mhurhangee/patent-ind-claim-en huggingface dataset:
A control device intended to be embedded in a motor vehicle , in particular in an autonomous motor vehicle , the motor vehicle including a passenger compartment able to receive at least one passenger and at least one service equipment item for passengers of the passenger compartment , the control device being provided to be coupled to each passenger service equipment item and including: - a detection module configured to detect a plurality of passengers of the passenger compartment , - a classification module configured to classify each detected passenger in at least one corresponding passenger category, in particular among a set of predetermined passenger categories, and - a generating module configured to generate, as a function at least of said passenger category, a command of the at least one passenger service equipment item , the generating module being configured to compute, for each passenger category, a number of passengers categorized in the category, to determine a majority passenger category from the computed numbers of passengers and to generate the command as a function of the majority passenger category. - a detection module configured to detect a plurality of passengers of the passenger compartment , - a classification module configured to classify each detected passenger in at least one corresponding passenger category, in particular among a set of predetermined passenger categories, and - a generating module configured to generate, as a function at least of said passenger category, a command of the at least one passenger service equipment item ,
A surrounding vehicle display method, comprising: obtaining information on surroundings of a host vehicle ; detecting a vehicle speed of the host vehicle ; using the obtained information on the surroundings of the host vehicle to generate a virtual image that indicates the surroundings of the host vehicle as being viewed from above the host vehicle ; making a display region of a front region and a rear region around the host vehicle on the virtual image wide when the detected vehicle speed is higher than a low vehicle speed; and displaying the virtual image on a display , characterized in that an increase rate for widening the rear region is greater than the increase rate for widening the front region. obtaining information on surroundings of a host vehicle ; detecting a vehicle speed of the host vehicle ; using the obtained information on the surroundings of the host vehicle to generate a virtual image that indicates the surroundings of the host vehicle as being viewed from above the host vehicle ; making a display region of a front region and a rear region around the host vehicle on the virtual image wide when the detected vehicle speed is higher than a low vehicle speed; and displaying the virtual image on a display , characterized in that an increase rate for widening the rear region is greater than the increase rate for widening the front region.
A dental oven comprising an oven head , a firing chamber and a firing chamber bottom suitable for receiving a muffle preheated in a preheating oven, comprising a storage device as well as a control device for program-controlled operation of the dental oven , wherein at least one optical sensor is arranged on or in the vicinity of the dental oven and has an output connection which is connected to an evaluation device and the storage device, and the at least one optical sensor is adapted to detect the surface temperature (T) of a muffle and transmit the detected surface temperature (T) to the evaluation device, wherein, when a muffle is received in the firing chamber , the sensor is directed to the surface of the muffle , characterized in that the control device , on the basis of a given muffle size as well as the at least one value of the detected surface temperature (T) transmitted by the optical sensor and stored in the memory device, is arranged to infer a preheating temperature and conversion time of the muffle from the detected surface temperature (T), thus determining an actual temperature in the interior of the muffle , and in that the control device is configured to control at least one parameter of the selected or set processing program of the dental oven as a function of the surface temperature of the muffle detected by the sensor and of the muffle size by means of values stored in the storage device which correspond to different sizes, conversion times and preheating temperatures of the muffle, wherein the control device is configured to control at least one of the parameters holding time, holding temperature or heating gradient of a processing program of the dental oven using the determined temperature inside the muffle .
