mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor package assembly (500a; 500b), comprising: a core substrate formed of a first material having a device-attach surface and a solder-bump-attach surface opposite to the die-attach surface ; a bump pad disposed on the bump-attach surface ; a first solder mask layer formed of the first material covering the bump-attach surface of the core substrate and a portion of the bump pad ; a second solder mask layer (216a; 216b) covering the device-attach surface of the core substrate , wherein the second solder mask layer (216a; 216b) is formed of a second material, wherein the second material is different from the first material; a first conductive trace disposed on the device-attach surface and covered by the second solder mask layer (216a; 216b); a second conductive trace disposed on the bump-attach surface and covered by the first solder mask layer ; and a through via plug passing through the core substrate , wherein the through via plug is electrically connected to the first conductive trace and the second conductive trace . a core substrate formed of a first material having a device-attach surface and a solder-bump-attach surface opposite to the die-attach surface ; a bump pad disposed on the bump-attach surface ; a first solder mask layer formed of the first material covering the bump-attach surface of the core substrate and a portion of the bump pad ; a second solder mask layer (216a; 216b) covering the device-attach surface of the core substrate , wherein the second solder mask layer (216a; 216b) is formed of a second material, wherein the second material is different from the first material; a first conductive trace disposed on the device-attach surface and covered by the second solder mask layer (216a; 216b); a second conductive trace disposed on the bump-attach surface and covered by the first solder mask layer ; and a through via plug passing through the core substrate , wherein the through via plug is electrically connected to the first conductive trace and the second conductive trace .
A dual-fuel internal combustion engine comprising at least one combustion chamber (B) which is adapted to be operated in an operating mode with primarily liquid fuel feed and in an operating mode with primarily gaseous fuel feed in which the liquid fuel serves as a pilot fuel for initiating combustion, wherein associated with the at least one combustion chamber (B) is an inlet valve for a gas-air mixture (R) and an injector (I1 to I4) for liquid fuel, and a control device which in a switch-over mode is adapted to effect a switch-over by - an amount of energy supplied to the at least one combustion chamber (B) by the gas-air mixture being changed, and - an injected amount of liquid fuel and/or a time of injection of the liquid fuel being changed, and a sensor whose signals are characteristic of a knock occurring in the at least one combustion chamber, wherein the control device is adapted to effect the switch-over with evaluation of the signals from the sensor , wherein the control device is adapted to effect evaluation of the signals of the sensor having regard to the amount of liquid fuel injected into the at least one combustion chamber, characterised in that the control device is adapted upon the occurrence of knock above a predetermined first knock threshold value to effect knock-reducing measures if the injected amount of liquid fuel is below a predetermined liquid fuel threshold value and/or the control device is adapted upon the occurrence of knock above a predetermined first knock threshold value not to effect or only limitedly to effect knock-reducing measures if the injected amount of liquid fuel is above a predetermined liquid fuel threshold value and if the knock lies below a predetermined second knock threshold value. - an amount of energy supplied to the at least one combustion chamber (B) by the gas-air mixture being changed, and - an injected amount of liquid fuel and/or a time of injection of the liquid fuel being changed, and
A heating device, which is configured for heating a medium, with a first plate element , the top side of which is in contact with the medium in the operation of the heating device , wherein a second plate element is arranged on a bottom side of the first plate element , which has a greater thermal conductivity than the first plate element , and with a carrier plate for positioning at least one tubular heating body of the heating device , wherein the carrier plate is connected to a bottom side of the second plate element , characterized in that the carrier plate comprises at least one receptacle for positioning the at least one tubular heating body , into which the at least one tubular heating body is inserted, wherein a thickness of the carrier plate is reduced in the area of the at least one receptacle compared to the thickness of at least one area of a base body of the carrier plate adjoining to the at least one receptacle .
