mhurhangee/patent-ind-claim-en huggingface dataset:
Composite film comprising a polymer support, preferably polyester, at least one adhesive covering on at least one of the faces of the support, and at least one cross-linked adhesion primer layer between the support and the covering; said film having improved barrier properties with respect to gases as well as for adhesion of the covering onto the support, characterized in that - this primer comprises at least one acrylic and/or methacrylic polymer P1, at least one acrylic and/or methacrylic polymer P2 different from P1, at least one crosslinking agent, and, preferably, at least one polyester that is soluble or dispersible in water; - P1 having a gel content TG1 greater than or equal to - in % dry weight and in an increasing order of preference - 70, 80, 85, with respect to the total dry weight of P1; - P2 having a gel content TG2 less than or equal to TG1 and less than or equal to - in % dry weight and in an increasing order of preference - 20, 40, 70 by weight with respect to the total dry weight of P2; - P1 having a surface-grafted free weak acid content greater than or equal to - in microequivalent per gram of polymer and in an increasing order of preference - 0.8, 0.9, 1.0; - the mass concentration of P2 is less than or equal to - in % dry weight with respect to the total dry weight of P1 and P2 and is given hereinafter in an increasing order of preference, 60, 50, 40. - this primer comprises at least one acrylic and/or methacrylic polymer P1, at least one acrylic and/or methacrylic polymer P2 different from P1, at least one crosslinking agent, and, preferably, at least one polyester that is soluble or dispersible in water; - P1 having a gel content TG1 greater than or equal to - in % dry weight and in an increasing order of preference - 70, 80, 85, with respect to the total dry weight of P1; - P2 having a gel content TG2 less than or equal to TG1 and less than or equal to - in % dry weight and in an increasing order of preference - 20, 40, 70 by weight with respect to the total dry weight of P2; - P1 having a surface-grafted free weak acid content greater than or equal to - in microequivalent per gram of polymer and in an increasing order of preference - 0.8, 0.9, 1.0; - the mass concentration of P2 is less than or equal to - in % dry weight with respect to the total dry weight of P1 and P2 and is given hereinafter in an increasing order of preference, 60, 50, 40.
A wireless communication system comprising: a base station ; a relay node ; and a wireless equipment configured to perform communication for downlink with the base station without the relay node being involved and to perform communication for uplink with the base station via the relay node , wherein the wireless equipment is further configured to transmit a discovery signal for discovering the relay node by using a radio resource associated with a coverage enhancement level, the coverage enhancement level being determined in accordance with reception quality measured from a reference signal that is transmitted by the base station , wherein the relay node is configured to transmit information on the radio resource on which the discovery signal is received, or information on the coverage enhancement level that is determined based on the radio resource on which the discovery signal is received, to the base station , and wherein the base station is configured to determine the coverage enhancement level of the downlink for the wireless equipment , based on information that is received from the relay node , and perform the communication for the downlink with the wireless equipment at the determined coverage enhancement level. a base station ; a relay node ; and a wireless equipment configured to perform communication for downlink with the base station without the relay node being involved and to perform communication for uplink with the base station via the relay node , wherein the wireless equipment is further configured to transmit a discovery signal for discovering the relay node by using a radio resource associated with a coverage enhancement level, the coverage enhancement level being determined in accordance with reception quality measured from a reference signal that is transmitted by the base station , wherein the relay node is configured to transmit information on the radio resource on which the discovery signal is received, or information on the coverage enhancement level that is determined based on the radio resource on which the discovery signal is received, to the base station , and wherein the base station is configured to determine the coverage enhancement level of the downlink for the wireless equipment , based on information that is received from the relay node , and perform the communication for the downlink with the wireless equipment at the determined coverage enhancement level. determine the coverage enhancement level of the downlink for the wireless equipment , based on information that is received from the relay node , and perform the communication for the downlink with the wireless equipment at the determined coverage enhancement level.
A method for reducing the effect of hearing assistance device cross-modulation using a remote hearing assistance device , the method comprising: sending a plurality of remote frequency band gains from a local hearing assistance device to a remote hearing assistance device , the remote hearing assistance device configured to decompose a remote audio signal into a plurality of remote frequency band signals and apply the plurality of remote frequency band gains to the plurality of remote frequency band signals to generate a plurality of remote amplified frequency bands , wherein the remote frequency band gains correspond to a remote noise environment and to a hearing loss profile of a hearing assistance user; receiving the plurality of remote amplified frequency bands at the local hearing assistance device associated with the hearing assistance user; and combining , using a signal adder, a plurality of local amplified frequency bands with the remote amplified frequency bands to generate a combined amplified audio output signal. sending a plurality of remote frequency band gains from a local hearing assistance device to a remote hearing assistance device , the remote hearing assistance device configured to decompose a remote audio signal into a plurality of remote frequency band signals and apply the plurality of remote frequency band gains to the plurality of remote frequency band signals to generate a plurality of remote amplified frequency bands , wherein the remote frequency band gains correspond to a remote noise environment and to a hearing loss profile of a hearing assistance user; receiving the plurality of remote amplified frequency bands at the local hearing assistance device associated with the hearing assistance user; and combining , using a signal adder, a plurality of local amplified frequency bands with the remote amplified frequency bands to generate a combined amplified audio output signal.