A method for controlling uplink transmission power in a wireless communication system, the method performed by a wireless device and the method comprising: receiving (S410) transmit power command, TPC, monitoring information to adjust an uplink transmission power for a first physical uplink control channel, PUCCH, cell and a second PUCCH cell, the TPC monitoring information including a first TPC index assigned to the first PUCCH cell and a second TPC index assigned to the second PUCCH cell; receiving (S420) a TPC payload by monitoring a downlink control channel based on the TPC monitoring information, the TPC payload including a plurality of TPCs; acquiring (S420) a first TPC for the first PUCCH cell and a second TPC for the second PUCCH cell from the plurality of TPCs based on the first TPC index and the second TPC index; and applying (S430) the first TPC and the second TPC to PUCCH transmissions on the first PUCCH cell and the second PUCCH cell, wherein the wireless device is configured with dual connectivity by being configured with a first set of serving cells and a second set of serving cells, wherein the first PUCCH cell is only one cell which is capable of receiving a first PUCCH in the first set of serving cells, and wherein the second PUCCH cell is only one cell which is capable of receiving a second PUCCH in the second set of serving cells. receiving (S410) transmit power command, TPC, monitoring information to adjust an uplink transmission power for a first physical uplink control channel, PUCCH, cell and a second PUCCH cell, the TPC monitoring information including a first TPC index assigned to the first PUCCH cell and a second TPC index assigned to the second PUCCH cell; receiving (S420) a TPC payload by monitoring a downlink control channel based on the TPC monitoring information, the TPC payload including a plurality of TPCs; acquiring (S420) a first TPC for the first PUCCH cell and a second TPC for the second PUCCH cell from the plurality of TPCs based on the first TPC index and the second TPC index; and applying (S430) the first TPC and the second TPC to PUCCH transmissions on the first PUCCH cell and the second PUCCH cell, wherein the wireless device is configured with dual connectivity by being configured with a first set of serving cells and a second set of serving cells, wherein the first PUCCH cell is only one cell which is capable of receiving a first PUCCH in the first set of serving cells, and wherein the second PUCCH cell is only one cell which is capable of receiving a second PUCCH in the second set of serving cells.
A device for generating a respiratory therapy, the device comprising: a pressure generator configured to generate a supply of pressurized air from an outlet along an air circuit to a patient interface ; a sensor configured to generate a sound signal representing a sound of the pressure generator in the air circuit; a dampening structure configured to reduce reflection of sound from the pressure generator along the air circuit; and a controller configured to: process the sound signal so as to identify the patient interface and / or the air circuit. a pressure generator configured to generate a supply of pressurized air from an outlet along an air circuit to a patient interface ; a sensor configured to generate a sound signal representing a sound of the pressure generator in the air circuit; a dampening structure configured to reduce reflection of sound from the pressure generator along the air circuit; and a controller configured to: process the sound signal so as to identify the patient interface and / or the air circuit.
A multilayer film comprising at least two layers, a layer (B) and an outer layer (A), wherein outer layer (A) comprises a multimodal polymer of ethylene with at least two different comonomers selected from alpha-olefins having from 4 to 10 carbon atoms and wherein said layer (B) comprises a multimodal ethylene copolymer of ethylene and one C4-10 comonomer or a multimodal ethylene terpolymer of ethylene and at least two C4-10 comonomers, or a mixture thereof, wherein the multimodal polymer of ethylene of layer (A) has a density of 910 to 935 kg/m 3 , and a Mw/Mn of 2 to 8; and wherein said multimodal ethylene copolymer or terpolymer of layer (B) has a density of 910 to 940 kg/m 3 and an Mw/Mn of 9 or more. wherein the multimodal polymer of ethylene of layer (A) has a density of 910 to 935 kg/m 3 , and a Mw/Mn of 2 to 8; and wherein said multimodal ethylene copolymer or terpolymer of layer (B) has a density of 910 to 940 kg/m 3 and an Mw/Mn of 9 or more.
A reignition processing device for a gas engine for executing a reignition process of a cylinder during operation of a gas engine having multiple cylinders, the reignition processing device comprising: an execution permission unit configured to, when at least one of the cylinders misfires, perform permission determination whether to execute the reignition process of a misfiring cylinder which is the at least one cylinder that misfires, on the basis of a damage diagnosis result based on an in-cylinder pressure (P) of the misfiring cylinder , presence or absence of abnormality in a control device which performs combustion control and combustion diagnosis of the gas engine , an operational history (Dc) related to the misfiring cylinder , and an operational state of the gas engine ; and a reignition execution unit configured to execute the reignition process of the misfiring cylinder that is permitted by the permission determination to execute the reignition process. an execution permission unit configured to, when at least one of the cylinders misfires, perform permission determination whether to execute the reignition process of a misfiring cylinder which is the at least one cylinder that misfires, on the basis of a damage diagnosis result based on an in-cylinder pressure (P) of the misfiring cylinder , presence or absence of abnormality in a control device which performs combustion control and combustion diagnosis of the gas engine , an operational history (Dc) related to the misfiring cylinder , and an operational state of the gas engine ; and a reignition execution unit configured to execute the reignition process of the misfiring cylinder that is permitted by the permission determination to execute the reignition process.
