mhurhangee/patent-ind-claim-en huggingface dataset:
A lead-acid battery comprising at least one capacitor electrode , the capacitor electrode , comprising: - a lead-based current collector; and - capacitor active material disposed on the current collector, the capacitor active material comprising: - a high surface area carbon capacitive material, wherein the high surface area carbon capacitive material is activated carbon having a surface area greater than 2000 m 2 /g; - a conductive additive, which is a conductive carbon material having a lower surface area than the activated carbon, wherein the conductive carbon material is a carbon black having a surface area less than 100 m 2 /g; - a graphite extender; and - carbon fibers treated with a non-ionic surfactant which is adsorbed onto the carbon fibers to form surface-modified carbon fibers. - a lead-based current collector; and - capacitor active material disposed on the current collector, the capacitor active material comprising: - a high surface area carbon capacitive material, wherein the high surface area carbon capacitive material is activated carbon having a surface area greater than 2000 m 2 /g; - a conductive additive, which is a conductive carbon material having a lower surface area than the activated carbon, wherein the conductive carbon material is a carbon black having a surface area less than 100 m 2 /g; - a graphite extender; and - carbon fibers treated with a non-ionic surfactant which is adsorbed onto the carbon fibers to form surface-modified carbon fibers. - a high surface area carbon capacitive material, wherein the high surface area carbon capacitive material is activated carbon having a surface area greater than 2000 m 2 /g; - a conductive additive, which is a conductive carbon material having a lower surface area than the activated carbon, wherein the conductive carbon material is a carbon black having a surface area less than 100 m 2 /g; - a graphite extender; and - carbon fibers treated with a non-ionic surfactant which is adsorbed onto the carbon fibers to form surface-modified carbon fibers.
A memory device comprising: a register selectively writeable by the memory device (120; 220) with an impedance calibration update flag , to indicate to a memory controller (110; 210) that the memory device (120; 220) is ready to perform an I/O impedance calibration update; and I/O, input/output, hardware (122; 230) to receive commands from the memory controller (110; 210) including an impedance calibration latch signal (ZQCAL LATCH) in response to detection by the memory controller (110; 210) of the impedance calibration update flag being set, to set a new calibration setting in the memory device (120; 220), wherein the memory device (120; 220) is configured to monitor one or more sensors to determine whether to set the impedance calibration update flag , the one or more sensors monitoring one or more performance conditions that affect I/O impedance of the memory device (120; 220), and determine, based on values read from the one or more sensors , if a change in a performance condition exceeds a threshold, and only set the impedance calibration update flag when the change in performance condition exceeds the threshold. a register selectively writeable by the memory device (120; 220) with an impedance calibration update flag , to indicate to a memory controller (110; 210) that the memory device (120; 220) is ready to perform an I/O impedance calibration update; and I/O, input/output, hardware (122; 230) to receive commands from the memory controller (110; 210) including an impedance calibration latch signal (ZQCAL LATCH) in response to detection by the memory controller (110; 210) of the impedance calibration update flag being set, to set a new calibration setting in the memory device (120; 220), wherein the memory device (120; 220) is configured to monitor one or more sensors to determine whether to set the impedance calibration update flag , the one or more sensors monitoring one or more performance conditions that affect I/O impedance of the memory device (120; 220), and determine, based on values read from the one or more sensors , if a change in a performance condition exceeds a threshold, and only set the impedance calibration update flag when the change in performance condition exceeds the threshold.
Crimp barrel prepared for crimping in order to crimp an electrical conductor of a predetermined diameter , wherein said crimp barrel comprises a crimp base that is disposed between two crimp wings and that is provided with a support region having a first curvature for said electrical conductor , wherein a respective region with a second curvature is disposed on both sides of said support region , wherein a curvature diameter of said second curvature is smaller than a curvature diameter of said first curvature , and wherein said crimp base is less rigid than said crimp wings , characterized in that said crimp base is curved end-to-end having said first curvature and in that said region having said second curvature is a respective section of said respective crimp wing respectively adjoining said crimp base .
A method for estimating whether a female is pregnant, said method comprising: - measuring allele presences (D) for a plurality of genetic markers of at least one chromosome, different from the X and Y chromosome, in a sample of cell-free DNA from a potentially pregnant female; each allele presence representing the presence at a genetic marker of at least one of: a reference allele of maternal or foetal origin, and an alternative allele of maternal or foetal origin; - based on said measured allele presences, determining a homozygous fraction (F ho ) thereof which is associated with purely homozygous genetic markers; and - estimating whether the female is pregnant based on said fraction, wherein the homozygous fraction is larger for samples of non-pregnant females than for samples of pregnant females. - measuring allele presences (D) for a plurality of genetic markers of at least one chromosome, different from the X and Y chromosome, in a sample of cell-free DNA from a potentially pregnant female; each allele presence representing the presence at a genetic marker of at least one of: a reference allele of maternal or foetal origin, and an alternative allele of maternal or foetal origin; - based on said measured allele presences, determining a homozygous fraction (F ho ) thereof which is associated with purely homozygous genetic markers; and - estimating whether the female is pregnant based on said fraction, wherein the homozygous fraction is larger for samples of non-pregnant females than for samples of pregnant females.
