mhurhangee/ep-ind-claims huggingface dataset:
A user equipment operable to report periodic channel state information, CSI, configured in a specified transmission mode, having computer circuitry configured to: generate, at the user equipment, a plurality of CSI reports for transmission in a subframe for a plurality of CSI processes when the user equipment operates in a coordinated multipoint, CoMP, and carrier aggregation configuration, wherein each CSI report corresponds to a physical uplink control channel, PUCCH, reporting type, a CSI process having a CSI process index; drop CSI reports corresponding to CSI processes except a CSI process having a lowest CSI process index when the CSI reports have PUCCH reporting types of a same priority; drop CSI reports based on a serving cell index except a CSI report with a lowest serving cell index, when the CSI process indexes for the CSI reports are the same and the PUCCH reporting types for the CSI reports are the same; and report for transmission at least one CSI report. generate, at the user equipment, a plurality of CSI reports for transmission in a subframe for a plurality of CSI processes when the user equipment operates in a coordinated multipoint, CoMP, and carrier aggregation configuration, wherein each CSI report corresponds to a physical uplink control channel, PUCCH, reporting type, a CSI process having a CSI process index; drop CSI reports corresponding to CSI processes except a CSI process having a lowest CSI process index when the CSI reports have PUCCH reporting types of a same priority; drop CSI reports based on a serving cell index except a CSI report with a lowest serving cell index, when the CSI process indexes for the CSI reports are the same and the PUCCH reporting types for the CSI reports are the same; and report for transmission at least one CSI report.
A wireless charger for inductively charging a rechargeable battery of an implantable pulse generator that generates spinal cord stimulation signals for a human body, the wireless charger comprising: a processor; a charging coil which is placed on one side of a printed circuit board, the charging being adapted to be wirelessly coupled to a receiving coil of the implantable pulse generator to charge the rechargeable battery, wherein a ferrite plate is disposed between the charging coil and the printed circuit board; a frequency generator configured to generate a charging signal under control of the processor; a power amplifier configured to receive the charging signal and generate an amplified charging signal under control of the charging signal; a reflected impedance sensor coupled to the charging coil to detect a reflected impedance of the charging coil; a vibrator; and, an alignment circuit coupled to the reflected impedance sensor and the vibrator, the alignment circuit adapted to control the vibrator to output a tactile signal indicative of the alignment of the charging coil to the receiving coil based on the detected reflected impedance, wherein the charging coil is configured to receive the amplified charging signal. a processor; a charging coil which is placed on one side of a printed circuit board, the charging being adapted to be wirelessly coupled to a receiving coil of the implantable pulse generator to charge the rechargeable battery, wherein a ferrite plate is disposed between the charging coil and the printed circuit board; a frequency generator configured to generate a charging signal under control of the processor; a power amplifier configured to receive the charging signal and generate an amplified charging signal under control of the charging signal; a reflected impedance sensor coupled to the charging coil to detect a reflected impedance of the charging coil; a vibrator; and, an alignment circuit coupled to the reflected impedance sensor and the vibrator, the alignment circuit adapted to control the vibrator to output a tactile signal indicative of the alignment of the charging coil to the receiving coil based on the detected reflected impedance, wherein the charging coil is configured to receive the amplified charging signal.