A portable analyzer, comprising an X-ray fluorescence analyzer; a handle for holding the portable analyzer, a detector of ionizing radiation that is separate from a detector of fluorescent X-rays comprised in said portable analyzer and that is configured to detect at least one of: radiation from spontaneous radioactive decay within an environment of the portable analyzer and ionizing radiation propagating past a front end of the portable analyzer towards its user, wherein the detector of ionizing radiation is located between said front end and said handle ; and a shield on that side of said handle that is directed to the same direction as said front end , characterized in that the detector of ionizing radiation is located in the shield .
A removable crown strap assembly configured for use with an interface and headgear assembly, the removable crown strap assembly comprising a first portion comprising a first strap region and a first bridge region , and a second portion comprising a second strap region and a second bridge region , each of the first bridge region and the second bridge region being configured to receive a strap of the interface and headgear assembly, wherein each of the first bridge region and the second bridge region comprises an inner wall and an outer wall that are connected together to define a loop that defines a passageway that accommodates the strap , and wherein at least a portion of the loop is interrupted to define an insertion path for the strap , wherein the outer wall includes a slot that interrupts the outer wall to define an upper portion and a lower portion .
An optic signal receiver comprising an optic signal detection unit , an estimation unit , and a feedback control unit to provide a detector control signal (S) to control operation of the optic signal detection unit , wherein: - the optic signal detection unit comprises an input module , a mode splitting module and a signal detection module , wherein the input module is to modify a received optic input signal (L) into a multi-mode optic output signal ( L̃ ), the mode splitting module is configured to branch the multi-mode optic output signal ( L̃ ) off into multiple reduced mode optic signals ( L 1 ,L 2 ,...,L n ) and the signal detection module is configured to issue a detection signal ( I ), the signal detection module comprising a plurality of signal detection sections that are each configured to measure an intensity data of a respective one of the reduced mode optic signals and to provide a respective indicator ( I 1 ,I 2 ,...,I n ) indicative of the measured intensity data as a component of the detection signal ( I ); - the feedback control unit being configured to minimize a difference between the detection signal ( I ) and a detection reference signal ( I d ) with the detector control signal ( S ); - characterized in that the estimation unit is configured to issue a further input signal (C IS ) to the feedback control unit based on a model of the optic signal detection unit , and in that the input module is an adaptive optic module that is configured to modify the received optic input signal ( L ) under control of the detector control signal ( S ). - the optic signal detection unit comprises an input module , a mode splitting module and a signal detection module , wherein the input module is to modify a received optic input signal (L) into a multi-mode optic output signal ( L̃ ), the mode splitting module is configured to branch the multi-mode optic output signal ( L̃ ) off into multiple reduced mode optic signals ( L 1 ,L 2 ,...,L n ) and the signal detection module is configured to issue a detection signal ( I ), the signal detection module comprising a plurality of signal detection sections that are each configured to measure an intensity data of a respective one of the reduced mode optic signals and to provide a respective indicator ( I 1 ,I 2 ,...,I n ) indicative of the measured intensity data as a component of the detection signal ( I ); - the feedback control unit being configured to minimize a difference between the detection signal ( I ) and a detection reference signal ( I d ) with the detector control signal ( S ); - characterized in that the estimation unit is configured to issue a further input signal (C IS ) to the feedback control unit based on a model of the optic signal detection unit , and in that the input module is an adaptive optic module that is configured to modify the received optic input signal ( L ) under control of the detector control signal ( S ).
A system for operating a latching assembly used with an oilfield device, comprising: the latching assembly disposed in a housing configured to be positioned below a water surface; a first signal device configured to be disposed below the water surface; a second signal device coupled with said housing wherein the latching assembly is configured to operate in response to a first signal transmitted wirelessly and remotely from said first signal device through a body of water to said second signal device when said first signal device is spaced apart from and not connected with said housing ; a first accumulator configured to communicate with the latching assembly ; an umbilical line configured to communicate with the latching assembly ; and a first valve configured to control fluid communication to the latching assembly and having a first position allowing flow of hydraulic fluid from the umbilical line to the latching assembly, and a second position allowing flow of hydraulic fluid from the first accumulator to the latching assembly. the latching assembly disposed in a housing configured to be positioned below a water surface; a first signal device configured to be disposed below the water surface; a second signal device coupled with said housing wherein the latching assembly is configured to operate in response to a first signal transmitted wirelessly and remotely from said first signal device through a body of water to said second signal device when said first signal device is spaced apart from and not connected with said housing ; a first accumulator configured to communicate with the latching assembly ; an umbilical line configured to communicate with the latching assembly ; and a first valve configured to control fluid communication to the latching assembly and having a first position allowing flow of hydraulic fluid from the umbilical line to the latching assembly, and a second position allowing flow of hydraulic fluid from the first accumulator to the latching assembly.
