nd and 3 rd least significant bits of the system frame number of the radio system frame in which the PBCH is located; wherein: the PBCH corresponding to the system frame number is received on a first half-frame or a second half-frame of the radio system frame; the first half-frame or the second half-frame on which the PBCH is received is indicated by one bit of the PBCH. the PBCH corresponding to the system frame number is received on a first half-frame or a second half-frame of the radio system frame; the first half-frame or the second half-frame on which the PBCH is received is indicated by one bit of the PBCH.
A method of predicting the status of the BRCA1 and BRCA2 genes in a cancer cell, said method comprising: a) determining, in genomic DNA derived from a cancer cell that has been obtained from a patient, the total number of LOH regions in at least one pair of human chromosomes of said DNA that are longer than a first length but shorter than the length of the whole chromosome containing the LOH region, wherein said at least one pair of human chromosomes is not a human X/Y sex chromosome pair, wherein said first length is about 15 or more megabases, and wherein the cancer cell is an ovarian cancer cell; and b) correlating said total number that is equal to or greater than a reference number that is at least 9 with an increased likelihood of a deficiency in the BRCA1 or BRCA2 gene, wherein a deficiency in the BRCA1 or BRCA2 gene means that the sequence, structure, expression and/or activity of the gene or its product is/are deficient as compared to normal. a) determining, in genomic DNA derived from a cancer cell that has been obtained from a patient, the total number of LOH regions in at least one pair of human chromosomes of said DNA that are longer than a first length but shorter than the length of the whole chromosome containing the LOH region, wherein said at least one pair of human chromosomes is not a human X/Y sex chromosome pair, wherein said first length is about 15 or more megabases, and wherein the cancer cell is an ovarian cancer cell; and b) correlating said total number that is equal to or greater than a reference number that is at least 9 with an increased likelihood of a deficiency in the BRCA1 or BRCA2 gene, wherein a deficiency in the BRCA1 or BRCA2 gene means that the sequence, structure, expression and/or activity of the gene or its product is/are deficient as compared to normal.
Valve device for preventing explosion propagation, comprising: - a housing and a closing body for closing a passage in the housing in mechanical manner, wherein the closing body is movable between an open position and a closing position; - an actuator ; - a reservoir for a flame-extinguishing substance ; - an injecting means ; characterized in that the actuator is configured to move the closing body from the open position to the closing position in less than 100 ms; that the injection means is configured to inject the flame-extinguishing substance into the passage in order to prevent explosion propagation resulting from a non-fully sealed closure by the closing body; that the reservoir is a closed reservoir in which the flame-extinguishing substance is stored under pressure, that the injecting means comprises an opening mechanism for opening the reservoir and that the distance between the opening mechanism and a point of injection of the flame-extinguishing substance into the passage is less than 20 cm. - a housing and a closing body for closing a passage in the housing in mechanical manner, wherein the closing body is movable between an open position and a closing position; - an actuator ; - a reservoir for a flame-extinguishing substance ; - an injecting means ;
A gas turbine engine comprising a spool assembly for rotation about an axis , the spool assembly including an LP turbine spool having an LP drive shaft extending along the axis , a fan coupled with the LP drive shaft to receive rotation to draw air into the gas turbine engine , the fan including a rotor and a number of blades extending radially from the rotor , a motor-generator assembly including an LP motor-generator mounted on the LP drive shaft , a sensor configured to detect flutter movement within the engine, and a power controller in communication with the sensor and electrically connected to the LP motor-generator to detect, the power controller configured to selectively operate the LP motor-generator in response to flutter movement detected by the sensor to counteract flutter, wherein the power controller includes power circuitry adapted to selective operate the LP motor-generator and a control module in communication with the sensor to receive an indication of flutter movement and with the power circuity to govern selective operation of the LP motor-generator , wherein the control module is configured to determine a cancelation torque response for application to the LP drive shaft required to counteract flutter movement which is transferred from the blades to the LP drive shaft , wherein operation of the LP motor-generator to achieve the cancelation torque response includes selectively dampening rotation of the LP drive shaft by oscillating operation of the LP motor-generator between a first power output and a second power output higher than the first.