A method for transferring a useful layer onto a support comprising the following steps: - forming a fragilisation plane 2 by implanting light species in a first substrate 1, so as to form a useful layer 3 between this plane and a surface of the first substrate 1; - applying the support onto the surface of the first substrate so as to form an assembly to be fractured; - fragilisation heat treating the assembly to be fractured; - initiating and propagating a fracture wave in the first substrate along the fragilisation plane; with the method being characterised in that: - the initiation of the fracture wave is located in a central zone of the fragilisation plane; and - the propagation speed of the fracture wave is controlled so as to have a speed higher than one third of the speed of the acoustic wave; so that the interactions of the fracture wave with acoustic vibrations emitted during its initiation and/or its propagation are limited to a peripheral zone of the useful layer. - forming a fragilisation plane 2 by implanting light species in a first substrate 1, so as to form a useful layer 3 between this plane and a surface of the first substrate 1; - applying the support onto the surface of the first substrate so as to form an assembly to be fractured; - fragilisation heat treating the assembly to be fractured; - initiating and propagating a fracture wave in the first substrate along the fragilisation plane; - the initiation of the fracture wave is located in a central zone of the fragilisation plane; and - the propagation speed of the fracture wave is controlled so as to have a speed higher than one third of the speed of the acoustic wave;
A method for fabricating coils comprising the steps of:. providing a plurality of liquid droplets in an emulsion of carrier liquid, each droplet having a diameter on length-scales ranging from hundreds of micrometers to nanometers and,. bringing a plurality of fibers into contact with the plurality of liquid droplets, wherein the radius of each liquid droplet is larger than a critical droplet radius R crit = αL BC, where L BC is the bending elastocapillary length which is defined as L BC = Er 3 / γ where E is the Young's modulus of each elastic fiber, r is the radius of the fiber and γ is the interfacial tension between the droplet and surrounding medium, and α is a numerical factor depending on the wetting parameters of the system, so that capillary forces induce the spontaneous winding of the fiber around the droplet, to fabricate a coil with a diameter in the range from hundreds of micrometers to nanometers, wherein the method is adapted for making a plurality of coils simultaneously.. providing a plurality of liquid droplets in an emulsion of carrier liquid, each droplet having a diameter on length-scales ranging from hundreds of micrometers to nanometers and,. bringing a plurality of fibers into contact with the plurality of liquid droplets, wherein the radius of each liquid droplet is larger than a critical droplet radius R crit = αL BC, where L BC is the bending elastocapillary length which is defined as L BC = Er 3 / γ where E is the Young's modulus of each elastic fiber, r is the radius of the fiber and γ is the interfacial tension between the droplet and surrounding medium, and α is a numerical factor depending on the wetting parameters of the system, so that capillary forces induce the spontaneous winding of the fiber around the droplet, to fabricate a coil with a diameter in the range from hundreds of micrometers to nanometers, wherein the method is adapted for making a plurality of coils simultaneously.
A module comprising a plurality of electrically connected thermoelectric elements which are disposed between a first and a second plate (2, 3), wherein a temperature gradient can be applied or tapped off between a hot and a cold side of each thermoelectric element and the thermoelectric elements rest with their hot side on the first plate and with their cold side on the second plate characterized in that - the thermoelectric elements are connected on their cold side non-positively to the second plate and - the thermoelectric elements are connected on their hot side in a material bonded manner to the first plate. - the thermoelectric elements are connected on their cold side non-positively to the second plate and - the thermoelectric elements are connected on their hot side in a material bonded manner to the first plate.
A method for producing a convolute paper core of a desired width and thickness, comprising: unwinding paper from a paper roll, thereby creating unwound paper; conveying said unwound paper to a cutting position in a feeding direction; cutting said unwound paper, thereby creating a paper sheet having a length L; conveying said paper sheet from said cutting position to a mandrel in a winding direction, wherein said winding direction is perpendicular to said feeding direction; adhesively and convolutely winding said paper sheet on said mandrel so as to produce a paper core, so that a width W of said paper core is equal to said length L; and repeating the steps of unwinding, conveying, cutting, conveying and adhesively and convolutely winding a plurality of paper sheets until said paper core has the desired thickness, wherein a subsequent paper sheet is conveyed to said mandrel and placed adjacent to or in contact with a preceding paper sheet before said preceding paper sheet is completely wound by said mandrel so as to form a sheet with a uniform thickness comprising both of the individual sheets. unwinding paper from a paper roll, thereby creating unwound paper; conveying said unwound paper to a cutting position in a feeding direction; cutting said unwound paper, thereby creating a paper sheet having a length L; conveying said paper sheet from said cutting position to a mandrel in a winding direction, wherein said winding direction is perpendicular to said feeding direction; adhesively and convolutely winding said paper sheet on said mandrel so as to produce a paper core, so that a width W of said paper core is equal to said length L; and repeating the steps of unwinding, conveying, cutting, conveying and adhesively and convolutely winding a plurality of paper sheets until said paper core has the desired thickness, wherein a subsequent paper sheet is conveyed to said mandrel and placed adjacent to or in contact with a preceding paper sheet before said preceding paper sheet is completely wound by said mandrel so as to form a sheet with a uniform thickness comprising both of the individual sheets.
Method for deactivating a high-voltage electrical system of a motor vehicle in order to perform maintenance work, comprising the steps of: - directing a first request to disconnect the high-voltage system to a first control system; - directing a second request to disconnect the high-voltage system to a second control system; - automatically disconnecting the high-voltage system by at least one of the control systems, the first control system being an engine controller and the second control system being a battery management system of the motor vehicle, and the directing of the second request having to occur within a defined time period after the directing of the first request in order to lead to the automatic disconnection of the high-voltage system. - directing a first request to disconnect the high-voltage system to a first control system; - directing a second request to disconnect the high-voltage system to a second control system; - automatically disconnecting the high-voltage system by at least one of the control systems, the first control system being an engine controller and the second control system being a battery management system of the motor vehicle, and the directing of the second request having to occur within a defined time period after the directing of the first request in order to lead to the automatic disconnection of the high-voltage system.