Method for operating a wind turbine and/or a wind park for feeding electrical power into an electrical supply network , wherein an output power, in particular an active and/or reactive power (P, Q), is controlled by means of at least one power control module of a regulation and/or control device , having the steps of: - predetermining a power control input value, - determining a power control output value from the power control input value, - outputting a power control output value, wherein - the power control module has a P controller and an I controller and an I proportion limiter, wherein - a first working value of the power control input value in the P controller is processed to form a P proportion, - a second working value of the power control input value in the I controller is processed to form an I proportion, and - a third working value of the power control input value is processed in the I proportion limiter to form a limited I proportion, - the P proportion is determined parallel with the I proportion, and - the I proportion is determined from the power control input value and the limited I proportion is subsequently determined from the I proportion, characterised in that : - the limited I proportion is limited by means of a gradient limitation and the limitation of the I proportion of the I controller is limited to a maximum of 20%, and - the power control output value (P output) is determined with the limited I proportion and the P proportion. - predetermining a power control input value, - determining a power control output value from the power control input value, - outputting a power control output value, wherein - the power control module has a P controller and an I controller and an I proportion limiter, wherein - a first working value of the power control input value in the P controller is processed to form a P proportion, - a second working value of the power control input value in the I controller is processed to form an I proportion, and - a third working value of the power control input value is processed in the I proportion limiter to form a limited I proportion, - the P proportion is determined parallel with the I proportion, and - the I proportion is determined from the power control input value and the limited I proportion is subsequently determined from the I proportion, characterised in that : - the limited I proportion is limited by means of a gradient limitation and the limitation of the I proportion of the I controller is limited to a maximum of 20%, and - the power control output value (P output) is determined with the limited I proportion and the P proportion. - the limited I proportion is limited by means of a gradient limitation and the limitation of the I proportion of the I controller is limited to a maximum of 20%, and - the power control output value (P output) is determined with the limited I proportion and the P proportion.
An electric cable comprising at least one elongated electrically conducting element and at least one non-crosslinked electrically insulating layer obtained from a polymer composition comprising at least one polypropylene-based thermoplastic polymer material and at least one inorganic filler, characterized in that the inorganic filler is chosen from carbonates and in that the polypropylene-based thermoplastic copolymer comprises a heterophasic propylene copolymer as P 1 propylene copolymer.
A data service control method, comprising: determining , by a packet data network, PDN, gateway, PGW, a status of a data service switch of user equipment, UE, wherein the status of the data service switch comprises that the data service switch is turned on or that the data service switch is turned off; determining , by the PGW, whether a first data packet belongs to a specified service type after the status of the data service switch is that the data service switch is turned off and the PGW receives the first data packet that goes to the UE; forwarding , by the PGW, the first data packet if the first data packet belongs to the specified service type; and notifying , by the PGW, a charging system that the status of the data service switch of the UE is that the data service switch is turned off; wherein the notifying, by the PGW, a charging system that the status of the data service switch of the UE is that the data service switch is turned off comprises: adding, by the PGW, first indication information to a charging data record, CDR, generated according to the first data packet, wherein the first indication information is for notifying the charging system that the data service switch of the UE is turned off. determining , by a packet data network, PDN, gateway, PGW, a status of a data service switch of user equipment, UE, wherein the status of the data service switch comprises that the data service switch is turned on or that the data service switch is turned off; determining , by the PGW, whether a first data packet belongs to a specified service type after the status of the data service switch is that the data service switch is turned off and the PGW receives the first data packet that goes to the UE; forwarding , by the PGW, the first data packet if the first data packet belongs to the specified service type; and notifying , by the PGW, a charging system that the status of the data service switch of the UE is that the data service switch is turned off; wherein the notifying, by the PGW, a charging system that the status of the data service switch of the UE is that the data service switch is turned off comprises: adding, by the PGW, first indication information to a charging data record, CDR, generated according to the first data packet, wherein the first indication information is for notifying the charging system that the data service switch of the UE is turned off.