mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for updating network devices , at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: determining , by monitoring at least one endpoint device (206 -(N)) connected to a network device that provides a network connection for the endpoint device for a predetermined amount of time to gather information about the user's schedule, periodic time intervals in which a user of the endpoint device is unlikely to access the network connection via the network device, wherein determining is further by analyzing this information to identify time intervals in which the user did not access and/or was not available to access a network connection, and using the identified time intervals to predict future time intervals in which the user is unlikely to access the network connection, wherein the time intervals corresponding to when the user is likely to be asleep; detecting that a system update is available for the network device that will impair the ability of the network device to provide the network connection for the endpoint device while being applied to the network device; identifying , based on the periodic time intervals in which the user is unlikely to access the network connection, an optimal time at which to apply the available system update to the network device; applying the available system update to the network device at the optimal time. determining , by monitoring at least one endpoint device (206 -(N)) connected to a network device that provides a network connection for the endpoint device for a predetermined amount of time to gather information about the user's schedule, periodic time intervals in which a user of the endpoint device is unlikely to access the network connection via the network device, wherein determining is further by analyzing this information to identify time intervals in which the user did not access and/or was not available to access a network connection, and using the identified time intervals to predict future time intervals in which the user is unlikely to access the network connection, wherein the time intervals corresponding to when the user is likely to be asleep; detecting that a system update is available for the network device that will impair the ability of the network device to provide the network connection for the endpoint device while being applied to the network device; identifying , based on the periodic time intervals in which the user is unlikely to access the network connection, an optimal time at which to apply the available system update to the network device; applying the available system update to the network device at the optimal time.
A radio frequency, RF, receiver , comprising: a frequency synthesizer , configured to: generate a clock signal ; a first frequency synthesizer (304_1), configured to: generate a first digital carrier signal, LO1 (305_1), using the clock signal; a second frequency synthesizer (304_2), configured to: generate a second digital carrier signal, LO2 (305_2), using the clock signal; and a digital mixer , configured to: downconvert a first analog radio frequency signal, RF1 (309_1), to a first intermediate frequency, IF1 (310_1), and a second analog radio frequency signal, RF2 (309_2), to a second intermediate frequency, IF2 (310_2), using the LO1 and the LO2; wherein channels of the RF1 and the RF2 are carrier aggregated, CA; wherein the digital mixer is further configured to receive the RF1 and the RF2 via a single analog receiver path; and wherein the LO1 comprises a first digital sinusoidal signal at frequency f 1 , and the LO2 comprises a second digital sinusoidal signal at frequency f 2 . a frequency synthesizer , configured to: generate a clock signal ; a first frequency synthesizer (304_1), configured to: generate a first digital carrier signal, LO1 (305_1), using the clock signal; a second frequency synthesizer (304_2), configured to: generate a second digital carrier signal, LO2 (305_2), using the clock signal; and a digital mixer , configured to: downconvert a first analog radio frequency signal, RF1 (309_1), to a first intermediate frequency, IF1 (310_1), and a second analog radio frequency signal, RF2 (309_2), to a second intermediate frequency, IF2 (310_2), using the LO1 and the LO2; wherein channels of the RF1 and the RF2 are carrier aggregated, CA; wherein the digital mixer is further configured to receive the RF1 and the RF2 via a single analog receiver path; and wherein the LO1 comprises a first digital sinusoidal signal at frequency f 1 , and the LO2 comprises a second digital sinusoidal signal at frequency f 2 .
An acoustic transducer comprising: a first acoustic module comprising a first vibrating plate , a first rod , a second rod and at least one first motor , wherein the first rod and the second rod are connected to and driven by the first motor and the first vibrating plate is connected to the first rod and the second rod; and a second acoustic module comprising a second vibrating plate , a third rod , a fourth rod and at least one second motor , wherein the third rod and the fourth rod are connected to and driven by the second motor and the second vibrating plate is connected to the third rod and the fourth rod, wherein the first rod and the third rod are coaxially arranged separate rods, the second rod and the fourth rod are coaxially arranged separate rods. a first acoustic module comprising a first vibrating plate , a first rod , a second rod and at least one first motor , wherein the first rod and the second rod are connected to and driven by the first motor and the first vibrating plate is connected to the first rod and the second rod; and a second acoustic module comprising a second vibrating plate , a third rod , a fourth rod and at least one second motor , wherein the third rod and the fourth rod are connected to and driven by the second motor and the second vibrating plate is connected to the third rod and the fourth rod, wherein the first rod and the third rod are coaxially arranged separate rods, the second rod and the fourth rod are coaxially arranged separate rods.