A method for measuring EEG, ECG or EMG signals comprising a time-varying electric field emanating from an organ within a living body, said method comprising: capacitively coupling a sensing plate to a body surface , wherein changes over time in electrical potential at the body surface emanating from the organ generate a time-varying electric field that induces change in the electric potential of the sensing plate , generating an input signal from the time-varying electric field at a sensing node associated with the sensing plate and positioned in the electric field, wherein the input signal is based on the change in electrical potential of the sensing plate, wherein an intervening material separates the sensing plate from the body surface ; amplifying the input signal by an amplifier , the amplifier having an input port and an output port , the amplifier configured to receive the input signal at the input port and to generate an amplified output signal at the output port ; and non-continuously close a shunting path from the sensing node to the reference voltage, using a switching circuit connected to the input port and a reference voltage, to reset the voltage at the sensing node towards the reference voltage, the switching circuit comprising at least one switching device and a first capacitor connected to the reference voltage and a second capacitor connected to an activation voltage capable of activating the at least one switching device , wherein the duration and/or sequence of the time that the switching device is activated is varied in relation to the direction and amount of voltage drift on the sensing node . capacitively coupling a sensing plate to a body surface , wherein changes over time in electrical potential at the body surface emanating from the organ generate a time-varying electric field that induces change in the electric potential of the sensing plate , generating an input signal from the time-varying electric field at a sensing node associated with the sensing plate and positioned in the electric field, wherein the input signal is based on the change in electrical potential of the sensing plate, wherein an intervening material separates the sensing plate from the body surface ; amplifying the input signal by an amplifier , the amplifier having an input port and an output port , the amplifier configured to receive the input signal at the input port and to generate an amplified output signal at the output port ; and non-continuously close a shunting path from the sensing node to the reference voltage, using a switching circuit connected to the input port and a reference voltage, to reset the voltage at the sensing node towards the reference voltage, the switching circuit comprising at least one switching device and a first capacitor connected to the reference voltage and a second capacitor connected to an activation voltage capable of activating the at least one switching device , wherein the duration and/or sequence of the time that the switching device is activated is varied in relation to the direction and amount of voltage drift on the sensing node .
A system in a communication network with virtualized functions comprising: means for storing information characterizing network management actions, wherein the system further comprises means for determining a developing fault condition based at least in part on at least one of the following: a pattern of read/write errors and a pattern of status changes comprising a pattern of communication port status changes, and initiating a network management action based at least in part on the determined developing fault condition, the network management action involving at least one virtualized network function . means for storing information characterizing network management actions, wherein the system further comprises means for determining a developing fault condition based at least in part on at least one of the following: a pattern of read/write errors and a pattern of status changes comprising a pattern of communication port status changes, and initiating a network management action based at least in part on the determined developing fault condition, the network management action involving at least one virtualized network function .