A method for detecting unauthorized alteration with regard to a certificate store, the method comprising: tracking changes in a file system or a system registry of an operating system of a device with regard to the certificate store; detecting an alteration or an attempted alteration with regard to the certificate store and sending information about the alternation or the attempted alteration to an analysis module, when the alteration or the attempted alteration occurs; obtaining information about at least one certificate with which a change in the file system or the system registry with regard to the certificate store is connected, and determining a class of the change, where the class of the change is determined from a portion of the respective system registry or the file system in which the change occurred and from an action associated with the change; and forming N-dimensional vectors from the obtained information; comparing the obtained information about the at least one certificate to similar information on known certificates, wherein the comparison of the certificates is based on a comparison of N-dimensional vectors formed from the obtained information; and detecting an unauthorized alteration with regard to the certificate store on the device based on comparison results. tracking changes in a file system or a system registry of an operating system of a device with regard to the certificate store; detecting an alteration or an attempted alteration with regard to the certificate store and sending information about the alternation or the attempted alteration to an analysis module, when the alteration or the attempted alteration occurs; obtaining information about at least one certificate with which a change in the file system or the system registry with regard to the certificate store is connected, and determining a class of the change, where the class of the change is determined from a portion of the respective system registry or the file system in which the change occurred and from an action associated with the change; and forming N-dimensional vectors from the obtained information; comparing the obtained information about the at least one certificate to similar information on known certificates, wherein the comparison of the certificates is based on a comparison of N-dimensional vectors formed from the obtained information; and detecting an unauthorized alteration with regard to the certificate store on the device based on comparison results.
A method for measuring a power-on reset time, comprising: detecting a power supply pin voltage of a chip , and recording a time point at which the power supply pin voltage reaches a preset voltage as a first time point; detecting an output signal of a preset pin of the chip , and recording a time point at which the preset pin completes a pulse output for a first time after the chip is powered on as a second time point, and recording a time point at which the preset pin completes a pulse output for a second time after the chip is powered on as a third time point; wherein widths of the pulse output for the first time and for the second time are the same; computing the power-on reset time of the chip according to the first time point, the second time point and the third time point. detecting a power supply pin voltage of a chip , and recording a time point at which the power supply pin voltage reaches a preset voltage as a first time point; detecting an output signal of a preset pin of the chip , and recording a time point at which the preset pin completes a pulse output for a first time after the chip is powered on as a second time point, and recording a time point at which the preset pin completes a pulse output for a second time after the chip is powered on as a third time point; wherein widths of the pulse output for the first time and for the second time are the same; computing the power-on reset time of the chip according to the first time point, the second time point and the third time point.
A system , comprising: a fuel level sensing probe inside a fuel tank ; an exciter wire bundle configured to electrically connect the fuel level sensing probe to an electric power source outside the fuel tank , wherein the exciter wire bundle comprises an excitation wire and a grounded guard wire , and wherein the excitation wire and the grounded guard wire each comprise a resistive non-metallic wire; and a return signal wire bundle configured to electrically connect the fuel level sensing probe to a device configured to measure a quantity of fuel within the fuel tank by using a return signal from the fuel level sensing probe , wherein the return signal wire bundle comprises a return signal wire and a grounded guard wire , and wherein the grounded guard wire of the return signal wire bundle and the grounded guard wire of the exciter wire bundle are configured to shield the return signal wire from electromagnetic interference, and wherein the return signal wire and the grounded guard wire each comprise a resistive non-metallic wire. a fuel level sensing probe inside a fuel tank ; an exciter wire bundle configured to electrically connect the fuel level sensing probe to an electric power source outside the fuel tank , wherein the exciter wire bundle comprises an excitation wire and a grounded guard wire , and wherein the excitation wire and the grounded guard wire each comprise a resistive non-metallic wire; and a return signal wire bundle configured to electrically connect the fuel level sensing probe to a device configured to measure a quantity of fuel within the fuel tank by using a return signal from the fuel level sensing probe , wherein the return signal wire bundle comprises a return signal wire and a grounded guard wire , and wherein the grounded guard wire of the return signal wire bundle and the grounded guard wire of the exciter wire bundle are configured to shield the return signal wire from electromagnetic interference, and wherein the return signal wire and the grounded guard wire each comprise a resistive non-metallic wire.