An infant car seat , comprising: a seat base , and a stability leg rotatably disposed under the seat base , the stability leg comprising: an upper leg tube , comprising at least one opening , and a rotary member , comprising a pivoting portion rotatably connected to the seat base , characterized in that : the rotary member further comprises an encircling portion connected to the pivoting portion and slidably disposed on the upper leg tube ; and the stability leg further comprises a first latch disposed on the rotary member , and adapted to detachably engage with the at least one opening for constraining a movement between the rotary member and the upper leg tube . a seat base , and a stability leg rotatably disposed under the seat base , the stability leg comprising: an upper leg tube , comprising at least one opening , and a rotary member , comprising a pivoting portion rotatably connected to the seat base , an upper leg tube , comprising at least one opening , and a rotary member , comprising a pivoting portion rotatably connected to the seat base , characterized in that : the rotary member further comprises an encircling portion connected to the pivoting portion and slidably disposed on the upper leg tube ; and the stability leg further comprises a first latch disposed on the rotary member , and adapted to detachably engage with the at least one opening for constraining a movement between the rotary member and the upper leg tube . the rotary member further comprises an encircling portion connected to the pivoting portion and slidably disposed on the upper leg tube ; and the stability leg further comprises a first latch disposed on the rotary member , and adapted to detachably engage with the at least one opening for constraining a movement between the rotary member and the upper leg tube .
A fuel cell system comprising: a fuel cell ; a fuel supply system that is configured to supply an anode gas to the fuel cell ; a warming-up system configured to warm up the fuel cell ; an air supply system configured to supply air to the warming-up system and the fuel cell ; a first combustor coupled to a discharged air side of the fuel cell ; a heating device that is configured to heat the first combustor ; a temperature sensor configured to detect a temperature of a gas discharged from the first combustor ; a flow passage cutoff valve mounted on a discharge passage configured to supply a fuel off-gas discharged from the fuel cell to the first combustor ; a warming-up control unit configured to control warming-up of the fuel cell ; characterized in that the warming-up control unit is further configured to perform, prior to the warming up control of the fuel cell , a before-warming-up control comprising: causing the heating device to warm-up the first combustor while causing the air supply system to supply air to the fuel cell and preventing the fuel supply system from supplying the anode gas to the fuel cell ; and controlling the flow passage cutoff valve to open the discharge passage after the temperature detected by the temperature sensor is raised to a temperature required for catalytic combustion. a fuel cell ; a fuel supply system that is configured to supply an anode gas to the fuel cell ; a warming-up system configured to warm up the fuel cell ; an air supply system configured to supply air to the warming-up system and the fuel cell ; a first combustor coupled to a discharged air side of the fuel cell ; a heating device that is configured to heat the first combustor ; a temperature sensor configured to detect a temperature of a gas discharged from the first combustor ; a flow passage cutoff valve mounted on a discharge passage configured to supply a fuel off-gas discharged from the fuel cell to the first combustor ; a warming-up control unit configured to control warming-up of the fuel cell ; characterized in that the warming-up control unit is further configured to perform, prior to the warming up control of the fuel cell , a before-warming-up control comprising: causing the heating device to warm-up the first combustor while causing the air supply system to supply air to the fuel cell and preventing the fuel supply system from supplying the anode gas to the fuel cell ; and controlling the flow passage cutoff valve to open the discharge passage after the temperature detected by the temperature sensor is raised to a temperature required for catalytic combustion. causing the heating device to warm-up the first combustor while causing the air supply system to supply air to the fuel cell and preventing the fuel supply system from supplying the anode gas to the fuel cell ; and controlling the flow passage cutoff valve to open the discharge passage after the temperature detected by the temperature sensor is raised to a temperature required for catalytic combustion.
Piston of an internal combustion engine, comprising a composite material which is applied at least in regions to the surface of the piston, wherein the composite material contains a matrix of high-temperature polymers and liquid crystalline polymers (LCP) with mesogenic groups, and wherein the composite material contains graphene.
