mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating a spread spectrum Gaussian Minimum Shift Keying, GMSK, signal comprising: receiving flexibly encoded data for obtaining a sequence D(t) of data symbols for a data channel, obtaining at least one first spread spectrum code comprising a first sequence C D (t) of spread spectrum chips for the data channel, obtaining at least one second spread spectrum code comprising a second sequence C P (t) of spread spectrum chips for a pilot channel, generating a sequence r(t) of pre-modulation chips by combining the sequence D(t) of data symbols for the data channel with the spread spectrum chips of the first sequence C D (t) of the at least one first spread spectrum code and data symbols for the pilot channel with the spread spectrum chips of the second sequence C P (t) of the at least one second spread spectrum code to a combined sequence of chips, assigning the chips of the combined sequence of chips to the transmission channels In-Phase I and Quadrature Q of the spread spectrum GMSK signal so that not more than two consecutive pre-modulation chips generated with the same spread spectrum code are transmitted in the same transmission channel I or Q, and performing GMSK modulation g(t) using the sequence of pre-modulation chips to generate a spread spectrum GMSK signal s(t). receiving flexibly encoded data for obtaining a sequence D(t) of data symbols for a data channel, obtaining at least one first spread spectrum code comprising a first sequence C D (t) of spread spectrum chips for the data channel, obtaining at least one second spread spectrum code comprising a second sequence C P (t) of spread spectrum chips for a pilot channel, generating a sequence r(t) of pre-modulation chips by combining the sequence D(t) of data symbols for the data channel with the spread spectrum chips of the first sequence C D (t) of the at least one first spread spectrum code and data symbols for the pilot channel with the spread spectrum chips of the second sequence C P (t) of the at least one second spread spectrum code to a combined sequence of chips, assigning the chips of the combined sequence of chips to the transmission channels In-Phase I and Quadrature Q of the spread spectrum GMSK signal so that not more than two consecutive pre-modulation chips generated with the same spread spectrum code are transmitted in the same transmission channel I or Q, and performing GMSK modulation g(t) using the sequence of pre-modulation chips to generate a spread spectrum GMSK signal s(t).
Combined cooling and abrasion particles removal system with a housing for providing cooling and removing abrasion particles in a contact region between a brush and a slip ring of an electromechanical machine, the system comprising a passage for accommodating the brush and having a front opening adapted to face the slip ring , and at least one supply tube with an outlet for blowing a gaseous medium at least partially into a direction towards a free space adjacent to and surrounding the front opening , at least one suction tube with an inlet for sucking off the gaseous medium and the abrasion particles from the free space , characterised in that a vortex chamber surrounding the passage connects the free space to the inlet , and the free space merges with the vortex chamber with an outer wall portion curved in such a way that it promotes formation of a vortex for generating a vortex of the gaseous medium carrying the abrasion particles in operation of the system .
A method, comprising: - communicating, by a device of a network , to a communication device , a control message indicative of a sequence design configuration used for transmission of a at least one wake-up signal along a relaying link between the network and the communication device and via a further communication device ; and - communicating, to the further communication device , a control message indicative of the sequence design configuration, to thereby trigger the further communication device to transmit the at least one wake-up signal to the communication device on the relaying link . - communicating, by a device of a network , to a communication device , a control message indicative of a sequence design configuration used for transmission of a at least one wake-up signal along a relaying link between the network and the communication device and via a further communication device ; and - communicating, to the further communication device , a control message indicative of the sequence design configuration, to thereby trigger the further communication device to transmit the at least one wake-up signal to the communication device on the relaying link .