Method for generating a signal indicative for nozzle maintenance, comprising: • feeding modeling material using feeding means through a feed channel of a printhead to a nozzle of the printhead in a three-dimensional modeling system ; • determining a parameter indicative of a fluid resistance of modeling material within said nozzle, comprising • determining a flowrate of the modeling material within the feed channel ; • determining a pressure exerted on the modeling material within the feed channel and determining a pressure exerted on the modeling material outside the feed channel; • determining a pressure difference between the pressure exerted on the modeling material within the feed channel and the pressure exerted on the modeling material outside the feed channel; and • calculating said parameter from the determined flow rate and the determined pressure difference; • comparing said parameter with a predetermined range ; and • generating said signal if said parameter is out of the predetermined range. • feeding modeling material using feeding means through a feed channel of a printhead to a nozzle of the printhead in a three-dimensional modeling system ; • determining a parameter indicative of a fluid resistance of modeling material within said nozzle, comprising • determining a flowrate of the modeling material within the feed channel ; • determining a pressure exerted on the modeling material within the feed channel and determining a pressure exerted on the modeling material outside the feed channel; • determining a pressure difference between the pressure exerted on the modeling material within the feed channel and the pressure exerted on the modeling material outside the feed channel; and • calculating said parameter from the determined flow rate and the determined pressure difference; • determining a flowrate of the modeling material within the feed channel ; • determining a pressure exerted on the modeling material within the feed channel and determining a pressure exerted on the modeling material outside the feed channel; • determining a pressure difference between the pressure exerted on the modeling material within the feed channel and the pressure exerted on the modeling material outside the feed channel; and • calculating said parameter from the determined flow rate and the determined pressure difference; • comparing said parameter with a predetermined range ; and • generating said signal if said parameter is out of the predetermined range.
A road paving machine comprising: a tractor ; a hopper that is provided in front of the tractor and that is adapted to receive a paving material (PV); a conveyor (CV) that is adapted to feed the paving material (PV) in the hopper to a rear of the tractor ; a screw (SC) that is adapted to spread the paving material (PV) fed by the conveyor (CV) at the rear of the tractor ; a screed that is adapted to level the paving material (PV) spread by the screw (SC) at a rear of the screw (SC) and that is capable of expanding and contracting in a vehicle width direction; an information acquisition device that is disposed out of a range of a width (WC) of the tractor and that is adapted to acquire information of surroundings and comprises an object detection device or a camera; and characterized by an obstacle detection device that is adapted to detect an obstacle in a collision course (T1) of the information acquisition device. a tractor ; a hopper that is provided in front of the tractor and that is adapted to receive a paving material (PV); a conveyor (CV) that is adapted to feed the paving material (PV) in the hopper to a rear of the tractor ; a screw (SC) that is adapted to spread the paving material (PV) fed by the conveyor (CV) at the rear of the tractor ; a screed that is adapted to level the paving material (PV) spread by the screw (SC) at a rear of the screw (SC) and that is capable of expanding and contracting in a vehicle width direction; an information acquisition device that is disposed out of a range of a width (WC) of the tractor and that is adapted to acquire information of surroundings and comprises an object detection device or a camera; and characterized by an obstacle detection device that is adapted to detect an obstacle in a collision course (T1) of the information acquisition device.
A focusing system within an imaging device , comprising: a first lens ; a memory component configured to store lens parameters of the first lens and regions of focus corresponding to the lens parameters, wherein the lens parameters include a focal length and an aperture of the first lens when focused at a particular focal distance; and a processor coupled to the memory, a range finding system, and the first lens , the range finding system configured to send to the processor information indicative of a distance from the imaging device to a target object ; and the processor configured to focus the first lens on the target object at a first instance of time, obtain lens parameters of the first lens when focused on the target object at the first instance of time, determine a region of focus of the first lens based on the distance at the first instance of time and lens parameters at the first instance of time, wherein the region of focus is a region along the optical axis of the first lens in a focal direction; receive, from the range finding system, information indicative of distances from the imaging device to the target object over a period of time, the first instance of time beginning the period of time, and at a second instance of time, trigger the first lens to re-focus on the target object if the distance to the target object indicates the target object is outside of the region of focus, the period of time ending at the second instance of time. a first lens ; a memory component configured to store lens parameters of the first lens and regions of focus corresponding to the lens parameters, wherein the lens parameters include a focal length and an aperture of the first lens when focused at a particular focal distance; and a processor coupled to the memory, a range finding system, and the first lens , the range finding system configured to send to the processor information indicative of a distance from the imaging device to a target object ; and the processor configured to focus the first lens on the target object at a first instance of time, obtain lens parameters of the first lens when focused on the target object at the first instance of time, determine a region of focus of the first lens based on the distance at the first instance of time and lens parameters at the first instance of time, wherein the region of focus is a region along the optical axis of the first lens in a focal direction; receive, from the range finding system, information indicative of distances from the imaging device to the target object over a period of time, the first instance of time beginning the period of time, and at a second instance of time, trigger the first lens to re-focus on the target object if the distance to the target object indicates the target object is outside of the region of focus, the period of time ending at the second instance of time.