A drainage device comprising an aspiration pouch supported by a sheet-like element , the sheet-like element being arranged on a bottom side of the aspiration pouch and overlapping at least partially the aspiration pouch , wherein - the aspiration pouch comprises a least one draining layer encapsulated by a gas- and fluid tight foil such that the aspiration pouch and the draining layer form an integral part, - the aspiration pouch is connectable to aspiration means by way of a connecting element which is provided on the top of the draining layer such that, in use, the draining layer is arranged between a cavitary lesion and the connecting element , - the draining layer is formed of a porous material adapted to absorb fluid out of the cavitary lesion, and - the gas- and fluid tight foil forms a first opening that is reinforced by the sheet-like element supporting the aspiration pouch , characterized in that - the foil encloses the draining layer on the bottom of the draining layer and extends radially inwardly so as to cover at least partially the bottom of the draining layer , - the sheet-like element and the connecting element are provided on opposing sides of the aspiration pouch , - the sheet-like element is gas- and fluid tightly connected with the foil , and - the sheet-like element is an annular element. - the aspiration pouch comprises a least one draining layer encapsulated by a gas- and fluid tight foil such that the aspiration pouch and the draining layer form an integral part, - the aspiration pouch is connectable to aspiration means by way of a connecting element which is provided on the top of the draining layer such that, in use, the draining layer is arranged between a cavitary lesion and the connecting element , - the draining layer is formed of a porous material adapted to absorb fluid out of the cavitary lesion, and - the gas- and fluid tight foil forms a first opening that is reinforced by the sheet-like element supporting the aspiration pouch , - the foil encloses the draining layer on the bottom of the draining layer and extends radially inwardly so as to cover at least partially the bottom of the draining layer , - the sheet-like element and the connecting element are provided on opposing sides of the aspiration pouch , - the sheet-like element is gas- and fluid tightly connected with the foil , and - the sheet-like element is an annular element.
A method for processing data, the method comprising: receiving an indication that all threads of a warp in a graphics processing unit (GPU) are to execute a same branch in a first set of instructions; storing one or more predicate bits in a memory as a single set of predicate bits, wherein the single set of predicate bits applies to all of the threads in the warp; and executing a portion of the first set of instructions in accordance with the single set of predicate bits. receiving an indication that all threads of a warp in a graphics processing unit (GPU) are to execute a same branch in a first set of instructions; storing one or more predicate bits in a memory as a single set of predicate bits, wherein the single set of predicate bits applies to all of the threads in the warp; and executing a portion of the first set of instructions in accordance with the single set of predicate bits.
A socket fusion jig comprising: a pipe support comprising a left pipe clamp jaw and a right pipe clamp jaw ; a coupling support ; and a first input link rotatable about an axis at a first end thereof, wherein rotation of the first input link moves the coupling support laterally relative to the pipe support , characterized by : a pipe clamp screw , wherein rotation of the pipe clamp screw causes the left pipe clamp jaw and the right pipe clamp jaw to move in opposite directions. a pipe support comprising a left pipe clamp jaw and a right pipe clamp jaw ; a coupling support ; and a first input link rotatable about an axis at a first end thereof, wherein rotation of the first input link moves the coupling support laterally relative to the pipe support , characterized by : a pipe clamp screw , wherein rotation of the pipe clamp screw causes the left pipe clamp jaw and the right pipe clamp jaw to move in opposite directions.
A voltage monitoring apparatus , suitable for use in an electric vehicle, wherein the voltage monitoring apparatus comprises a power conversion module and a microcontroller electrically connected to the power conversion module; the power conversion module is configured to output a voltage; the microcontroller comprises an Analog-to-Digital Conversion, ADC module , a monitoring module , and an IO module , wherein the ADC module is configured to obtain an output voltage of the power conversion module, and determine whether the output voltage encounters an exception; and the monitoring module is configured to: when the output voltage encounters an exception, output a control signal through the IO module; and the power conversion module is further configured to stop outputting the voltage based on the control signal; wherein the exception comprises overvoltage and undervoltage; when the output voltage is higher than an upper voltage threshold, the output voltage encounters overvoltage; when the output voltage is lower than a lower voltage threshold, the output voltage encounters undervoltage; and the upper voltage threshold is greater than the lower voltage threshold; characterised in that the microcontroller further comprises a self-checking module , a PWM module , and a low-pass filter circuit ; and the self-checking module is configured to control a duty cycle of a voltage of the PWM module during power-on, so that the PWM module outputs an expected voltage, wherein the expected voltage is transmitted to the ADC module after passing through the low-pass filter circuit, to diagnose whether the ADC module encounters an exception. the power conversion module is configured to output a voltage; the microcontroller comprises an Analog-to-Digital Conversion, ADC module , a monitoring module , and an IO module , wherein the ADC module is configured to obtain an output voltage of the power conversion module, and determine whether the output voltage encounters an exception; and the monitoring module is configured to: when the output voltage encounters an exception, output a control signal through the IO module; and the power conversion module is further configured to stop outputting the voltage based on the control signal; wherein the exception comprises overvoltage and undervoltage; when the output voltage is higher than an upper voltage threshold, the output voltage encounters overvoltage; when the output voltage is lower than a lower voltage threshold, the output voltage encounters undervoltage; and the upper voltage threshold is greater than the lower voltage threshold; characterised in that the microcontroller further comprises a self-checking module , a PWM module , and a low-pass filter circuit ; and the self-checking module is configured to control a duty cycle of a voltage of the PWM module during power-on, so that the PWM module outputs an expected voltage, wherein the expected voltage is transmitted to the ADC module after passing through the low-pass filter circuit, to diagnose whether the ADC module encounters an exception.
