mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring a battery by a battery management system, BMS, the battery comprising a plurality of cell groups, each cell group comprising one or more battery cells and a corresponding cell monitoring device, CMD, the method comprising: receiving , by the BMS from a first CMD (400, 600, 720 1 , 1020, 1320) of a first cell group in the plurality of cell groups (712 1 , 712 2 , 712 3 , 712 4 , 712 N ), a fault indicator and fault data stored at the first CMD, wherein: the fault indicator indicates that the first CMD determined a fault at the first cell group based on one or more measurements of cell properties obtained at one or more cells in the first cell group by at least one sensor of the first CMD, the fault data relates to the determined fault and comprises a timestamp indicating when the first CMD determined the fault; and processing by the BMS the received fault indicator and fault data to determine an action responsive to the fault determined by the first CMD independently of whether the first CMD was connected to the BMS or in communication with BMS. receiving , by the BMS from a first CMD (400, 600, 720 1 , 1020, 1320) of a first cell group in the plurality of cell groups (712 1 , 712 2 , 712 3 , 712 4 , 712 N ), a fault indicator and fault data stored at the first CMD, wherein: the fault indicator indicates that the first CMD determined a fault at the first cell group based on one or more measurements of cell properties obtained at one or more cells in the first cell group by at least one sensor of the first CMD, the fault data relates to the determined fault and comprises a timestamp indicating when the first CMD determined the fault; and the fault indicator indicates that the first CMD determined a fault at the first cell group based on one or more measurements of cell properties obtained at one or more cells in the first cell group by at least one sensor of the first CMD, the fault data relates to the determined fault and comprises a timestamp indicating when the first CMD determined the fault; and processing by the BMS the received fault indicator and fault data to determine an action responsive to the fault determined by the first CMD independently of whether the first CMD was connected to the BMS or in communication with BMS.
Apparatus adapted to produce torsional-mode ultrasonic vibrations, comprising a coaxially-aligned array of piezo-electric ceramic elements having a hollow elongate conversion element extending from a distal end of the array, characterised in that a plurality of holes extend through a wall of the hollow elongate conversion element , said plurality of holes being so arranged as to form one or more rows of holes , wherein the or each said row of holes extends helically along and around the conversion element , characterised by each said hole being spaced from adjacent holes in the respective row , and each said hole being identical to each other said hole .
Linear path sensor for detecting a linear movement of an object, comprising a measurement value transducer , which is connectable/connected to the object and is embodied in a tubular fashion, and comprising at least one measurement coil arranged fixedly on or in a housing , wherein the measurement value transducer and the housing are arranged coaxially with respect to one another and the measurement value transducer is mounted displaceably relative to the measurement coil , and comprising a device for detecting the inductance of the measurement coil as a result of a displacement of the measurement value transducer , characterized in that the measurement value transducer has a cutout in its lateral wall , the width of said cutout varying in the longitudinal extent of the measurement value transducer .
A friction set for a railway disk brake system for railway rolling stock with one or two directions of movement (S1, S2) wherein said friction set is characterized in that it comprises: - a shoe holder comprising a receiving slideway ; - a friction shoe comprising a brake pad and a profiled shape configured for being slid into the receiving slideway , where the friction shoe comprises a pneumatic conduit connecting a first space (E1) delimited by a first surface of the friction shoe to a second space (E2) delimited by a second opposite surface the friction shoe ; - at least one through hole arranged in the shoe holder and laid out so as to be facing the pneumatic conduit ; and - a pneumatic junction ring laid out in the pneumatic conduit forming a pneumatic guide between the through hole of the shoe holder and the pneumatic conduit of the friction shoe . - a shoe holder comprising a receiving slideway ; - a friction shoe comprising a brake pad and a profiled shape configured for being slid into the receiving slideway , where the friction shoe comprises a pneumatic conduit connecting a first space (E1) delimited by a first surface of the friction shoe to a second space (E2) delimited by a second opposite surface the friction shoe ; - at least one through hole arranged in the shoe holder and laid out so as to be facing the pneumatic conduit ; and - a pneumatic junction ring laid out in the pneumatic conduit forming a pneumatic guide between the through hole of the shoe holder and the pneumatic conduit of the friction shoe .