A method of transmitting an uplink signal by a user equipment, UE, to a base station in a wireless communication system supporting an unlicensed band, the method comprising: receiving from the base station, uplink scheduling information for uplink transmission for a subframe #n, wherein n is a natural number; based on a first channel access priority class parameter of a UE's ongoing listen before talk, LBT, being equal to or larger than a second channel access priority class parameter of a LBT for subframe #n, continuously performing the UE's ongoing LBT; based on the first channel access priority class parameter of the UE's ongoing LBT being less than the second channel access priority class parameter of the LBT for subframe #n, performing the LBT for subframe #n other than the UE's ongoing LBT; and performing uplink transmission based on a result of the performed LBT by the UE. receiving from the base station, uplink scheduling information for uplink transmission for a subframe #n, wherein n is a natural number; based on a first channel access priority class parameter of a UE's ongoing listen before talk, LBT, being equal to or larger than a second channel access priority class parameter of a LBT for subframe #n, continuously performing the UE's ongoing LBT; based on the first channel access priority class parameter of the UE's ongoing LBT being less than the second channel access priority class parameter of the LBT for subframe #n, performing the LBT for subframe #n other than the UE's ongoing LBT; and performing uplink transmission based on a result of the performed LBT by the UE.
Foamable polypropylene composition (C) comprising a) a heterophasic propylene copolymer (HECO1) having a melt flow rate MFR 2 (230°C, 2.16 kg) measured according to ISO 1133 in the range from 3 to 10 g/10min and a xylene cold soluble (XCS) fraction determined at 25°C according ISO 16152 in the range of 10.0 to 30.0 wt.-% , said heterophasic propylene copolymer (HECO1) comprising i) a matrix (M1) being a propylene polymer (PP1) and ii) an elastomeric propylene copolymer (E1) being dispersed in said matrix, b) a propylene homopolymer (H-PP), c) optionally an inorganic filler (F), wherein the inorganic filler (F) is talc and/or carbon black, and d) at least one foaming agent (FA) selected from chemical and physical foaming agents, whereby the composition (C) comprises: i) 68.0 to 96.99 wt.-% of the heterophasic propylene copolymer (HECO1), ii) 3.0 to 30.0 wt.-% of the propylene homopolymer (H-PP), iii) 0 to 18.0 wt.-% of the inorganic filler (F), and iv) 0.01 to 4.0 wt.-% of the foaming agent (FA), based on the overall polypropylene composition (C). a) a heterophasic propylene copolymer (HECO1) having a melt flow rate MFR 2 (230°C, 2.16 kg) measured according to ISO 1133 in the range from 3 to 10 g/10min and a xylene cold soluble (XCS) fraction determined at 25°C according ISO 16152 in the range of 10.0 to 30.0 wt.-% , said heterophasic propylene copolymer (HECO1) comprising i) a matrix (M1) being a propylene polymer (PP1) and ii) an elastomeric propylene copolymer (E1) being dispersed in said matrix, i) a matrix (M1) being a propylene polymer (PP1) and ii) an elastomeric propylene copolymer (E1) being dispersed in said matrix, b) a propylene homopolymer (H-PP), c) optionally an inorganic filler (F), wherein the inorganic filler (F) is talc and/or carbon black, and d) at least one foaming agent (FA) selected from chemical and physical foaming agents, whereby the composition (C) comprises: i) 68.0 to 96.99 wt.-% of the heterophasic propylene copolymer (HECO1), ii) 3.0 to 30.0 wt.-% of the propylene homopolymer (H-PP), iii) 0 to 18.0 wt.-% of the inorganic filler (F), and iv) 0.01 to 4.0 wt.-% of the foaming agent (FA), i) 68.0 to 96.99 wt.-% of the heterophasic propylene copolymer (HECO1), ii) 3.0 to 30.0 wt.-% of the propylene homopolymer (H-PP), iii) 0 to 18.0 wt.-% of the inorganic filler (F), and iv) 0.01 to 4.0 wt.-% of the foaming agent (FA),