A method of providing, by a mobile robot device comprising an arm device , a service to a user, the method comprising: obtaining sensing information obtained by sensing a surrounding environment of the mobile robot device while the mobile robot device is traveling; the method characterized by : obtaining, based on the sensing information , information about a type of person around the mobile robot device and information about the surrounding environment of the mobile robot device ; changing, based on the information about the type of person and the information about the surrounding environment , a safety operation level of the mobile robot device ; and controlling, based on the changed safety operation level , an operation of the mobile robot device , wherein the safety operation level is a level for controlling an operation related to a movement of the mobile robot device and a motion of the arm device , and the mobile robot device changes the safety operation level by applying the obtained information about the type of person and the obtained information about the surrounding environment to a training model trained using an artificial intelligence algorithm. obtaining sensing information obtained by sensing a surrounding environment of the mobile robot device while the mobile robot device is traveling; the method characterized by : obtaining, based on the sensing information , information about a type of person around the mobile robot device and information about the surrounding environment of the mobile robot device ; changing, based on the information about the type of person and the information about the surrounding environment , a safety operation level of the mobile robot device ; and controlling, based on the changed safety operation level , an operation of the mobile robot device , wherein the safety operation level is a level for controlling an operation related to a movement of the mobile robot device and a motion of the arm device , and the mobile robot device changes the safety operation level by applying the obtained information about the type of person and the obtained information about the surrounding environment to a training model trained using an artificial intelligence algorithm. obtaining, based on the sensing information , information about a type of person around the mobile robot device and information about the surrounding environment of the mobile robot device ; changing, based on the information about the type of person and the information about the surrounding environment , a safety operation level of the mobile robot device ; and controlling, based on the changed safety operation level , an operation of the mobile robot device , wherein the safety operation level is a level for controlling an operation related to a movement of the mobile robot device and a motion of the arm device , and the mobile robot device changes the safety operation level by applying the obtained information about the type of person and the obtained information about the surrounding environment to a training model trained using an artificial intelligence algorithm.
A display system for a motor vehicle passenger compartment , comprising: - at least one indicia visible to an operator of the vehicle and configured to indicate a vehicle operating condition; - an indicia light configured to illuminate the indicia ; - a display device visible to an operator of the vehicle; - an ambient light configured to illuminate the vehicle passenger compartment ; and - a controller , wherein the controller , in communication with the indicia light , the display device , and the ambient light , is programmed to: - operate the display system in a first mode wherein the indicia light is activated to illuminate the indicia , - in response to a first control signal indicative of a change from the first mode to a second mode, reduce illumination of the indicia by the indicia light and control the display device to output information indicative of the vehicle operating condition, characterized in that the controller is further programmed to - activate the ambient light to illuminate the vehicle passenger compartment at a first level while operating the display system in the first mode, and - in response to the first control signal, reduce illumination of the vehicle passenger compartment by the ambient light to a second level lower than the first level. - at least one indicia visible to an operator of the vehicle and configured to indicate a vehicle operating condition; - an indicia light configured to illuminate the indicia ; - a display device visible to an operator of the vehicle; - an ambient light configured to illuminate the vehicle passenger compartment ; and - a controller , - operate the display system in a first mode wherein the indicia light is activated to illuminate the indicia , - in response to a first control signal indicative of a change from the first mode to a second mode, reduce illumination of the indicia by the indicia light and control the display device to output information indicative of the vehicle operating condition, characterized in that the controller is further programmed to - activate the ambient light to illuminate the vehicle passenger compartment at a first level while operating the display system in the first mode, and - in response to the first control signal, reduce illumination of the vehicle passenger compartment by the ambient light to a second level lower than the first level.
A method for targeted genomic disruption in a cell via microhomology-mediated end joining (MMEJ), the method comprising: administering at least one nuclease to the cell, wherein the nuclease cleaves endogenous genomic sequences in the cell; growing the cell in a medium comprising at least one small molecule inhibitor of a DNA-dependent-protein kinase catalytic subunit (DNA-PKcs) protein and a small-molecule inhibitor of a Poly-(ADP-ribose) polymerase 1/2 (PARP1/2) protein, wherein the small molecule inhibitor of the PARP1/2 protein is selected from the group consisting of a nicotinamide; a isoquinolinone; a dihydroisoquinolinone; a benzimidazole; an indole; phthalazin-1 -one; a quinazolinone; an isoindolinone; a phenanthridine; a phenanthridinone; a benzopyrone; an unsaturated hydroximic acid derivative; a pyridazine; caffeine, theophylline; and thymidine, and the small molecule inhibitor of the DNA-PKcs protein is selected from the group consisting of NU7026 and NU7441; wherein said method is performed ex vivo and wherein the cell is a mammalian cell or a human cell. administering at least one nuclease to the cell, wherein the nuclease cleaves endogenous genomic sequences in the cell; growing the cell in a medium comprising at least one small molecule inhibitor of a DNA-dependent-protein kinase catalytic subunit (DNA-PKcs) protein and a small-molecule inhibitor of a Poly-(ADP-ribose) polymerase 1/2 (PARP1/2) protein, wherein the small molecule inhibitor of the PARP1/2 protein is selected from the group consisting of a nicotinamide; a isoquinolinone; a dihydroisoquinolinone; a benzimidazole; an indole; phthalazin-1 -one; a quinazolinone; an isoindolinone; a phenanthridine; a phenanthridinone; a benzopyrone; an unsaturated hydroximic acid derivative; a pyridazine; caffeine, theophylline; and thymidine, and the small molecule inhibitor of the DNA-PKcs protein is selected from the group consisting of NU7026 and NU7441; wherein said method is performed ex vivo and wherein the cell is a mammalian cell or a human cell.