An electrical connection (1; 1') for electrically connecting a flat connector (2; 2'; 2"), comprising a flat strip of electrically conductive material (20; 20'; 20") encased in a thin layer of non-conductive material, and an electrical cable (3; 3'; 3"), the electrical connection (1; 1') comprising a flat connector (2; 2'; 2") with an insulated portion (21; 21") and an exposed electrically conductive portion (20e; 20e"), an electrical cable (3; 3'; 3"), a first seal (6a; 6a"), a second seal and an enclosure , where the flat connector (2; 2'; 2") and the electrical cable (3; 3'; 3") are secured together in order to provide electrical contact between one another at the exposed electrically conductive portion (20e; 20e") of the flat connector (2; 2'; 2"), the first seal (6a; 6a") being outboard of the exposed electrically conductive portion (20e; 20e") of the flat connector (2; 2'; 2") whereby the enclosure encases the first seal (6a; 6a"), the second seal and the electrical contact and characterised in that the first seal (6a; 6a") is adjacent a distal edge of the exposed electrically conductive element (20e; 20e") of the flat connector (2; 2'; 2") and wherein the second seal contacts the insulated portion (21; 21") of the flat connector (2; 2'; 2") and the electrically conductive portion (20e; 20e") of the flat connector (2; 2'; 2"), whereby the electrical contact is free of the second seal .
A method of wireless communication comprising: identifying a downlink, DL, region of a subframe, wherein the subframe comprises the DL region, an uplink, UL, region, a guard region, and an additional region; identifying the UL region of the subframe, wherein a transmission on resources of the UL region is based at least in part on a timing relationship between the DL region and the UL region; and communicating during the DL region and the UL region according to the timing relationship, wherein the timing relationship between the DL region and the UL region comprises a minimum time duration used for subframes having separate regions for UL and DL communications, and wherein a first duration of the DL region and a second duration of the UL region are based at least in part on the minimum time duration. identifying a downlink, DL, region of a subframe, wherein the subframe comprises the DL region, an uplink, UL, region, a guard region, and an additional region; identifying the UL region of the subframe, wherein a transmission on resources of the UL region is based at least in part on a timing relationship between the DL region and the UL region; and communicating during the DL region and the UL region according to the timing relationship, wherein the timing relationship between the DL region and the UL region comprises a minimum time duration used for subframes having separate regions for UL and DL communications, and wherein a first duration of the DL region and a second duration of the UL region are based at least in part on the minimum time duration.
A verification method for verifying the wiring of a meter for measuring the consumption of electricity supplied by a network (2; 102) to an electrical installation (3; 103), the verification method being intended to verify that the wiring has been correctly carried out, the meter (1; 101) having an upstream phase terminal (7a; 107), a downstream phase terminal (8a; 108), and a cutoff member (10; 110) connected between the upstream phase terminal and the downstream phase terminal, the verification method comprising the following steps: - opening the cutoff member; - measuring an upstream phase voltage (Vam) upstream from the cutoff member and measuring a downstream phase voltage (Vav) downstream from the cutoff member; - detecting a potential wiring error, as a function of a measurement of the upstream phase voltage and a measurement of the downstream phase voltage; - if a wiring error is detected, generating a warning; - if no wiring error is detected, closing the cutoff member and putting the meter into a nominal mode of operation. - opening the cutoff member; - measuring an upstream phase voltage (Vam) upstream from the cutoff member and measuring a downstream phase voltage (Vav) downstream from the cutoff member; - detecting a potential wiring error, as a function of a measurement of the upstream phase voltage and a measurement of the downstream phase voltage; - if a wiring error is detected, generating a warning; - if no wiring error is detected, closing the cutoff member and putting the meter into a nominal mode of operation.
Composition cosmetic in the form of an oil-in-water emulsion comprising at least one fatty phase dispersed in an aqueous phase and comprising : a) at least one fatty acid sugar ester ; b) at least one sorbitan fatty acid ester; c) at least one polyglycerol fatty acid ester; d) at least one xanthan gum; and e) at least one gellan gum. a) at least one fatty acid sugar ester ; b) at least one sorbitan fatty acid ester; c) at least one polyglycerol fatty acid ester; d) at least one xanthan gum; and e) at least one gellan gum.