Apparatus for modifying a loudspeaker signal (U, U i , U i+1 , 110) for preventing diaphragm over-deflection configured to predict a diaphragm deflection signal (X, 130), block-by-block, in overlapping time blocks (120 1 , 120 2 , 120 3 , i-1, i, i+1) based on the loudspeaker signal (U, U i , U i+1 , 110) to obtain one diaphragm deflection signal block (130 1 , 130 2 , 130 3 , X i-1 , X i , X i+1 ) per time block (120 1 , 120 2 , 120 3 , i-1, i, i+1); determine a temporal position (140, k 0 ) of a maximum deflection (X i [k 0 ]) of a current diaphragm deflection signal block (130 2 , X i ) of a current time block (120 2 , i) within an overlap area with a subsequent time block (120 3 , i+1); calculate a level up to which the current diaphragm deflection signal block (130 2 , X l ) can be controlled without diaphragm over-deflection for the current time block (120 2 , i), by considering a comparison of the current diaphragm deflection signal block (X i [k 0 ], 130 2 ) with a subsequent diaphragm deflection signal block (130 3 ) or an estimation of the subsequent diaphragm deflection signal block (130 3 ) from the current diaphragm deflection signal block (130 2 , X i ) at the temporal position ; attenuate the current diaphragm deflection signal block (130 2 , X i ) based on the level to obtain a modified current diaphragm deflection signal block ( X̃ i , 160 2 ); and synthesize a modified loudspeaker signal ( Ũ , 170) based on the modified current diaphragm deflection signal block ( X̃ i , 160 2 ). predict a diaphragm deflection signal (X, 130), block-by-block, in overlapping time blocks (120 1 , 120 2 , 120 3 , i-1, i, i+1) based on the loudspeaker signal (U, U i , U i+1 , 110) to obtain one diaphragm deflection signal block (130 1 , 130 2 , 130 3 , X i-1 , X i , X i+1 ) per time block (120 1 , 120 2 , 120 3 , i-1, i, i+1); determine a temporal position (140, k 0 ) of a maximum deflection (X i [k 0 ]) of a current diaphragm deflection signal block (130 2 , X i ) of a current time block (120 2 , i) within an overlap area with a subsequent time block (120 3 , i+1); calculate a level up to which the current diaphragm deflection signal block (130 2 , X l ) can be controlled without diaphragm over-deflection for the current time block (120 2 , i), by considering a comparison of the current diaphragm deflection signal block (X i [k 0 ], 130 2 ) with a subsequent diaphragm deflection signal block (130 3 ) or an estimation of the subsequent diaphragm deflection signal block (130 3 ) from the current diaphragm deflection signal block (130 2 , X i ) at the temporal position ; attenuate the current diaphragm deflection signal block (130 2 , X i ) based on the level to obtain a modified current diaphragm deflection signal block ( X̃ i , 160 2 ); and synthesize a modified loudspeaker signal ( Ũ , 170) based on the modified current diaphragm deflection signal block ( X̃ i , 160 2 ).
Measuring device for measuring an electrical current, with a light source for generating a polarized primary light signal for feeding into a Faraday sensor device , and with a detector for detecting a secondary light signal provided by the Faraday sensor device and altered in polarization in relation to the primary light signal, wherein a compensation element is provided, by means of which the change in the polarization of the secondary light signal can be compensated for by an opposite change in the polarization, and a measurement signal that depends on the opposite change in the polarization can be derived for the electrical current, wherein the Faraday sensor device is arranged close to a high-voltage electrical conductor of a high-voltage installation, so that the measurement signal for the electrical current in the high-voltage electrical conductor can be derived, wherein the light source and the detector are arranged close to earth potential, wherein the light source comprises a light generation element and, separate from it, a polarization element , characterized in that the light generation element and the polarization element are connected together by means of an optical waveguide , and wherein the measuring device furthermore comprises a polarization-maintaining optical fibre which serves to carry the primary light signal and connects the polarization element and the Faraday sensor device together, wherein an insulation element is provided for an electrical isolation between the high-voltage potential and the earth potential and extends between the high-voltage electrical conductor and the earth and comprises an insulator foot , on which the insulation element is placed, wherein the polarization element is arranged in the insulator foot , wherein the light generation element is arranged in a building set up to house parts of the measuring device as well as further parts of the high-voltage installation.