LED module comprising a substrate and at least one LED chip disposed on a surface of the substrate, a casting compound disposed above the LED chip and containing sedimented color conversion particles , which extends from an upper side of the LED chip facing away from the substrate to a defined height (h), wherein the color conversion particles within the casting compound form a layer , which covers an upper side of the LED chip facing away from the substrate and the surface of the substrate surrounding the LED chip, wherein the height (h) of the casting compound over the at least one LED chip is between 0.3 and 1.4 mm, wherein the casting compound is such that it has a thermal conductivity between 0.1 and 1.5 W/mK, characterized in that the height (h) of the casting compound over the at least one LED chip is between 0.3 and 1.4 mm, and that the layer of color conversion particles in the casting compound has a thickness between 45 and 75 μm, preferably between 45 and 55 μm. a substrate and at least one LED chip disposed on a surface of the substrate, a casting compound disposed above the LED chip and containing sedimented color conversion particles , which extends from an upper side of the LED chip facing away from the substrate to a defined height (h), wherein the color conversion particles within the casting compound form a layer , which covers an upper side of the LED chip facing away from the substrate and the surface of the substrate surrounding the LED chip, wherein the height (h) of the casting compound over the at least one LED chip is between 0.3 and 1.4 mm, wherein the casting compound is such that it has a thermal conductivity between 0.1 and 1.5 W/mK, characterized in that the height (h) of the casting compound over the at least one LED chip is between 0.3 and 1.4 mm, and that the layer of color conversion particles in the casting compound has a thickness between 45 and 75 μm, preferably between 45 and 55 μm.
A transmission device for driving a fuel pump for a turbomachine from a drive shaft of said turbomachine, comprising an epicyclic gear reducer comprising three elements, a central sun gear , an outer ring gear and a planet carrier , the planets of which engage with the sun gear and the ring gear, a first of the three elements being intended to be connected to the drive shaft and a second of the three elements being intended to be coupled to a shaft of the pump, said three elements being rotated about a shaft of the reducer, the device further comprisingfirst electrical means arranged so as to rotatably drive the third of said elements of the reducer , in such a way as to modify a rotational speed ratio between the first and the second of said elements, characterised in that the device comprises second electrical means coupled to the first or the second of said elements of the reducer , the first and second electrical means being arranged so as to transfer electrical power reversibly from one to the other.
A Power Slide, comprising a left slide and a right slide , wherein the left slide and the right slide each comprise: a top rail and a bottom rail , wherein the top rail is arranged above the bottom rail and is slidably connected to the bottom rail , and a notch is formed in a middle of the top rail ; a lead screw , wherein the lead screw is arranged above the bottom rail in parallel and has two ends fixedly connected to the bottom rail ; an electric motor comprising a housing , a rotor shaft and a stator shaft , characterized in that the housing is mounted in the notch , the stator shaft is fixedly connected into the housing , the rotor shaft penetrates into the stator shaft and is rotatably connected to the stator shaft , and an interior of the rotor shaft is connected to the lead screw in a threaded manner, the rotor shaft comprising a rotor shaft body and an internal threaded shaft , an outer surface of the internal threaded shaft is fixedly connected to the rotor shaft body , and an interior of the internal threaded shaft is connected to the lead screw in a threaded manner, the power slide further comprising bearings and end covers , wherein inner rings of the bearings are disposed around two ends of the internal threaded shaft , and outer rings of the bearings are connected to the stator shaft through the end covers , wherein clamping blocks are arranged on outer end faces of the end covers , clamping grooves are formed in the notch , and the clamping blocks are matched with the clamping grooves . a top rail and a bottom rail , wherein the top rail is arranged above the bottom rail and is slidably connected to the bottom rail , and a notch is formed in a middle of the top rail ; a lead screw , wherein the lead screw is arranged above the bottom rail in parallel and has two ends fixedly connected to the bottom rail ; an electric motor comprising a housing , a rotor shaft and a stator shaft , characterized in that the housing is mounted in the notch , the stator shaft is fixedly connected into the housing , the rotor shaft penetrates into the stator shaft and is rotatably connected to the stator shaft , and an interior of the rotor shaft is connected to the lead screw in a threaded manner, the rotor shaft comprising a rotor shaft body and an internal threaded shaft , an outer surface of the internal threaded shaft is fixedly connected to the rotor shaft body , and an interior of the internal threaded shaft is connected to the lead screw in a threaded manner, the power slide further comprising bearings and end covers , wherein inner rings of the bearings are disposed around two ends of the internal threaded shaft , and outer rings of the bearings are connected to the stator shaft through the end covers , wherein clamping blocks are arranged on outer end faces of the end covers , clamping grooves are formed in the notch , and the clamping blocks are matched with the clamping grooves .