Firearm comprising: - a fixed part for example grippable by a user; - at least one movable part that performs a predefined guided movement during the firing cycle having a cycle time (T), wherein the firing cycle comprises a retraction time (T2) in which the movable part is induced by the firing action to be disposed in a return position starting from a firing position, and an advancement time (T1) in which the movable part starting from a starting position is disposed in a firing position or wherein the movable part starting from a return position is disposed in a firing position; - an electronic system suitable to detect the shot fired event, comprising: i) a management unit ; ii) a fixed sensor device integral with the fixed part of the firearm, preferably housed on the fixed part ; iii) a mobile sensor device housed on board said movable part ; wherein the fixed sensor device and the mobile sensor device are mutually magnetically sensitive so as to influence each other according to their mutual position, the mobile sensor device being an element made of a ferromagnetic material, preferably a permanent magnet, and the fixed sensor device comprising a magnetically sensitive element ; wherein said movable part comprises a hammer and said mobile sensor device is housed on the hammer , or said movable part comprises a hammer and a return lever connected to the hammer and said mobile sensor device is housed on the return lever , or said movable part comprises a connection lever connecting the hammer to the trigger and said mobile sensor device is housed on the connection lever ; wherein the management unit is operatively connected to the fixed sensor device and is suitable to detect a movement time (Tm) as a function of the position of the mobile sensor device during the retraction time (T2) ; wherein the management unit is suitable to detect the shot-fired event upon the correspondence of movement time value (Tm) lower than a predefined threshold value (Ts), wherein the maximum value of the movement time value (Tm) is equal to the retraction time (T2). - a fixed part for example grippable by a user; - at least one movable part that performs a predefined guided movement during the firing cycle having a cycle time (T), wherein the firing cycle comprises a retraction time (T2) in which the movable part is induced by the firing action to be disposed in a return position starting from a firing position, and an advancement time (T1) in which the movable part starting from a starting position is disposed in a firing position or wherein the movable part starting from a return position is disposed in a firing position; - an electronic system suitable to detect the shot fired event, comprising: i) a management unit ; ii) a fixed sensor device integral with the fixed part of the firearm, preferably housed on the fixed part ; iii) a mobile sensor device housed on board said movable part ; i) a management unit ; ii) a fixed sensor device integral with the fixed part of the firearm, preferably housed on the fixed part ; iii) a mobile sensor device housed on board said movable part ;
A posture detecting device comprising; an inner frame rotatable by 360° around a vertical shaft , said vertical shaft being rotatably fitted on an outer frame , a tilt detecting unit rotatable by 360° around a horizontal shaft perpendicular to said vertical shaft , said horizontal shaft being rotatably fitted on said inner frame , the tilt detecting unit being configured to detect a tilting from the horizontal, encoders provided on each of said shafts, a first driven gear as meshed with said vertical shaft , a first motor configured to rotate said first driven gear , a second driven gear as meshed with said horizontal shaft , a second motor configured to rotate said second driven gear , and a first arithmetic processing unit configured to drive/control said motors based on a detection result from said tilt detecting unit , wherein said first arithmetic processing unit is configured to drive said motors so that said tilt detecting unit detects the horizontal based on a signal from said tilt detecting unit when said outer frame is tilted and the first arithmetic processing unit is further configured to calculate a posture of said outer frame based on outputs of said encoders when said tilt detecting unit detects the horizontal.
A panel for use in an aircraft, comprising: a top face sheet ; a bottom face sheet ; and a first folded core bonded to the top face sheet and the bottom face sheet, the first folded core characterized by a corrugated zigzag pattern of a plurality of ridges having a plurality of first peaks , a plurality of valleys , and a plurality of non-vertical faces extending between the plurality of first peaks and the plurality of valleys; wherein the plurality of first peaks of each ridge comprises a generally planar peak having a sharp bend at a zenith , thus providing a partial angular peak; wherein each of the plurality of ridges comprises a generally flat surface profile having a plurality of first peaks including a peak with a narrow peak angle and a peak with a wide peak angle, and wherein a narrow peak angle is less than or equal to 90 degrees and a wide peak angle is greater than 90 degrees. a top face sheet ; a bottom face sheet ; and a first folded core bonded to the top face sheet and the bottom face sheet, the first folded core characterized by a corrugated zigzag pattern of a plurality of ridges having a plurality of first peaks , a plurality of valleys , and a plurality of non-vertical faces extending between the plurality of first peaks and the plurality of valleys; wherein the plurality of first peaks of each ridge comprises a generally planar peak having a sharp bend at a zenith , thus providing a partial angular peak; wherein each of the plurality of ridges comprises a generally flat surface profile having a plurality of first peaks including a peak with a narrow peak angle and a peak with a wide peak angle, and wherein a narrow peak angle is less than or equal to 90 degrees and a wide peak angle is greater than 90 degrees.
A composition suitable as a film forming composition for a film capacitor, comprising (i) a thermoplastic resin (A), and (ii) surface-treated high dielectric inorganic particles (B) obtained by treating surfaces of high dielectric inorganic particles (b1) having a dielectric constant (20°C, 1 kHz) of ≥ 100 with 0.1-20 parts by mass per 100 parts by mass of the particles (b1) of at least one low dielectric compound (b2) having a dielectric constant (20°C, 1 kHz) of ≤ 10 and being selected from an organosilane compound, an organozirconium compound, an organoaluminum compound and an organic phosphorus compound. (i) a thermoplastic resin (A), and (ii) surface-treated high dielectric inorganic particles (B) obtained by treating surfaces of high dielectric inorganic particles (b1) having a dielectric constant (20°C, 1 kHz) of ≥ 100 with 0.1-20 parts by mass per 100 parts by mass of the particles (b1) of at least one low dielectric compound (b2) having a dielectric constant (20°C, 1 kHz) of ≤ 10 and being selected from an organosilane compound, an organozirconium compound, an organoaluminum compound and an organic phosphorus compound.