A method, comprising: accessing baseband information for a plurality, N, of antennas accessible by a plurality of baseband units , the baseband information corresponding to a transmission from a user equipment and received at the N antennas , wherein the plurality of baseband units and the N antennas form a plurality of cells , wherein each of the N antennas are connected to one of the plurality of baseband units, and wherein different ones of the N antennas are connected to different ones of the plurality of baseband units; determining values for one or more metrics for each of the baseband information for the N antennas ; selecting, based on the determined values, a subset k of the N antennas and corresponding baseband information to use to determine output data for the transmission from the user equipment ; and determining the output data from the user equipment using the baseband information from the k antennas . accessing baseband information for a plurality, N, of antennas accessible by a plurality of baseband units , the baseband information corresponding to a transmission from a user equipment and received at the N antennas , wherein the plurality of baseband units and the N antennas form a plurality of cells , wherein each of the N antennas are connected to one of the plurality of baseband units, and wherein different ones of the N antennas are connected to different ones of the plurality of baseband units; determining values for one or more metrics for each of the baseband information for the N antennas ; selecting, based on the determined values, a subset k of the N antennas and corresponding baseband information to use to determine output data for the transmission from the user equipment ; and determining the output data from the user equipment using the baseband information from the k antennas .
A composition for use in a method of preventing or treating at least one of tumor recurrence, metastasis, and radiotherapy resistance or a method of treating cancer, the composition comprising a pharmaceutically effective amount of at least one tri-phenyl-phosphonium (TPP)-derivative compound selected from: 2-butene-1,4-bis-TPP; 2-chlorobenzyl-TPP; 3-methylbenzyl-TPP; 2,4-dichlorobenzyl-TPP; and 1-naphthylmethyl-TPP.
Method for providing data packets from a CAN bus , in particular a charging station for a motor vehicle, including the steps of: - capturing the data packets from at least one component of the CAN bus by means of a capture unit that is part of the CAN bus , - creating multiple web resources , which contain the data packets , according to a predetermined specification by means of a computing unit , wherein only data packets that are related according to the predetermined specification are combined in the web resources , each of the multiple web resources having a respective, unique address, - conveying a content of the web resources from the computing unit to a receiving device via a data connection , using a transmission protocol that is different than the CAN bus , by means of a communication unit . - capturing the data packets from at least one component of the CAN bus by means of a capture unit that is part of the CAN bus , - creating multiple web resources , which contain the data packets , according to a predetermined specification by means of a computing unit , wherein only data packets that are related according to the predetermined specification are combined in the web resources , each of the multiple web resources having a respective, unique address, - conveying a content of the web resources from the computing unit to a receiving device via a data connection , using a transmission protocol that is different than the CAN bus , by means of a communication unit .
An organic light emitting diode touch sensitive display including a plurality of display pixels, the display comprising: an electrode layer including a plurality of self-capacitance touch sensor electrodes, wherein each of the plurality of self-capacitance touch sensor electrodes is electrically isolated from others of the plurality of self-capacitance touch sensor electrodes; a cathode layer that is coupled to AC ground during a touch detection mode of the display and is configured to reduce a parasitic capacitance effect on the plurality of self-capacitance touch sensor electrodes, wherein the parasitic capacitance effect includes an effect from capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer, and reducing the parasitic capacitance effect includes reducing the capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer; an anode layer; an organic layer, the organic layer including a plurality of organic light emitting diodes; and an encapsulation layer disposed between the cathode layer and the electrode layer. an electrode layer including a plurality of self-capacitance touch sensor electrodes, wherein each of the plurality of self-capacitance touch sensor electrodes is electrically isolated from others of the plurality of self-capacitance touch sensor electrodes; a cathode layer that is coupled to AC ground during a touch detection mode of the display and is configured to reduce a parasitic capacitance effect on the plurality of self-capacitance touch sensor electrodes, wherein the parasitic capacitance effect includes an effect from capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer, and reducing the parasitic capacitance effect includes reducing the capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer; an anode layer; an organic layer, the organic layer including a plurality of organic light emitting diodes; and an encapsulation layer disposed between the cathode layer and the electrode layer.