A method for generating feedback information, applied to a terminal, comprising: receiving a first downlink control information, wherein a downlink physical channel scheduled by the first downlink control information is contained in a first channel group, and the first downlink control information is used to indicate the terminal to transmit a feedback information corresponding to two channel groups ; and determining an order of the feedback information corresponding to the two channel groups in a feedback information codebook according to the first downlink control information ; characterized in that the two channel groups comprise the first channel group and a second channel group, if the first downlink control information comprises information of the second channel group, in the feedback information codebook, the feedback information corresponding to the first channel group appends to the feedback information corresponding to the second channel group. receiving a first downlink control information, wherein a downlink physical channel scheduled by the first downlink control information is contained in a first channel group, and the first downlink control information is used to indicate the terminal to transmit a feedback information corresponding to two channel groups ; and determining an order of the feedback information corresponding to the two channel groups in a feedback information codebook according to the first downlink control information ; characterized in that the two channel groups comprise the first channel group and a second channel group, if the first downlink control information comprises information of the second channel group, in the feedback information codebook, the feedback information corresponding to the first channel group appends to the feedback information corresponding to the second channel group.
A honeycomb structure comprising: a tubular honeycomb structure part having porous partition walls with which a plurality of cells extending from one end surface to the other end surface are formed to become through channels of a fluid, and an outer peripheral wall positioned on an outermost periphery; and a pair of electrode parts arranged on a side surface of the honeycomb structure part , wherein an electrical resistivity of the honeycomb structure part is from 1 to 200 Ωcm, each of the pair of electrode parts is formed into a band-like shape extending in a direction (I) in which the cells of the honeycomb structure part extend, in a cross section perpendicular to the cell extending direction (I), the one electrode part in the pair of electrode parts is disposed opposite to the other electrode part in the pair of electrode parts via the center (O) of the honeycomb structure part , and a distance (D1, D2) from one end portion of the honeycomb structure part in the cell extending direction (I) to an end portion of the electrode part which faces the one end portion of the honeycomb structure part in the cell extending direction (I) is from 1 to 10% of a length (L) of the honeycomb structure part in the cell extending direction (I); characterized in that an outer peripheral shape of the band-like electrode part is a rectangular shape including at least one curved corner portion, or a rectangular shape including at least one linearly chamfered corner portion. a tubular honeycomb structure part having porous partition walls with which a plurality of cells extending from one end surface to the other end surface are formed to become through channels of a fluid, and an outer peripheral wall positioned on an outermost periphery; and a pair of electrode parts arranged on a side surface of the honeycomb structure part , wherein an electrical resistivity of the honeycomb structure part is from 1 to 200 Ωcm, each of the pair of electrode parts is formed into a band-like shape extending in a direction (I) in which the cells of the honeycomb structure part extend, in a cross section perpendicular to the cell extending direction (I), the one electrode part in the pair of electrode parts is disposed opposite to the other electrode part in the pair of electrode parts via the center (O) of the honeycomb structure part , and a distance (D1, D2) from one end portion of the honeycomb structure part in the cell extending direction (I) to an end portion of the electrode part which faces the one end portion of the honeycomb structure part in the cell extending direction (I) is from 1 to 10% of a length (L) of the honeycomb structure part in the cell extending direction (I); characterized in that an outer peripheral shape of the band-like electrode part is a rectangular shape including at least one curved corner portion, or a rectangular shape including at least one linearly chamfered corner portion.