A device for the medical treatment of humans and/or animals, in particular for the treatment of wounds and/or dermatoses, comprising a reaction gas generator configured for generating reactive gases, and an application device for applying said reactive gases in a treatment area, and comprising a neutralisation device configured for neutralising reactive gases and by means of which the concentration of reactive gases outside the treatment area can be reduced, characterised in that the application device comprises a covering device, such as a covering film and/or a wound dressing for covering the treatment site, said covering device comprises at least one inlet port configured for introducing the reactive gases into the treatment area and at least one outlet port configured for removing the reactive gases from the treatment area, and the reaction gas generator is connected to an inlet port of the application device via a tube.
An electronic cigarette device comprising a housing configured to hold a battery , a vent port arranged in the housing , a safety valve means arranged on the vent port , wherein the safety valve means is configured to open and/or close the vent port partially and/or completely characterised in that the safety valve means is configured to open and/or close the vent port partially and/or completely depending on the temperature within the housing. a housing configured to hold a battery , a vent port arranged in the housing , a safety valve means arranged on the vent port , wherein the safety valve means is configured to open and/or close the vent port partially and/or completely characterised in that the safety valve means is configured to open and/or close the vent port partially and/or completely depending on the temperature within the housing.
An industrial scale continuous process for the production and recovery of cyclohexanone from phenol and hydrogen, said process comprising: I) hydrogenating phenol in a phenol hydrogenation reactor in a phenol hydrogenation reaction section [I] with gaseous hydrogen, in the presence of platinum and / or palladium comprising catalyst, whereby reaction heat is produced and from which a hydrogenated product stream is discharged; II) separating cyclohexanone from said hydrogenated product stream in a separation and purification section [II] by multiple-steps comprising: i. removing in a first distillation section, components with a boiling point lower than cyclohexanone; ii. removing in a second distillation section cyclohexanone; iii. removing in a third distillation section a cyclohexanol rich phase; and iv. removing in a fourth distillation section a mixture comprising phenol and cyclohexanol; wherein said cyclohexanone has a cyclohexanol content below 5000 ppm (weight/weight); wherein at least some of the reaction heat produced in the phenol hydrogenation reaction section [I] is applied for the production of steam; and wherein the mixture comprising phenol and cyclohexanol that is removed in step iv) is charged to the phenol hydrogenation reaction section [I]; characterized in that conditions a) and b) apply: a. the molar ratio of cyclohexanone to phenol that is charged to said phenol hydrogenation reactor is from 0.02 to 0.10; and b. the molar ratio of cyclohexanol to phenol that is charged to said phenol hydrogenation reactor is from 0.001 to 0.10. I) hydrogenating phenol in a phenol hydrogenation reactor in a phenol hydrogenation reaction section [I] with gaseous hydrogen, in the presence of platinum and / or palladium comprising catalyst, whereby reaction heat is produced and from which a hydrogenated product stream is discharged; II) separating cyclohexanone from said hydrogenated product stream in a separation and purification section [II] by multiple-steps comprising: i. removing in a first distillation section, components with a boiling point lower than cyclohexanone; ii. removing in a second distillation section cyclohexanone; iii. removing in a third distillation section a cyclohexanol rich phase; and iv. removing in a fourth distillation section a mixture comprising phenol and cyclohexanol; i. removing in a first distillation section, components with a boiling point lower than cyclohexanone; ii. removing in a second distillation section cyclohexanone; iii. removing in a third distillation section a cyclohexanol rich phase; and iv. removing in a fourth distillation section a mixture comprising phenol and cyclohexanol; a. the molar ratio of cyclohexanone to phenol that is charged to said phenol hydrogenation reactor is from 0.02 to 0.10; and b. the molar ratio of cyclohexanol to phenol that is charged to said phenol hydrogenation reactor is from 0.001 to 0.10.