A computer implemented method, comprising: obtaining, in a remote computing system in near real time a set of machine performance metrics, from a plurality of different remote harvesting machines of a fleet of harvesting machines currently harvesting the same crop, indicative of performance of the plurality of different remote harvesting machines , via a communications system communicating with at least two of the different remote harvesting machines ; aggregating the received sets of machine performance metrics to obtain aggregated machine performance metrics, aggregated across the plurality of different remote harvesting machines ; generating a set of group performance metrics based on the aggregated machine performance metrics, controlling the communication system to send the set of group performance metrics to each of the plurality of different remote harvesting machines from which the set of performance metrics are obtained; and controlling the communication system to send the obtained machine performance metrics and the set of group performance metrics to a remote user computing system corresponding to the plurality of different remote harvesting machines , allowing a remote user of the remote user computing system to access information that compares the performance of various harvesting machines and their operators on a near real time basis; and wherein the group performance metrics are aggregated as average performance metrics for the harvesting machines over a recently passed time period. obtaining, in a remote computing system in near real time a set of machine performance metrics, from a plurality of different remote harvesting machines of a fleet of harvesting machines currently harvesting the same crop, indicative of performance of the plurality of different remote harvesting machines , via a communications system communicating with at least two of the different remote harvesting machines ; aggregating the received sets of machine performance metrics to obtain aggregated machine performance metrics, aggregated across the plurality of different remote harvesting machines ; generating a set of group performance metrics based on the aggregated machine performance metrics, controlling the communication system to send the set of group performance metrics to each of the plurality of different remote harvesting machines from which the set of performance metrics are obtained; and controlling the communication system to send the obtained machine performance metrics and the set of group performance metrics to a remote user computing system corresponding to the plurality of different remote harvesting machines , allowing a remote user of the remote user computing system to access information that compares the performance of various harvesting machines and their operators on a near real time basis; and wherein the group performance metrics are aggregated as average performance metrics for the harvesting machines over a recently passed time period.
A signal sending method for supporting a transmission of two frequency-division signals using a same time domain symbol, comprising: mapping , by a sending device, a first sequence onto M even-numbered subcarriers in 2 M subcarriers, and mapping a second sequence onto M odd-numbered subcarriers in the 2 M subcarriers, wherein the first sequence is one of a third sequence and a fourth sequence, the second sequence is the other of the third sequence and the fourth sequence, the 2 M subcarriers are subcarriers on a same time domain symbol; before the mapping, generating the third sequence and the fourth sequence, wherein the fourth sequence is a sequence carrying M first information elements, and for elements of a second time domain sequence corresponding to the fourth sequence and a first time domain sequence corresponding to the third sequence at a same moment, when a complex factor is taken out, one of the first time domain sequence and the second time domain sequence is an in-phase component, and the other is a quadrature component, wherein the complex factor is an element of a sequence with a low peak-to-average power ratio; transforming , by the sending device, sequences mapped onto the 2 M subcarriers to a time domain to generate transmit signals; and sending , by the sending device, the transmit, signals. mapping , by a sending device, a first sequence onto M even-numbered subcarriers in 2 M subcarriers, and mapping a second sequence onto M odd-numbered subcarriers in the 2 M subcarriers, wherein the first sequence is one of a third sequence and a fourth sequence, the second sequence is the other of the third sequence and the fourth sequence, the 2 M subcarriers are subcarriers on a same time domain symbol; before the mapping, generating the third sequence and the fourth sequence, wherein the fourth sequence is a sequence carrying M first information elements, and for elements of a second time domain sequence corresponding to the fourth sequence and a first time domain sequence corresponding to the third sequence at a same moment, when a complex factor is taken out, one of the first time domain sequence and the second time domain sequence is an in-phase component, and the other is a quadrature component, wherein the complex factor is an element of a sequence with a low peak-to-average power ratio; transforming , by the sending device, sequences mapped onto the 2 M subcarriers to a time domain to generate transmit signals; and sending , by the sending device, the transmit, signals.