A control unit of an electric power steering apparatus that drives a motor based on a current command value, and assists and controls a steering system, said control unit comprises: a feedforward control section that inputs input angle information and calculates a first compensation signal compensating said current command value; a feedback control section that inputs output angle information and calculates a second compensation signal compensating said current command value; and a response control section that adjusts said current command value based on said first compensation signal and said second compensation signal; characterised in that said feedback control section arranges a pole of a characteristic of a vibration mode where steering wheel inertia and motor inertia that constitute said electric power steering apparatus are relatively displaced in a steering stabilization frequency domain; and said response control section performs pole-and-zero cancellation so as to cancel said characteristic of said vibration mode. a feedforward control section that inputs input angle information and calculates a first compensation signal compensating said current command value; a feedback control section that inputs output angle information and calculates a second compensation signal compensating said current command value; and a response control section that adjusts said current command value based on said first compensation signal and said second compensation signal; characterised in that said feedback control section arranges a pole of a characteristic of a vibration mode where steering wheel inertia and motor inertia that constitute said electric power steering apparatus are relatively displaced in a steering stabilization frequency domain; and said response control section performs pole-and-zero cancellation so as to cancel said characteristic of said vibration mode.
A thermoplastic elastomer composition comprising a hydrogenated block copolymer (A) and a propylene polymer (B), wherein the hydrogenated block copolymer (A) is a hydrogenated product of a block copolymer having at least two polymer blocks P that contain 50 mol% or more of an aromatic vinyl compound unit and at least one polymer block Q that contains 50 mol% or more of a conjugated diene compound unit; a total content of the aromatic vinyl compound unit in the hydrogenated block copolymer (A) is from 8 to 25 % by mass; and the thermoplastic elastomer composition contains, as the hydrogenated block copolymer (A), a hydrogenated block copolymer having a melt flow rate (MFR) of 50 to 280 g/10 min as measured in accordance with ISO 1133 at 230°C under a load of 2.16 kg, and a hydrogenated block copolymer having a melt flow rate (MFR) of 0.5 to 39 g/10 min as measured in accordance with ISO 1133 at 230°C under a load of 2.16 kg.
A parameter determination device comprising: a spectral envelope estimating portion for performing estimation of a spectra envelope using a parameter η 0 specified in a predetermined method, regarding the η 0 -th power of absolute values of a frequency domain sample sequence corresponding to a time-series signal which is a sound signal as a power spectrum on the assumption that the parameter η 0 and a parameter η are positive numbers; a whitened spectral sequence generating portion for obtaining a whitened spectral sequence which is a sequence obtained by dividing the frequency domain sample sequence by the spectral envelope; and a parameter acquiring portion for determining such a parameter η that a generalized Gaussian distribution with the parameter η as a shape parameter approximates a histogram of the whitened spectral sequence, wherein the parameter determination device is adapted to determine the parameter η for each frame; and is characterised in that the parameter η 0 specified in the predetermined method for a frame for which the parameter η is to be determined currently is η determined for a frame before the frame for which the parameter η is to be determined currently. a spectral envelope estimating portion for performing estimation of a spectra envelope using a parameter η 0 specified in a predetermined method, regarding the η 0 -th power of absolute values of a frequency domain sample sequence corresponding to a time-series signal which is a sound signal as a power spectrum on the assumption that the parameter η 0 and a parameter η are positive numbers; a whitened spectral sequence generating portion for obtaining a whitened spectral sequence which is a sequence obtained by dividing the frequency domain sample sequence by the spectral envelope; and a parameter acquiring portion for determining such a parameter η that a generalized Gaussian distribution with the parameter η as a shape parameter approximates a histogram of the whitened spectral sequence, wherein the parameter determination device is adapted to determine the parameter η for each frame; and is characterised in that the parameter η 0 specified in the predetermined method for a frame for which the parameter η is to be determined currently is η determined for a frame before the frame for which the parameter η is to be determined currently.
A method for wireless communication performed by a user equipment, UE , comprising: establishing a first data session with a first user plane function, UPF, (220-f) of a network with a first protocol data unit, PDU, session ID; receiving , via an Access and Mobility Management Function, AMF, of the network, a network access stratum, NAS, message comprising a request to establish a second data session with the network, the NAS message sent by a Session Management Function, SMF, of the network, in response to a determination that a user plane relocation is to be performed; and performing a PDU session modification procedure , in response to receiving the NAS message that comprises the request to establish the second data session with the network, the second data session being with a second UPF (220-g) of the network, wherein the PDU session modification procedure comprises providing the first PDU session ID and an indication that the second data session is for user plane relocation. establishing a first data session with a first user plane function, UPF, (220-f) of a network with a first protocol data unit, PDU, session ID; receiving , via an Access and Mobility Management Function, AMF, of the network, a network access stratum, NAS, message comprising a request to establish a second data session with the network, the NAS message sent by a Session Management Function, SMF, of the network, in response to a determination that a user plane relocation is to be performed; and performing a PDU session modification procedure , in response to receiving the NAS message that comprises the request to establish the second data session with the network, the second data session being with a second UPF (220-g) of the network, wherein the PDU session modification procedure comprises providing the first PDU session ID and an indication that the second data session is for user plane relocation.