A method for determining a heart rate using a sound sensing means placed on an individual's trachea, comprising a prior step of recording (4.1) sound signals for a long duration, comprising the following step: - filtering (4.2) digital signals representative of the sound signals by using an adaptive filter, characterised in that it subsequently includes the following steps: - applying (4.3) to the signals obtained by the preceding step (4.2) a low pass filter in order to select signals included in a determined pass-band, - selecting (4.4) a first time portion of filtered digital signals having a determined duration, - intercorrelating (4.5), with a time portion, filtered digital signals which follows in time the first time portion and which is of the same duration, - searching (4.6) for the maximum intercorrelation for each portion of the time position, - calculating the time interval corresponding to this time position, and calculating the corresponding heart rate (4.7), - repeating the selection (4.4), intercorrelation (4.5), maximum search (4.6) and heart rate calculation (4.7) steps over the entire duration of recording, to obtain a time series of heart rates Sf. - filtering (4.2) digital signals representative of the sound signals by using an adaptive filter, - applying (4.3) to the signals obtained by the preceding step (4.2) a low pass filter in order to select signals included in a determined pass-band, - selecting (4.4) a first time portion of filtered digital signals having a determined duration, - intercorrelating (4.5), with a time portion, filtered digital signals which follows in time the first time portion and which is of the same duration, - searching (4.6) for the maximum intercorrelation for each portion of the time position, - calculating the time interval corresponding to this time position, and calculating the corresponding heart rate (4.7), - repeating the selection (4.4), intercorrelation (4.5), maximum search (4.6) and heart rate calculation (4.7) steps over the entire duration of recording, to obtain a time series of heart rates Sf.
Method for at least semi-autonomous parking of a motor vehicle in a parking space having a first region and a second region which is raised compared with the first region wherein a first torque is applied to a first wheel of the motor vehicle in order to carry out a first overcoming process of a junction between the first region and the second region, wherein a second torque higher than the first torque is applied to at least one second wheel of the motor vehicle in order to carry out a second overcoming process of the junction if it is detected that a first attempt at the first overcoming process of the first wheel to which the first torque was applied has failed, characterized in that the second torque for the at least one second wheel is determined as a function of at least one parameter which characterises the motor vehicle and/or the parking space, wherein a coefficient of friction of the first region is determined as the at least one parameter.
Lock comprising: - two substantially planar walls bearing a first pivoting link axis and a second pivoting link axis, the first and second axes being substantially perpendicular to the planes; - a catch capable of pivoting about the first axis, said catch comprising a hook capable of catching a striker wire; - a pawl capable of pivoting about the second axis, said pawl comprising a tooth capable of engaging with at least one notch (113, 114) formed on the catch; - a control lever capable of pivoting about the second axis, the lever comprising a means of driving the pawl rotationally about the second axis; said lock being characterized in that the control lever comprises means (118, 119) of securing closure of the lock, said securing means comprising a hook formed on the control lever and a stop disposed on the catch, substantially parallel to the first axis. - two substantially planar walls bearing a first pivoting link axis and a second pivoting link axis, the first and second axes being substantially perpendicular to the planes; - a catch capable of pivoting about the first axis, said catch comprising a hook capable of catching a striker wire; - a pawl capable of pivoting about the second axis, said pawl comprising a tooth capable of engaging with at least one notch (113, 114) formed on the catch; - a control lever capable of pivoting about the second axis, the lever comprising a means of driving the pawl rotationally about the second axis;
Device for treating and continuously compressing at least one gaseous fluid by contact with at least one liquid fluid, characterized in that it comprises: - a hydro-ejector simultaneously fed with at least one gaseous fluid and at least one pressurized liquid fluid, the outlet of which is connected to a separator vessel, - a separator vessel for separating the two fluids having, in the upper part, an outlet for discharging the gaseous fluid, - a heat exchanger positioned in the lower part inside the separator vessel, - a pump fed by the liquid fluid leaving the exchanger, said pump being connected to the feed circuit of the hydro-ejector and feeding it, at least partly, with liquid fluid, - a purge for feeding a regenerator with a portion of the liquid fluid, positioned downstream of the pump, - a finishing column for treating the gas positioned at the outlet of the gaseous fluid and directly connected to the separator vessel, said column comprising at least one liquid fluid manifold enabling liquid-gas scrubbing without plates or packing, and - a line for discharging the treated gaseous fluid positioned in the upper part of the column. - a hydro-ejector simultaneously fed with at least one gaseous fluid and at least one pressurized liquid fluid, the outlet of which is connected to a separator vessel, - a separator vessel for separating the two fluids having, in the upper part, an outlet for discharging the gaseous fluid, - a heat exchanger positioned in the lower part inside the separator vessel, - a pump fed by the liquid fluid leaving the exchanger, said pump being connected to the feed circuit of the hydro-ejector and feeding it, at least partly, with liquid fluid, - a purge for feeding a regenerator with a portion of the liquid fluid, positioned downstream of the pump, - a finishing column for treating the gas positioned at the outlet of the gaseous fluid and directly connected to the separator vessel, said column comprising at least one liquid fluid manifold enabling liquid-gas scrubbing without plates or packing, and - a line for discharging the treated gaseous fluid positioned in the upper part of the column.