Method for manufacturing an electrolyte membrane for an electrochemical device comprising the following steps: a) providing a substrate covered with a mat of carbon nanotubes , the carbon nanotubes having a first end and a second end, separated by a central part, the first end of the carbon nanotubes being fixed to the substrate , b) forming a retaining layer , in a first polymer material, on the second end of the carbon nanotubes , whereby the second end of the carbon nanotubes is covered and held by the retaining layer , c) forming, between the retaining layer and the substrate , a polymer matrix in a second polymer material, so as to coat at least the central part of the carbon nanotubes , d) when the first polymer material is not ionic conductive and electrically insulating, removing the retaining layer then covering the second end of the carbon nanotubes with an ionic conductive and electrically insulating element , e) removing the substrate , whereby an electrolyte membrane is obtained, having a first main face and a second main face, the carbon nanotubes forming channels within the electrolyte membrane , the channels being oriented perpendicularly to the first main face and to the second main face, and preferably being regularly spaced. a) providing a substrate covered with a mat of carbon nanotubes , the carbon nanotubes having a first end and a second end, separated by a central part, the first end of the carbon nanotubes being fixed to the substrate , b) forming a retaining layer , in a first polymer material, on the second end of the carbon nanotubes , whereby the second end of the carbon nanotubes is covered and held by the retaining layer , c) forming, between the retaining layer and the substrate , a polymer matrix in a second polymer material, so as to coat at least the central part of the carbon nanotubes , d) when the first polymer material is not ionic conductive and electrically insulating, removing the retaining layer then covering the second end of the carbon nanotubes with an ionic conductive and electrically insulating element , e) removing the substrate , whereby an electrolyte membrane is obtained, having a first main face and a second main face, the carbon nanotubes forming channels within the electrolyte membrane , the channels being oriented perpendicularly to the first main face and to the second main face, and preferably being regularly spaced.
Hinge having a side part which can be fixed to a wall and a hinge part which can be pivoted relative to the side part and to which a door can be fixed, and having a linear damper which is arranged in the side part and has a housing and a piston rod , which is pretensioned in particular by a spring , whereby the housing of the linear damper is non-rotatably fixed in the side part via a holder of the hinge to at least one axis on which a lever is mounted for pivotably mounting the hinge part , and a control cam is formed on the lever for mounting the hinge part , which cam compresses the linear damper during a closing movement shortly before reaching a closed position, characterized in that the control cam is formed on at least one bent web of the lever and slides along a pin of the hinge which rests against the piston rod of the linear damper .
A recombinant polypeptide having mannanase activity and comprising an amino acid sequence, which has: at least 92% sequence identity with Man13 (SEQ ID NO: 30).
Method for controlling the pressure of the exhaust gas of a machine , in particular an internal combustion engine, the exhaust gas being discharged from the machine via an exhaust gas line and the exhaust gas line having a control device , preferably comprising a throttle valve or a throttle plate, which control device defines a pressure-controlled portion of the exhaust gas line , gas, preferably air, being supplied to the pressure-controlled portion via a compressed gas line in a controlled manner such that the pressure in the pressure-controlled portion is substantially kept at a constant value, characterised in that the gas is supplied, by means of the compressed gas line , to the quarter of the pressure-controlled portion that is closer to the control device than to the machine and/or in a region which is less than 30 cm away from the control device .