A method for transmitting a data frame, comprising: acquiring (S120), by a transmitter, at least one address of a destination address, DA, of the data frame and a source address, SA, of the data frame that are corresponding to data transmission direction information, wherein the data transmission direction information is used for indicating if the transmitter is an access point, AP, or a subscriber station, STA, and indicating if a receiver of the data frame is an AP or an STA; determining, by the transmitter, a value of a forwarding identification bit, Forwarding, according to the data transmission direction information as well as at least one address of the DA and the SA of the data frame, wherein the value of the Forwarding is used for indicating if the data frame needs to be forwarded by the receiver when the receiver is an AP or indicating if the data frame is forwarded from the transmitter when the transmitter is an AP; and sending (S140), by the transmitter, the data frame to the receiver, wherein the data frame comprises a single address field, the data transmission direction information and the Forwarding, and if the value of the Forwarding indicates that the data frame does not need to be forwarded by the receiver when the receiver is an AP or indicates that the data frame is not forwarded from the transmitter when the transmitter is an AP, the address field carries only transmitter address information, TA information, of the data frame, wherein the TA information is used for indicating an address of the transmitter of the data frame. acquiring (S120), by a transmitter, at least one address of a destination address, DA, of the data frame and a source address, SA, of the data frame that are corresponding to data transmission direction information, wherein the data transmission direction information is used for indicating if the transmitter is an access point, AP, or a subscriber station, STA, and indicating if a receiver of the data frame is an AP or an STA; determining, by the transmitter, a value of a forwarding identification bit, Forwarding, according to the data transmission direction information as well as at least one address of the DA and the SA of the data frame, wherein the value of the Forwarding is used for indicating if the data frame needs to be forwarded by the receiver when the receiver is an AP or indicating if the data frame is forwarded from the transmitter when the transmitter is an AP; and sending (S140), by the transmitter, the data frame to the receiver, wherein the data frame comprises a single address field, the data transmission direction information and the Forwarding, and if the value of the Forwarding indicates that the data frame does not need to be forwarded by the receiver when the receiver is an AP or indicates that the data frame is not forwarded from the transmitter when the transmitter is an AP, the address field carries only transmitter address information, TA information, of the data frame, wherein the TA information is used for indicating an address of the transmitter of the data frame.
A monolithic integrated semiconductor structure comprising the following layered structure: A) a carrier layer based on doped or undoped Si or GaP, B) optionally a first current-carrying layer consisting of doped Si, doped GaP, or doped (AlGa)P, C) optionally a first adaptation layer, and D) an optically active element comprising a semiconductor layer formed of a III/V semiconductor having the composition Ga x In y N a As b P c Sb d , wherein x = 70 - 100 mol%, y = 1 - 30 mol%, a = 0.5 - 15 mol%, b = 67.5 - 99.5 mol%, c = 0 - 39.5 mol% and d = 0 - 15 mol%, x and y always adding to 100 mol%, a, b, c and d always adding to 100 mol%, and the ratio of the sums of x and y on the one hand and a to d on the other hand being essentially 1:1. A) a carrier layer based on doped or undoped Si or GaP, B) optionally a first current-carrying layer consisting of doped Si, doped GaP, or doped (AlGa)P, C) optionally a first adaptation layer, and D) an optically active element comprising a semiconductor layer formed of a III/V semiconductor having the composition Ga x In y N a As b P c Sb d , wherein x = 70 - 100 mol%, y = 1 - 30 mol%, a = 0.5 - 15 mol%, b = 67.5 - 99.5 mol%, c = 0 - 39.5 mol% and d = 0 - 15 mol%, x and y always adding to 100 mol%, a, b, c and d always adding to 100 mol%, and the ratio of the sums of x and y on the one hand and a to d on the other hand being essentially 1:1.
An electronic device, comprising a middle frame , an antenna board , and a fastener ; the middle frame is provided with a mounting cavity , and an inner wall of the mounting cavity is provided with a limiting portion; and the antenna board is placed in the mounting cavity , and the fastener is clamped between the limiting portion and an upper end face of the antenna board , to restrict the antenna board from moving upward along a depth direction of the mounting cavity . the middle frame is provided with a mounting cavity , and an inner wall of the mounting cavity is provided with a limiting portion; and the antenna board is placed in the mounting cavity , and the fastener is clamped between the limiting portion and an upper end face of the antenna board , to restrict the antenna board from moving upward along a depth direction of the mounting cavity .