A calculation method of rock water saturation, characterized in that the said rock water saturation is calculated by formula : Sw=aD fc +b; in the formula : Sw is water saturation, %; a is coefficient, (m·Hz)/F; b is regression parameter, nondimensional; D fc is permittivity dispersion, F/(m·Hz); D fc is calculated by formula ; D fc = dC p df = C 0 D c f − Dc + 1 in the formula : Cp-permittivity, F/m; D c -permittivity dispersion index, nondimensional; f-frequency, Hz; C 0 -permittivity coefficient, F; Cp, C 0 and D c are related by formula : Cp = C 0 f − Dc comprising the following steps: measuring the geometric diameter and weight of the core; measuring rock water saturation by displacing saturation; completely saturating the rock with saline solution of a certain concentration, with the first saturation Sw=100%; measuring the permittivity parameter of the rock in a frequency band (1Hz-10kHz) in case of Sw=100%, and saving relevant data; changing the rock water saturation by displacing saturation, reducing the rock water saturation, and then measuring the permittivity parameter of the rock in the same frequency band after displacement; establishing a Cp-f cross plot by fitting to obtain a permittivity-frequency index relation equation as shown in the formula by fitting, wherein the fitting parameters in the formula are C 0 and D c ; calculating dispersion D fc for each saturation level according to the formula ; and saving core saturation and the calculated dispersion data, and establishing an Sw-D fc cross plot by fitting said saved values to obtain a water saturation-dispersion relation equation according to the formula . Sw is water saturation, %; a is coefficient, (m·Hz)/F; b is regression parameter, nondimensional; D fc is permittivity dispersion, F/(m·Hz); D fc is calculated by formula ; D fc = dC p df = C 0 D c f − Dc + 1 Cp-permittivity, F/m; D c -permittivity dispersion index, nondimensional; f-frequency, Hz; C 0 -permittivity coefficient, F; measuring the geometric diameter and weight of the core; measuring rock water saturation by displacing saturation; completely saturating the rock with saline solution of a certain concentration, with the first saturation Sw=100%; measuring the permittivity parameter of the rock in a frequency band (1Hz-10kHz) in case of Sw=100%, and saving relevant data; changing the rock water saturation by displacing saturation, reducing the rock water saturation, and then measuring the permittivity parameter of the rock in the same frequency band after displacement; establishing a Cp-f cross plot by fitting to obtain a permittivity-frequency index relation equation as shown in the formula by fitting, wherein the fitting parameters in the formula are C 0 and D c ; calculating dispersion D fc for each saturation level according to the formula ; and saving core saturation and the calculated dispersion data, and establishing an Sw-D fc cross plot by fitting said saved values to obtain a water saturation-dispersion relation equation according to the formula .
A remote control device to be applied in a construction machine, the remote control device comprising: an electric drive unit (31-34) controlling a control member ; a position detection unit detecting a position of the control member ; a control unit controlling operation of the electric drive unit (31-34); a reference position storage unit ; and an operation range setting unit setting an operation range of the control member from the reference position; characterized in that the reference position storage unit stores information related to a reference position of the control member ; the operation range setting unit sets the operation range based on an output of the electric drive unit (31-34) when the control member is displaced by the electric drive unit (31-34), wherein the electric drive unit (31-34) includes an electric motor , the operation range setting unit includes a torque determination unit determining whether or not an output torque of the electric motor has exceeded a determination threshold, the operation range setting unit sets the position of the control member when the output torque exceeds the determination threshold as a boundary position of the operation range, and the control unit performs control in which the control member is moved to be displaced in a first direction, stops movement of the control member when the output torque exceeds the determination threshold, and performs control in which the control member is moved to be displaced in a second direction toward a side opposite to the first direction after the control member stops. an electric drive unit (31-34) controlling a control member ; a position detection unit detecting a position of the control member ; a control unit controlling operation of the electric drive unit (31-34); a reference position storage unit ; and an operation range setting unit setting an operation range of the control member from the reference position; characterized in that the reference position storage unit stores information related to a reference position of the control member ; the operation range setting unit sets the operation range based on an output of the electric drive unit (31-34) when the control member is displaced by the electric drive unit (31-34), wherein the electric drive unit (31-34) includes an electric motor , the operation range setting unit includes a torque determination unit determining whether or not an output torque of the electric motor has exceeded a determination threshold, the operation range setting unit sets the position of the control member when the output torque exceeds the determination threshold as a boundary position of the operation range, and the control unit performs control in which the control member is moved to be displaced in a first direction, stops movement of the control member when the output torque exceeds the determination threshold, and performs control in which the control member is moved to be displaced in a second direction toward a side opposite to the first direction after the control member stops.
A fiber-reinforced resin composite body comprising: a thermosetting resin ; a plurality of reinforcing fiber layers stacked in the thermosetting resin ; and a thermoplastic resin dispersed in a form of particles in the thermosetting resin between the plurality of reinforcing fiber layers , wherein the thermoplastic resin is at least one selected from the group consisting of polyetherimide resins, polysulfone resins, and polyethersulfone resins, and characterized in that the thermoplastic resin has a rate of a number of particles having a major axis of 3 μm or less to a total number of particles including the thermoplastic resin , the rate being 80% or more. a thermosetting resin ; a plurality of reinforcing fiber layers stacked in the thermosetting resin ; and a thermoplastic resin dispersed in a form of particles in the thermosetting resin between the plurality of reinforcing fiber layers , wherein the thermoplastic resin is at least one selected from the group consisting of polyetherimide resins, polysulfone resins, and polyethersulfone resins, and characterized in that the thermoplastic resin has a rate of a number of particles having a major axis of 3 μm or less to a total number of particles including the thermoplastic resin , the rate being 80% or more.