A radome assembly for an aircraft , comprising: a shell having an elongated shape, wherein: the shell defines a first opening which extends through the shell having a diameter (D) of a first dimension and is positioned within a first end portion of the shell; and the shell defines a second opening which extends through the shell having an elongated shape which extends along a length of the shell, has a second dimension (D') which is greater than the first dimension (D) and is spaced apart along the length of the shell from the first opening; and a first fastener extends through the first opening and is engaged with a first surface of a first structural element connectable to the aircraft and the first fastener is configured to resist movement of the shell and the first structural element relative to one another; and a second fastener extends through the second opening and is engaged with a second surface of the first structural element so as to secure the shell and the first structural element together such that the shell is moveable along the length of the shell relative to the first structural element as a result of thermal induced expansion or contraction of the shell. a shell having an elongated shape, wherein: the shell defines a first opening which extends through the shell having a diameter (D) of a first dimension and is positioned within a first end portion of the shell; and the shell defines a second opening which extends through the shell having an elongated shape which extends along a length of the shell, has a second dimension (D') which is greater than the first dimension (D) and is spaced apart along the length of the shell from the first opening; and the shell defines a first opening which extends through the shell having a diameter (D) of a first dimension and is positioned within a first end portion of the shell; and the shell defines a second opening which extends through the shell having an elongated shape which extends along a length of the shell, has a second dimension (D') which is greater than the first dimension (D) and is spaced apart along the length of the shell from the first opening; and a first fastener extends through the first opening and is engaged with a first surface of a first structural element connectable to the aircraft and the first fastener is configured to resist movement of the shell and the first structural element relative to one another; and a second fastener extends through the second opening and is engaged with a second surface of the first structural element so as to secure the shell and the first structural element together such that the shell is moveable along the length of the shell relative to the first structural element as a result of thermal induced expansion or contraction of the shell.
A method performed by a transmitting device, the method comprising: acquiring (1m-05) data; generating (1m-10) a packet data convergence protocol, PDCP, protocol data unit, PDU, based on the data in a PDCP layer of the transmitting device; delivering (1m-20) the PDCP PDU to a radio link control, RLC, layer of the transmitting device; generating (1m-35) an RLC PDU including an RLC header and an RLC service data unit, SDU, in an RLC layer of the transmitting device based on the PDCP PDU before receiving information associated with a resource allocation for transmitting the data; generating (1m-55, 1m-60) a medium access control, MAC, PDU in a MAC layer of the transmitting device based on the RLC PDU; and transmitting, to a receiving device, the MAC PDU, wherein the MAC PDU consists of at least one MAC SDU and at least one MAC control element, and wherein the at least one MAC control element is placed after all of the at least one MAC SDU in the MAC PDU. acquiring (1m-05) data; generating (1m-10) a packet data convergence protocol, PDCP, protocol data unit, PDU, based on the data in a PDCP layer of the transmitting device; delivering (1m-20) the PDCP PDU to a radio link control, RLC, layer of the transmitting device; generating (1m-35) an RLC PDU including an RLC header and an RLC service data unit, SDU, in an RLC layer of the transmitting device based on the PDCP PDU before receiving information associated with a resource allocation for transmitting the data; generating (1m-55, 1m-60) a medium access control, MAC, PDU in a MAC layer of the transmitting device based on the RLC PDU; and transmitting, to a receiving device, the MAC PDU, wherein the MAC PDU consists of at least one MAC SDU and at least one MAC control element, and wherein the at least one MAC control element is placed after all of the at least one MAC SDU in the MAC PDU.