A bladed rotor system for a turbomachine, comprising: a circumferential row of blades mounted on a rotor disc , each blade comprising: a platform ; a root extending radially inward from the platform for mounting the blade to the rotor disc ; and an airfoil extending span-wise radially outward from the platform ; wherein platforms of adjacent blades align circumferentially to define an inner diameter boundary for a working fluid flow path; and a plurality of dampers , each damper being located between adjacent platforms ; wherein the plurality of dampers comprise a first set (H) of dampers and a second set (L) of dampers , wherein the dampers of the first set (H) are distinguished from the dampers of the second set (L) by a cross-sectional material distribution in the damper that is unique to the respective set (H, L), and wherein dampers of the first set (H) and the second set (L) are positioned alternately in a periodic fashion in a circumferential direction, to provide a frequency mistuning to stabilize flutter of the blades , characterized in that the dampers of the first set (H) are solid, and the dampers of the second set (L) are hollow, each defining an internal cavity therewithin. a circumferential row of blades mounted on a rotor disc , each blade comprising: a platform ; a root extending radially inward from the platform for mounting the blade to the rotor disc ; and an airfoil extending span-wise radially outward from the platform ; a platform ; a root extending radially inward from the platform for mounting the blade to the rotor disc ; and an airfoil extending span-wise radially outward from the platform ; wherein platforms of adjacent blades align circumferentially to define an inner diameter boundary for a working fluid flow path; and a plurality of dampers , each damper being located between adjacent platforms ; wherein the plurality of dampers comprise a first set (H) of dampers and a second set (L) of dampers , wherein the dampers of the first set (H) are distinguished from the dampers of the second set (L) by a cross-sectional material distribution in the damper that is unique to the respective set (H, L), and wherein dampers of the first set (H) and the second set (L) are positioned alternately in a periodic fashion in a circumferential direction, to provide a frequency mistuning to stabilize flutter of the blades , characterized in that the dampers of the first set (H) are solid, and the dampers of the second set (L) are hollow, each defining an internal cavity therewithin.
A radome for housing a radar system, comprising: a plurality of interconnected curved radome composite material panels , each curved radome composite material panel having a plurality of interconnecting edges , a foam core , an inner skin , an outer skin , characterized in that the interconnected curved radome composite material is an interconnected curved radome thermoplastic composite material; a plurality of three-dimensional fiber bundles tie the inner skin and the outer skin to each other through the foam core , inhibiting delamination; and the interconnecting edges are thermoformed and taper inwardly and outwardly, and terminate in a butt joint , wherein the butt joint is in effect a tooth formed in the shape of a great circle, as defined by a diameter of the radome . a plurality of interconnected curved radome composite material panels , each curved radome composite material panel having a plurality of interconnecting edges , a foam core , an inner skin , an outer skin , characterized in that the interconnected curved radome composite material is an interconnected curved radome thermoplastic composite material; a plurality of three-dimensional fiber bundles tie the inner skin and the outer skin to each other through the foam core , inhibiting delamination; and the interconnecting edges are thermoformed and taper inwardly and outwardly, and terminate in a butt joint , wherein the butt joint is in effect a tooth formed in the shape of a great circle, as defined by a diameter of the radome .
A computer-implemented method comprising: obtaining images of a scene captured by a camera; identifying an object in the images through object recognition, wherein identifying the object in the images through object recognition comprises: determining one or more privacy regions in the images based on identifying a common location for human interaction with objects by comparing the images of the scene with predefined privacy entities, and performing object recognition only in the one or more privacy regions in the images; determining that i) the object that is identified in the images is of a particular type that has a privacy restriction and ii) a person is interacting with the object ; and in response to determining that i) the object in the images is of the particular type that has the privacy restriction and ii) the person is interacting with the object, obfuscating an appearance of the object in the images. obtaining images of a scene captured by a camera; identifying an object in the images through object recognition, wherein identifying the object in the images through object recognition comprises: determining one or more privacy regions in the images based on identifying a common location for human interaction with objects by comparing the images of the scene with predefined privacy entities, and performing object recognition only in the one or more privacy regions in the images; determining one or more privacy regions in the images based on identifying a common location for human interaction with objects by comparing the images of the scene with predefined privacy entities, and performing object recognition only in the one or more privacy regions in the images; determining that i) the object that is identified in the images is of a particular type that has a privacy restriction and ii) a person is interacting with the object ; and in response to determining that i) the object in the images is of the particular type that has the privacy restriction and ii) the person is interacting with the object, obfuscating an appearance of the object in the images.