A molding composition comprising from 29 to 89% by weight of at least one polyarylene ether sulfone having an average number of phenolic end groups per chain of from 0 to 0.2, from 0.5 to 20% by weight of a thermotropic polymer, from 0.5 to 10% by weight of a polyarylene ether having predominantly OH end groups, from 10 to 70% by weight of at least one fibrous or particulate filler, from 0 to 40% by weight of additives or processing aids, where the total of the proportions by weight is 100% by weight, based on the thermoplastic molding composition. from 29 to 89% by weight of at least one polyarylene ether sulfone having an average number of phenolic end groups per chain of from 0 to 0.2, from 0.5 to 20% by weight of a thermotropic polymer, from 0.5 to 10% by weight of a polyarylene ether having predominantly OH end groups, from 10 to 70% by weight of at least one fibrous or particulate filler, from 0 to 40% by weight of additives or processing aids,
A method for conducting site-directed modification to a target fragment of a target gene in a whole plant, comprising the step of: transiently expressing a site-directed nuclease in said plant, wherein a whole plant is used as the subject for transient expression, and wherein said site-directed nuclease targets and cleaves said target fragment, thereby achieving the site-directed modification via the self-DNA repairing of said plant, wherein the step of transiently expressing the site-directed nuclease comprises the following steps: a) delivering the site-directed nuclease or a genetic material for expressing the site-directed nuclease into said plant via a pollen tube, inflorescence, shoot apex or ovary after pollination, and b) growing the plant obtained in step a) in the absence of selection pressure, allowing the site-directed nuclease or the genetic material not integrated into the plant chromosome to be degraded, and wherein tissue culture is omitted; wherein said genetic material is a recombinant vector or a DNA linear fragment or an in vitro transcribed RNA. wherein the step of transiently expressing the site-directed nuclease comprises the following steps: a) delivering the site-directed nuclease or a genetic material for expressing the site-directed nuclease into said plant via a pollen tube, inflorescence, shoot apex or ovary after pollination, and b) growing the plant obtained in step a) in the absence of selection pressure, allowing the site-directed nuclease or the genetic material not integrated into the plant chromosome to be degraded, and wherein tissue culture is omitted; a) delivering the site-directed nuclease or a genetic material for expressing the site-directed nuclease into said plant via a pollen tube, inflorescence, shoot apex or ovary after pollination, and b) growing the plant obtained in step a) in the absence of selection pressure, allowing the site-directed nuclease or the genetic material not integrated into the plant chromosome to be degraded, and wherein tissue culture is omitted; wherein said genetic material is a recombinant vector or a DNA linear fragment or an in vitro transcribed RNA.
A system for measuring parameters at a plurality of loci associated with an aircraft; the system comprising: (a) a central unit; (b) a plurality of communicating nodes (16 n) coupled with said central unit; and characterized by (c) a respective plurality of sensing units (18 m, 20 m, 22 m, 24 m) associated with each respective communicating node (16 n) of said plurality of communicating nodes; at least one selected sensing unit (18 m, 20 m, 22 m, 24 m) of at least one said respective plurality of sensing units being a remote sensing unit; said at least one remote sensing unit (18 m, 20 m, 22 m, 24 m) communicating wirelessly with said respective communicating node (16 n). (a) a central unit; (b) a plurality of communicating nodes (16 n) coupled with said central unit; and characterized by (c) a respective plurality of sensing units (18 m, 20 m, 22 m, 24 m) associated with each respective communicating node (16 n) of said plurality of communicating nodes; at least one selected sensing unit (18 m, 20 m, 22 m, 24 m) of at least one said respective plurality of sensing units being a remote sensing unit; said at least one remote sensing unit (18 m, 20 m, 22 m, 24 m) communicating wirelessly with said respective communicating node (16 n).